JP7015627B2 - Cubicle (high pressure power receiving equipment) automatic security inspection system - Google Patents

Description

The present invention relates to a system for automatically performing a security check of a cubicle.

The conventional safety inspection of cubicles stipulated in the Electricity Business Act was carried out by humans on a regular basis by visual inspection and measurement.

JP 2015-218267

Labor shortages are occurring, especially in developed countries today, and there is also the problem of the aging of security inspectors. Furthermore, there is a problem that the inspection quality cannot be kept constant due to variations in the inspection skills and techniques of security inspectors.
In addition, there were many cases in which power was cut off at night, on holidays, and suddenly, and after a power outage, maintenance was urgently performed. Therefore, it is possible to automate the inspection contents performed by humans and make it a safety system that can be inspected 24 hours a day, and detect signs of abnormality before the power is cut off to avoid the worst situation of sudden power cutoff. There was a need to provide a system that could do it.

In order to solve such a problem, the present invention, as the first invention, is arranged internally and used as a measured value for sound or / and ultrasonic waves (hereinafter, “sound or / and ultrasonic waves” are collectively referred to as “sound””. A sound unit having a sound collecting unit for collecting) and a sound information output unit for outputting the sound information of the collected sound via a network, and an odor detection located inside and detecting an odor as a measured value. An odor unit having a unit, an odor information output unit that outputs the odor information of the detected odor via a network, a temperature measurement unit that is arranged inside and measures the temperature as a measured value, and a temperature of the measured temperature. A temperature information output unit that outputs information via a network, a temperature unit having a temperature unit, an internal image acquisition unit that is arranged inside and acquires an internal image that is an internal image, and a network that acquires internal image information of the acquired internal image. An internal image unit that has an internal image information output unit that outputs via a network, a vibration acquisition unit that is placed inside and acquires vibration as a measured value, and a vibration information output that outputs the acquired vibration information via a network. It has a vibration unit having a unit, a dust amount measuring unit arranged inside and measuring the amount of dust in the air as a measured value, and a dust amount information output unit that outputs the measured dust amount information via a network. An electric-related value measuring unit that measures various electric-related values in the dust unit and cubicle as measured values, an electric-related value information output unit that outputs the electric-related value information of the measured electric-related values via a network, and an electric-related value information output unit. Includes one or more of electric-related units having The same.), A cubicle information acquisition unit that acquires cubicle information that is information from the cubicle device via the network, and a history information storage unit that retains the acquired cubicle information as history information associated with the cubicle. The alarm condition holding unit that holds the alarm condition, which is the cubicle information that constitutes the history information and is the condition for outputting the alarm based on the combination of cubicle information of different origins, and the held history information are configured. A queue consisting of an alarm output device having an alarm output unit that outputs an alarm when a combination of cubicle information of different origins is held and an alarm condition is met, which is cubicle information. Provides an automatic vehicle security check system.
By installing this device, the frequency of inspections will be extended, the number of properties that can be inspected by one person will be increased, and the shortage of people will be resolved. There are some parts where it is difficult to detect abnormalities and signs even in inspections performed by humans, and there were variations in inspection quality and judgment due to human intervention, but the automatic safety inspection system provides signs of abnormalities and accidents. I can grasp it.

Next, as the second invention, an event information acquisition unit that acquires event information, which is information indicating an event that actually occurred in the cubicle in relation to the output alarm, the acquired event information, and the event occur. Provided is the cubicle automatic safety inspection system according to the first invention, further comprising a history information of cubicle information up to the point of the present invention, an alarm condition updating unit for updating an alarm condition based on the history information, and an alarm condition updating unit.

Next, as a third invention, the alarm output device holds a history information acquisition unit that acquires history information held by the history information holding unit and an alarm warning output rule that outputs an alarm notice based on the acquired history information. Alarm advance notice output rule holding unit, alarm history information acquisition unit that acquires alarm history information that is the output alarm and history information leading to the alarm, and alarm advance notice output that is held based on the acquired alarm history information. 1. The cubicle automatic security inspection system according to the second invention is provided.

Next, as a fourth invention, the alarm output device has an analysis rule holding unit that holds an analysis rule that holds an analysis rule for analyzing the safety level of the cubicle based on the held history information, and a holding unit. The cubicle automatic according to any one of the first to third inventions, further comprising a safety level information output unit that outputs information on the safety level based on the history information stored and the analysis rule held. Provide a security inspection system.

Next, as a fifth invention, the cubicle device is provided with a current / voltage acquisition unit that is arranged externally and acquires the current / / voltage of the lead wire to the cubicle, and current / voltage information that is information on the acquired current / / and voltage. A current-voltage unit that has a current-voltage information output unit that outputs the voltage via the network, an external image acquisition unit that acquires an external image that is an external image of the cubicle placed outside, and an external that is information on the acquired external image. The cubicle automatic security check according to any one of the first to fourth inventions, further comprising any one unit of an external image unit having an external image information output unit for outputting image information via a network. Provide the system.

Next, as a sixth invention, the alarm output device establishes an equipment replacement / maintenance timing determination rule, which is a rule that determines the replacement / maintenance timing of each equipment of each cubicle device based on the information held in the history information holding unit. Equipment replacement maintenance timing judgment rule to be held Based on the holding unit, the held history information and the held equipment replacement maintenance timing judgment rule, the equipment replacement maintenance timing, which is the replacement maintenance timing of each equipment of each cubicle device, is calculated. The first to fifth inventions further include an equipment replacement maintenance timing calculation unit and an equipment replacement notification unit that outputs the calculated equipment replacement maintenance timing when the calculated equipment replacement maintenance timing is within a predetermined period. Provided is the cubicle automatic security inspection system according to any one.

Next, as a seventh invention, the alarm output device holds a unit replacement maintenance timing determination rule, which is a rule that determines the replacement maintenance timing of each unit based on the information held in the history information holding unit. Maintenance timing judgment rule holding unit, unit replacement maintenance timing calculation unit that calculates unit replacement maintenance timing based on the retained history information and held unit replacement maintenance timing judgment rule, and the calculated unit replacement maintenance timing Provided is the cubicle automatic safety inspection system according to any one of the first to sixth inventions, further comprising a unit replacement notification unit that outputs the fact within a predetermined period.

Next, as the eighth invention, based on the report history information acquisition unit that acquires the report history information acquired for the report, which is the history information for a predetermined period, and the acquired report history information, A measurement value-related information generator that generates measurement value-related information that is information about the measurement value of each cubicle, and a measurement value-related information report output unit that outputs a measurement value-related information report that is a report of the generated measurement value-related information. The cubicle automatic security inspection system according to any one of the first to seventh inventions, further comprising a measurement value reporting device having the above.

Next, as a ninth invention, the measured value-related information generation unit of the measured value reporting device has a time transition graph of measured values for a predetermined period, a maximum value of measured values, a minimum value of measured values, and an average value of measured values. , The cubicle automatic safety inspection system according to the eighth invention, which has a time transition graph or the like generation means for generating information of any one or more of the standard deviations of measured values.

Next, as a tenth invention, the internal image information for a report, which is the internal image information acquired by the internal image unit among the history information for a predetermined period, and the internal image for the report acquired for the report. It is generated by a history information acquisition unit and an internal image-related information generation unit that generates internal image-related information based on internal image information taken at predetermined intervals of each cubicle based on the acquired internal image history information for reports. Described in any one of the first to ninth inventions, further comprising an internal image-related information report output unit for outputting an internal image-related information report, which is a report of internal image-related information. Provides an automatic cubicle security check system.

Next, as the eleventh invention, the alarm output history information by cause, which is the information relating the alarm output history from the alarm output unit and the alarm condition that caused the alarm output, is the report. Report to be acquired for alarm output history information by cause Report to acquire alarm output history information by cause and alarm related information which is information for reports related to alarm based on the acquired report cause alarm output history information The first to tenth inventions further include an alarm-related information report device having an alarm-related information report generator for generating a report, an alarm-related information report output unit for outputting a generated alarm-related information report, and an alarm-related information report device. Provided is the cubicle automatic security inspection system according to any one.

Next, as the twelfth invention, the measured value-related information, which is the information related to the measured value, includes abnormal noise, offensive odor, overheating, discoloration, damage, stain, corrosion, looseness, cracks, foreign matter adhesion, fusing, and rusting. Oil leakage, amount of oil, mounting condition, sound, vibration, operation / switching switch abnormality, sign / protection fence condition, separation distance from other objects, disconnection of equipment parts, etc., inundation hole of wind and rain, entry hole of small animals , Ventilation port / ventilation fan operation, lock and key breakage, switch / fuse loosening, oil leakage and oil storage from fuel system, engine start / stop, rotation, deposit, liquid level, hue, plate curvature, isolation Provided is the measurement value reporting device according to the eighth invention, which is information on any one or more of a plate, a terminal looseness / damage, an operating state of a charging device, and a liquid amount.

Next, as the thirteenth invention, the internal image information is discolored, damaged, soiled, corroded, loosened, cracked, foreign matter adhered, fused, rusted, oil leaked, oil amount, mounting state, vibration, operation / switching. Switch / switch abnormality, sign / protection fence condition, separation distance from other objects, detachment of equipment parts, wind / rain inundation hole, small animal entry hole, ventilation port / ventilation fan operation, lock and key breakage, switch / Loose fuse, oil leakage and oil storage from fuel system, engine start / stop, rotation, sediment, liquid level, hue, plate curvature, isolation plate, loose / damaged terminals, operating condition of charging device, liquid volume The measured value reporting apparatus according to the tenth invention, which is information regarding any one or more of the above.

Next, as the fourteenth invention, a measurement that holds a plurality of report templates prepared according to the types of measurement value-related information to be reported, which are report templates and may include advice information in some cases. Value system report template holding unit, measured value related information type acquisition unit that acquires the measured value related information type that is the type of generated measured value related information, and report template according to the acquired measured value related information type. It has a measurement value system report template acquisition unit to be acquired, and the measurement value related information report output unit outputs a measurement value related information report to be output using the acquired report template and the generated measurement value related information. Provided is the measurement value reporting apparatus according to the eighth invention, the ninth invention, or the twelfth invention, which has a model-based measurement value-related information report output means for output.

Next, as the fifteenth invention, there are a plurality of report templates prepared according to the types of internal image-related information to be reported, which are report templates, and inside which holds advice information in some cases. An image system report template holding unit, an internal image-related information type acquisition unit that acquires the internal image-related information type that is the type of generated internal image-related information, and a report template according to the acquired internal image-related information type. It has an internal image system report template acquisition unit to be acquired, and the internal image related information report output unit outputs an internal image related information report to be output using the acquired report template and the generated internal image related information. The internal image reporting apparatus according to the tenth invention or the thirteenth invention, which has an internal image-related information report output means using a template to be output.

Next, as the sixteenth invention, there is a cubicle-related information acquisition unit A for acquiring changes in laws and regulations related to cubicles and news cubicle-related information via a network, and the measured value-related information report output unit. In any one of the eighth invention, the ninth invention, the twelfth invention, and the fourteenth invention having the cubicle-related information adding means A including the cubicle-related information acquired in the measured value-related information report. The described measurement value reporting device is provided.

Next, as the seventeenth invention, there is a cubicle-related information acquisition unit B for acquiring changes in laws and regulations related to cubicles and news cubicle-related information via a network, and the internal image-related information report output unit. Provides the internal image reporting apparatus according to the tenth invention or the fourteenth invention, which has a cubicle-related information adding means B for including the cubicle-related information acquired in the internal image-related information report.

Next, as the eighteenth invention, the alarm output device according to any one of the first to seventeenth inventions is provided.

Next, as the nineteenth invention, the cubicle device according to any one of the first to seventeenth inventions is provided.

Next, as the twentieth invention, a sound collecting unit which is arranged inside and collects sound or / and ultrasonic waves (hereinafter, "sound or / and ultrasonic waves" are collectively referred to as "sound") as measured values. And a sound unit having a sound information output unit that outputs the sound information of the collected sound via a network, an odor detection unit that is arranged inside and detects an odor as a measured value, and an odor information of the detected odor. An odor information output unit that outputs the measured temperature via a network, an odor unit that has an odor unit, a temperature measurement unit that is arranged inside and measures the temperature as a measured value, and temperature information that outputs the temperature information of the measured temperature via the network. An output unit, a temperature unit having an internal image acquisition unit, an internal image acquisition unit that is arranged inside and acquires an internal image that is an internal image, and an internal image information output unit that outputs the internal image information of the acquired internal image via a network. Inside the vibration unit, which has an internal image unit, a vibration acquisition unit that is arranged inside and acquires vibration as a measured value, and a vibration information output unit that outputs the acquired vibration information via a network. A dust unit having a dust amount measuring unit that is arranged and measures the amount of dust in the air as a measured value, and a dust amount information output unit that outputs the measured dust amount information via a network, related to various electricity in the cubicle. At least two of an electric-related unit having an electric-related value measuring unit that measures the measured value as a measured value, an electric-related value information output unit that outputs the electric-related value information of the measured electric-related value via a network, and an electric-related unit having the electric-related value information output unit. Each via a network from a plurality of cubicle devices having the above units (including one or more of power receiving / transforming equipment including lead-in facilities / equipment, power storage equipment / power generation equipment / distribution equipment / load equipment; the same shall apply hereinafter). The cubicle information acquisition step for acquiring cubicle information, which is information, the history information retention step for retaining the acquired cubicle information as history information associated with the cubicle, and the cubicle information constituting the retained history information, which are derived from the cubicle information. An alarm condition holding step that holds an alarm condition, which is a condition for outputting an alarm based on a combination of different cubicle information, and a combination of cubicle information that constitutes the held history information and has different origins. Provided is an operation method of an alarm output device having an alarm output step for outputting an alarm when an alarm condition, which is a condition for outputting an alarm based on the above, is met, and an alarm output device having.

Next, as the twenty-first invention, the event information acquisition step for acquiring event information, which is information indicating an event actually occurring in the cubicle based on the output alarm, the acquired event information, and the event are Provided is an operation method of the alarm output device according to the twenty-second invention, further comprising a history information leading to the occurrence, an alarm condition update step for updating an alarm condition held based on the alarm condition, and an alarm condition update step.

Next, as the twenty-second invention, sound collection is arranged inside and collects sound or / and ultrasonic waves (hereinafter, "sound or / and ultrasonic waves" are collectively referred to as "sound") as measured values. A sound unit having a unit, a sound information output unit that outputs the sound information of the collected sound via a network, an odor detection unit that is arranged inside and detects an odor as a measured value, and an odor of the detected odor. An odor information output unit that outputs information via a network, an odor unit that has an odor unit, a temperature measurement unit that is arranged inside and measures temperature as a measured value, and a temperature that outputs temperature information such as measured temperature via a network. An internal image information output unit that has an information output unit, a temperature unit that has an internal image acquisition unit that is arranged inside and acquires an internal image that is an internal image, and an internal image information output that outputs the internal image information of the acquired internal image via a network. Internal image unit having a unit, a vibration unit having an internal image unit, a vibration acquisition unit arranged inside and acquiring vibration as a measured value, and a vibration information output unit for outputting the acquired vibration information via a network, inside the vibration unit. A dust unit having a dust amount measuring unit that measures the amount of dust in the air as a measured value and a dust amount information output unit that outputs the measured dust amount information via a network, for various electricity in the cubicle. At least an electric-related unit having an electric-related value measuring unit that measures a related value as a measured value, and an electric-related value information output unit that outputs the electric-related value information of the measured electric-related value via a network. Via a network from a plurality of cubicle devices having two or more units (including one or more of power receiving / transforming equipment including lead-in facilities / equipment, power storage equipment / power generation equipment / distribution equipment / load equipment; the same shall apply hereinafter). A cubicle information acquisition step for acquiring cubicle information, which is each information, a history information retention step for retaining the acquired cubicle information as history information associated with the cubicle, and cubicle information constituting the retained history information. A combination of an alarm condition holding step that holds an alarm condition, which is a condition for outputting an alarm based on a combination of cubicle information of different origins, and a cubicle information that constitutes the held history information and has different origins. The alarm output step, which outputs an alarm when the alarm condition is met, which is the condition for outputting an alarm based on, is read by the alarm output device, which is a computer. Provide a program that is recorded as available.

Next, as the twenty-third invention, the event information acquisition step for acquiring event information, which is information indicating an event actually occurring in the cubicle based on the output alarm, the acquired event information, and the event are Read and executeably record in an alarm output device, which is a computer according to the twenty-second invention, further comprising historical information leading up to the occurrence and an alarm condition update step for updating the event conditions held based on. Provide the program.

Further, a sound collecting unit that is arranged inside and collects sound or / and ultrasonic waves (hereinafter, "sound or / and ultrasonic waves" are collectively referred to as "sound") as measured values, and a sound of the collected sound. A sound information output unit that outputs information via a network, a sound unit that has an odor detection unit that is located inside and detects odor as a measured value, and an odor that outputs the odor information of the detected odor via the network. A temperature unit having an information output unit, an odor unit having an odor unit, a temperature measurement unit arranged inside and measuring a temperature as a measured value, and a temperature information output unit that outputs temperature information of the measured temperature via a network. An internal image unit having an internal image acquisition unit that is arranged inside and acquires an internal image that is an internal image, and an internal image information output unit that outputs the internal image information of the acquired internal image via a network. A vibration unit having a vibration acquisition unit that is arranged inside and acquires vibration as a measured value, and a vibration information output unit that outputs the acquired vibration information via a network, and is arranged inside and in the air as a measured value. A dust unit having a dust amount measuring unit that measures the amount of dust and a dust amount information output unit that outputs the measured dust amount information via a network, and measures various electric values in the cubicle as measured values. A cubicle automatic safety check having at least two units of an electric-related unit having an electric-related value measuring unit and an electric-related value information output unit that outputs the electric-related value information of the measured electric-related value via a network. Provide a unit set.

Further, the external image history for the report, which is the external image information acquired by the external image unit according to claim 5 among the history information for a predetermined period and is acquired for the report, is the external image history for the report. An information acquisition unit, an external image-related information generation unit that generates external image-related information based on external image information taken at predetermined intervals based on the acquired external image history information for reports, and an external image-related generation unit. Provided is a cubicle automatic security inspection system further comprising an external image reporting device having an external image-related information report output unit for outputting an external image-related information report which is an information report.

Further, the external image information includes the appearance of the cubicle, the state of the site where the cubicle stands, the state of the service line to the cubicle, the state of the electric wire derived from the cubicle, the appearance of the telephone pole that introduces a high-voltage current into the cubicle, and the telephone pole. The appearance of the air switch on the pole, the state of the insulator provided on the telephone pole, the appearance of the control device that controls the opening operation of the air switch on the pole, and the degree of ground fault of the high-voltage current drop line. Provided is an automatic cubicle security inspection system that provides information on any one or more of the appearance of a high-voltage lead-in cable ground fault degree measuring device to be detected.

In addition, an external image-based report template holder that holds multiple report templates that are report templates and are prepared according to the type of external image-related information to be reported, and in some cases contains advice information. External image-related information type acquisition unit that acquires the external image-related information type that is the type of generated external image-related information, and external image-based report template acquisition that acquires the report template according to the acquired external image-related information type. The external image-related information report output unit of the external image reporting device has a unit and a model that outputs an external image-related information report to be output using the acquired report template and the generated external image-related information. Use External image Related information Provide a cubicle automatic security inspection system with a report output means.

Further, the external image-related information report output unit of the external image reporting device has a cubicle-related information acquisition unit C for acquiring cubicle-related information such as changes in laws and regulations related to the cubicle and news via a network. Provided is a cubicle security inspection system having a cubicle-related information addition means C that includes the cubicle-related information acquired in the external image-related information report.

By providing this system, it will be possible to automate and inspect the contents of inspections performed by humans 24 hours a day.

A diagram conceptually showing the mechanism of conventional cubicle security inspection A diagram conceptually showing the mechanism of the cubicle automatic security inspection system in the embodiment. Conceptual diagram that briefly explains the case of using cubicles Conceptual diagram illustrating the internal structure of the cubicle A functional block diagram showing an example of the configuration of a cubicle device in the cubicle automatic security inspection system of the first embodiment. Functional block diagram showing an example of the configuration of the alarm output device in the cubicle automatic security inspection system of the first embodiment. An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection An example of items subject to security inspection The figure which shows an example of the hardware configuration in the cubicle apparatus of this cubicle automatic security inspection system of Embodiment 1. The figure which shows an example of the hardware configuration in the alarm output device of this cubicle automatic security inspection system of Embodiment 1. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the first embodiment. A functional block diagram showing an example of the configuration of the alarm output device of the cubicle automatic security inspection system of the second embodiment. The figure which shows an example of the hardware configuration of the alarm output device of this cubicle automatic security inspection system of Embodiment 2. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the second embodiment. Functional block diagram showing an example of the configuration of the alarm output device of the cubicle automatic security inspection system of the third embodiment. The figure which shows an example of the hardware configuration of the alarm output device of this cubicle automatic security inspection system of Embodiment 3. The figure which shows an example of the processing flow of this cubicle automatic security inspection system of Embodiment 3. Functional block diagram showing an example of the configuration of the cubicle device of the cubicle automatic security inspection system of the fourth embodiment. The figure which shows an example of the hardware composition of the cubicle apparatus of this cubicle automatic security inspection system of Embodiment 4. The figure which shows an example of the processing flow of this cubicle automatic security inspection system of Embodiment 4. A functional block diagram showing an example of the configuration of the alarm output device of the cubicle automatic security inspection system of the fifth embodiment. The figure which shows an example of the hardware composition of the cubicle apparatus of this cubicle automatic security inspection system of Embodiment 5. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the fifth embodiment. A functional block diagram showing an example of the configuration of the alarm output device of the cubicle automatic security inspection system of the sixth embodiment. The figure which shows an example of the hardware configuration of the alarm output device of this cubicle automatic security inspection system of Embodiment 6. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the sixth embodiment. A functional block diagram showing an example of the configuration of the alarm output device of the cubicle automatic security inspection system of the seventh embodiment. The figure which shows an example of the hardware configuration of the alarm output device of this cubicle automatic security inspection system of Embodiment 7. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the seventh embodiment. Functional block diagram showing an example of the configuration of the measured value reporting device of the cubicle automatic security inspection system of the eighth embodiment. The figure which shows an example of the hardware composition of the measurement value report apparatus of this cubicle automatic security inspection system of Embodiment 8. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the eighth embodiment. A functional block diagram showing an example of the configuration of the measured value reporting device of the cubicle automatic security inspection system of the ninth embodiment. A functional block diagram showing an example of the hardware configuration of the measured value reporting device of the cubicle automatic security inspection system of the ninth embodiment. A flow chart showing an example of the processing flow of the measured value reporting device of the cubicle automatic security inspection system of the ninth embodiment. A functional block diagram showing an example of the configuration of the internal image reporting device of the cubicle automatic security inspection system of the tenth embodiment. 10 is a diagram showing an example of the hardware configuration of the internal image reporting device of the cubicle automatic security inspection system of the tenth embodiment. A flow chart showing an example of the processing flow of the internal image reporting device of the cubicle automatic security inspection system of the tenth embodiment. A functional block diagram showing an example of the configuration of the alarm-related information reporting device of the cubicle automatic security inspection system of the eleventh embodiment. 11 is a diagram showing an example of the hardware configuration of the alarm-related information reporting device of the cubicle automatic security inspection system of the eleventh embodiment. A flow chart showing an example of the processing flow of the alarm-related information reporting device of the cubicle automatic security inspection system of the eleventh embodiment. A functional block diagram showing an example of the configuration of the measured value reporting device of the cubicle automatic security inspection system of the twelfth embodiment. The figure which shows an example of the hardware composition of the measurement value report apparatus of this cubicle automatic security inspection system of Embodiment 12. A flow chart showing an example of the processing flow of the measured value reporting device of the cubicle automatic security inspection system of the twelfth embodiment. A functional block diagram showing an example of the configuration of the internal image reporting device of the cubicle automatic security inspection system of the thirteenth embodiment. The figure which shows an example of the hardware configuration of the internal image report apparatus of this cubicle automatic security inspection system of Embodiment 13. A flow chart showing an example of the processing flow of the internal image reporting device of the cubicle automatic security inspection system of the thirteenth embodiment. A functional block diagram showing an example of the configuration of the measured value reporting device of the cubicle automatic security inspection system of the 14th embodiment. The figure which shows an example of the hardware composition of the measurement value report apparatus of this cubicle automatic security inspection system of Embodiment 14. A flow chart showing an example of the processing flow of the measured value reporting device of the cubicle automatic security inspection system of the 14th embodiment. A functional block diagram showing an example of the configuration of the internal image reporting device of the cubicle automatic security inspection system according to the fifteenth embodiment. The figure which shows an example of the hardware configuration of the internal image report apparatus of this cubicle automatic security inspection system of Embodiment 15. A flow chart showing an example of the processing flow of the internal image reporting device of the cubicle automatic security inspection system according to the fifteenth embodiment. A diagram showing an example of how to combine two types of cubicle information used by the cubicle automatic security inspection system to determine the output of various alarms, and an abnormal state that becomes clear by the combination. A diagram showing an example of how to combine two types of cubicle information used by the cubicle automatic security inspection system to determine the output of various alarms, and an abnormal state that becomes clear by the combination. A diagram showing an example of how to combine three types of cubicle information used by the cubicle automatic security inspection system to determine the output of various alarms, and an abnormal state that becomes clear by the combination. The figure which conceptually shows the update of the alarm condition of the cubicle automatic security inspection system in Embodiment 2. The figure which conceptually shows the update of the alarm advance notice output rule of the cubicle automatic security inspection system in Embodiment 3. Functional block diagram showing an example of the configuration of the cubicle device in the cubicle automatic security inspection system of the twenty-fourth embodiment. A functional block diagram showing an example of the configuration of a cubicle device in the cubicle automatic security inspection system of the 25th embodiment. The figure which shows an example of the hardware composition of this cubicle automatic security inspection system of Embodiment 24. A flow chart showing an example of the hardware configuration of the cubicle automatic security inspection system of the 25th embodiment. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system according to the twenty-fourth embodiment. A flow chart showing an example of the processing flow of the cubicle automatic security inspection system of the 25th embodiment. Diagram showing where two types of ground fault currents are detected Explanation of calculation of the degree of progress of fine ground fault 1 Explanation of calculation of the degree of progress of fine ground fault 1 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 1 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 2 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 3 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 4 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 5 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 6 Effect of combination of information including ground fault degree information or anomaly detection induced value degree information 7 Diagram of explanation of three-phase alternating current

0101, 0102 Cubicle 0201 High-voltage power line 0202 Cubicle 0300 Cubicle 0301 Voltmeter 0302 Ammeter 0303 Wiring breaker 0304 Transformer 0305 High-voltage load switch

Hereinafter, embodiments of the present invention will be described with reference to the drawings. The following description describes the first and tenth embodiments in claim 1, the second embodiment in claim 2, the third embodiment in claim 3, the fourth embodiment in claim 4, and the fifth embodiment in claim. 5. The sixth embodiment is in claim 6, the seventh embodiment is in claim 7, the embodiment 8 is in claim 8, the embodiment 9 is in claim 9, and the embodiment 10 is in claim 10. 1 1 is the 10th aspect , the 12th embodiment is the 11th aspect, the 13th embodiment is the 12th aspect, the 14th embodiment is the 13th aspect, and the 15th embodiment is the 14th aspect. 16 is claim 15, the embodiment 17 is claim 16, the embodiment 18 is claim 17, the embodiment 19 is claim 18, and the embodiment 24 is claim 19 and claim 20 . 2 . _ _ _ _ _ _ _ Corresponds to claim 25 , and embodiment 30 corresponds to claim 26 , respectively. The content of the present invention is not limited to the following examples, and various modifications can be made without departing from the gist of the present invention.

<Premise of the Invention: Hardware and Software>
Further, the present invention is an invention that basically uses a cookware and a computer (terminal in cookware, server on public network, server existing on a dedicated line, router (dynamic), repeater, etc.), but is software. It is realized by (program), it is also realized by hardware, and it is also realized by the cooperation of software and hardware. The hardware that realizes all or part of each configuration requirement of the present invention is composed of a CPU, a memory, a bus, an input / output device, various peripheral devices, a user interface, and the like, which are the basic configurations of a computer. Various peripheral devices include storage devices, interfaces such as the Internet, devices such as the Internet, displays (liquid crystal displays, organic EL displays, etc.), touch panels, displays with touch panels, keyboards, mice, speakers, cameras (for photographs and scanners), cameras. Photo scanner, video, TV, CD device, DVD device, Blu-ray device, USB memory, USB memory interface, removable hard disk, general hard disk, projector device, SSD, telephone, fax, copy machine, copy function Configuration, printing device, movie editing device, various sensor devices, grid paper for information input, manuscript paper for information input, pen input device (when the display is traced with a pen, the trajectory is acquired by the computer as information. ) Etc. are included. Further, the apparatus of the present invention does not necessarily have to be configured by one housing, and may be configured by combining a plurality of housings by communication. Further, the communication may be a LAN or a WAN, and a part of the communication may be installed across national borders.

Furthermore, as hardware that constitutes cubicles, etc., transformers for power supply and demand instruments, breakers, high-voltage breakers, transformers, transformers for instruments, transformers for instruments, transformers, high-voltage load switches, high pressure Cutouts, transformers, reactors, capacitors, wiring breakers, current meters, voltmeters, oil meters such as transformers, Fourier converters (computers), lightning arresters, lightning protection needles, phase advance capacitors, series reactors, cameras ( Those that acquire still images, those that acquire moving images, those that acquire both, infrared cameras, thermography cameras), microphones (sound collectors, those with a wide sound collecting band, for example, super It may be any of those that can collect sound up to the sonic region, those that can collect minute sounds, for example, those that can collect the sound of peeling rust), temperature sensor (infrared sensor, infrared camera, thermoelectric). Modules, other various detectors that sense temperature, including parts), odor meters (sometimes gas detectors), vibration meters (also instruments that give ultrasonic vibration and detect vibration by themselves) Includes), tendon, dust sensor, grounding device, prime mover, starting device, generator, exciter, telephone, infrared camera, rectifier, neutral point resistor, optical sensor, current measurement clamp meter, Fourier converter, Examples include network interfaces, communication equipment, smartphones, PCs, tablet terminals, and the like. These are used in combination as appropriate in order to exert the technical effects of the present specification.

The computer, storage (storage device), and other devices constituting the present invention do not have to be completed in one housing, and may be distributed or remotely arranged on the cloud. It doesn't matter.

Further, each of the plurality of housings may be operated by a different entity, or may be operated by one entity. It does not matter whether the operating entity of the system of the present invention is singular or plural. In addition to the system of the present invention, the invention can also be configured as a system including terminals used by other emerging companies described later. In addition, these terminals may be installed across national borders. Further, in addition to this system and the terminal, a device used for registration of another company, a device used for a database for recording the contents of registration, and the like may be prepared. These may be provided inside the device of the present invention, or the device may be configured so that these information can be used outside the device of the present invention.

In addition, the form when downloading a program from a program server to a smartphone etc. is as a program download in any case such as compressed, uncompressed, encrypted, unencrypted, etc. Be treated. In this case, downloading the program corresponds to the implementation of the invention of the program claim of the present application. Further, since the server for downloading the download has a recording medium on which the program is recorded, the recording medium of the server corresponds to the implementation of the invention of the recording medium claim of the present invention. Needless to say, whether or not the server to be downloaded to a smartphone or the like is configured by combining partial downloads from a plurality of servers for one program corresponds to the implementation of the program invention of the present application.

<Embodiment 1: Mainly corresponding to claim 1>
<Outline of Embodiment 1>
In the present embodiment, the “cubicle” refers to a power receiving facility composed of any one or more of a power receiving / transforming facility including a lead-in facility / facility, a power storage facility, a power generation facility, a distribution facility, and a load facility, and FIG. It includes one or more facilities and facilities shown in FIGS. 6-2, 6-3, 6-4, 6-5, 6-7, 6-8, and 6-9. This is common herein. Cubicles include equipment, and each equipment further contains equipment. The name of the device is the one described in the second column from the left in the above figure. For example, in FIG. 6-1, "classified switch", "drop line and support", etc. correspond. As for "equipment" in the present specification, such a thing is the same throughout the specification.

FIG. 1-1 is a diagram conceptually showing the mechanism of the conventional cubicle security inspection, and FIG. 1-2 is a diagram conceptually showing the mechanism of the cubicle automatic security inspection system of the present embodiment.
In the conventional safety inspection method shown in Fig. 1-1, the five senses (other than taste) of the cubicle (0101) are used for stains, damage, accumulation of dust and dirt, vibration, abnormal noise, and generation of minute gas. Regular human inspection was to detect signs of cubicle abnormalities. For example, the inspection was conducted once a month (generally, the interval is once every 1 to 3 months for about 5 hours at the site with an average capacity of 350 kVA to 550 kVA). However, in many cases, no sign is found in the periodic inspection, and in reality, most of the equipment abnormalities occur when the inspector is not at the site. If an abnormality occurs in the cubicle, it is necessary for the electrician in charge to take an emergency response, and if an accident occurs until a power outage occurs due to a failure of high-voltage equipment, an electrician will be arranged and repaired. It was necessary to give instructions for recovery. For example, in the case of a power outage failure, the production activity of the business site is stopped, so an emergency response is required, and the electric safety engineer, the construction shop, the manufacturer, and other related parties are requested to take an emergency response. In this case, the emergency response charge, late-night charge, etc. are added to the normal charge, and both the business operator and the responder are confused. It's big.
In the automatic inspection system (sensors of the five senses excluding human taste) shown in FIG. 1-2, the sound unit, the odor unit, the temperature unit, the internal image unit, the vibration unit, and the dust unit in the cubicle (0102) are used. A safety check is automatically performed for 24 hours by any two or more of each unit such as an electric-related unit, a current-voltage unit, and an external image unit. These units replace the human senses (other than taste), and by combining information from two or more units, it is possible to precisely detect the precursors of an accident. Therefore, as shown in the figure, it is possible to prevent accidents from occurring by performing maintenance in advance, and it is possible to constantly monitor instead of regular inspections, so people inspect the cubicles on a regular basis. The interval can be made longer than before, and the need for human inspection can be reduced. In addition, since the cause of the cubicle failure can be identified by the combination of units, it is possible to systematically and rationally proceed with proactive measures and maintenance before the failure occurs, which is a great social merit.

<Structure of Embodiment 1 Invention>
<Construction of the first embodiment: cubicle device>
FIG. 4 is a functional block diagram showing an example of the configuration of the cubicle automatic security inspection system according to the present embodiment. As shown in the figure, the cubicle device (0400) in the present embodiment includes a sound unit including a sound collecting unit (0401) and a sound information output unit (0402), an odor detecting unit (0403), and an odor information output unit (0403). It consists of an odor unit consisting of 0404), a temperature unit consisting of a temperature measuring unit (0405) and a temperature information output unit (0406), an internal image information acquisition unit (0407), and an internal image information output unit (0408). An internal image unit, a vibration unit consisting of a vibration acquisition unit (0409) and a vibration information output unit (0410), a dust unit consisting of a dust amount measurement unit (0411) and a dust amount information output unit (0412), and electricity-related values. It is configured to have at least two or more of the electric-related units including the measurement unit (0413) and the electric-related value information output unit (0414). The present invention also covers such combinations of units. That is, a sound collecting unit that is arranged inside and collects sound or / and ultrasonic waves (hereinafter, "sound or / and ultrasonic waves" are collectively referred to as "sound") as measured values, and a sound of the collected sound. A sound information output unit that outputs information via a network, a sound unit that has an odor detection unit that is located inside and detects odor as a measured value, and an odor that outputs the odor information of the detected odor via the network. An odor unit having an information output unit, a temperature measuring unit arranged inside to measure the temperature as a measured value, and a temperature information output unit having a temperature information output unit for outputting the temperature information of the measured temperature via a network. An internal image unit having an internal image acquisition unit that is arranged inside and acquires an internal image that is an internal image, and an internal image information output unit that outputs the internal image information of the acquired internal image via a network. A vibration unit having a vibration acquisition unit that is arranged inside and acquires vibration as a measured value, and a vibration information output unit that outputs the acquired vibration information via a network, and is arranged inside and in the air as a measured value. A dust unit having a dust amount measuring unit that measures the amount of dust and a dust amount information output unit that outputs the measured dust amount information via a network, and measures various electric values in the cubicle as measured values. A cubicle automatic safety check having at least two units of an electric-related unit having an electric-related value measuring unit and an electric-related value information output unit that outputs the electric-related value information of the measured electric-related value via a network. It provides a system.

<Structure of the First Invention: Alarm Output Device>
FIG. 5 is a functional block diagram showing an example of the configuration of the alarm output device according to the present embodiment. As shown in the figure, the alarm output device (0500) of the present embodiment is composed of a cubicle information acquisition unit (0501), a history information holding unit (0502), an alarm condition holding unit (0503), and an alarm output unit (0504). Become.

<Explanation of Embodiment 1 Configuration>
<Embodiment 1 cubicle device>
The cubicle device is a device for receiving high-voltage electricity, further distributing the electricity, and distributing the electricity. As shown in FIG. 2, when drawing electricity of a general voltage into the site, a pole transformer connected to a high-voltage power line (0201) distributes electricity and distributes electricity as a low voltage in each site. conduct. When high-voltage electricity is drawn into the site, it is drawn directly from the high-voltage power line to the cubicle (0202), and the cubicle transforms the electricity according to the purpose and distributes it to the target facility.

FIG. 3 is a diagram showing a schematic view of the cubicle (0300). In the cubicle shown in FIG. 3, a voltmeter (0301), an ammeter (0302), a circuit breaker for wiring (0303), a transformer (0304), a high-voltage load switch (0305), and the like are arranged inside. The cubicle device of the present embodiment is a cubicle in which two or more detection units, which will be described later, are arranged in order to detect whether or not there is an abnormality in the cubicle.

<Embodiment 1 Sound unit: Sound collecting unit>
The "sound collector" is located inside and collects sound. As used herein, "sound" includes not only sound in the audible region, but of course ultrasonic waves. The sound collecting microphone is arranged inside the cubicle (0300) shown in FIG. The sound collecting microphone is the item subject to safety inspection shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used for inspections of items that require abnormal noise inspections, acoustic inspections, etc.

Specifically, for the lead-in equipment shown in Fig. 6-1 and the section switch, and for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-2, a breaker, a breaker, a high-pressure load switch, a bus, and a diagram. Regarding the power receiving equipment (including sub-substation equipment) shown in 6-3, transformers, phase-advancing capacitors, series reactors, and the distribution equipment shown in Fig. 6-6, distribution lines, wiring breakers, leakage breakers, and knives. For switches, regular / emergency power generation equipment, generators, exciters, grounding devices, and for load equipment shown in Fig. 6-8, the sound of equipment such as grounding equipment, low-voltage equipment, etc. is collected by the sound collector. This is the desired sound.

A plurality of sound collecting microphones may be configured to be in contact with or close to each equipment shown in the above specific example, or may be arranged at regular intervals or at the four corners of a cabinet in a room to specify a target. It may be arranged so as to collect sound over a wide area without using it. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. The accuracy of sound collection is higher when the motor noise and slight vibration of parts due to the disconnection of the fixture are placed inside the equipment.

The sound collection by the sound collector is performed continuously for 24 hours. For example, if no abnormal sound is generated, it is possible to record the sound collection information and simply perform a real-time check without saving the data, and start recording when an abnormal sound is detected. Conceivable. Further, when a plurality of microphones and sound detectors are provided, the sounds may be collected so that the sound from which microphone or sound detector can be identified. This can be configured to add microphone identification information to the collected sound and output it to the sound information output unit. Further, it is preferable that the microphone identification information is associated with the installation position in the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition. The alarm output device can be configured to output an alarm by combining information with other detection units when an abnormal sound occurs, but the equipment can be used not only for the abnormal sound but also within the normal range. The frequency may gradually shift from the time of new product due to aging of the equipment, and the alarm output device holds the threshold value of the predetermined frequency as one of the alarm output conditions, and when the frequency crosses the threshold value, the others. It can be configured to output an alarm by combining it with the information from the detection unit of. Frequency fluctuations are caused by deterioration of insulation, loosening of fixings, accumulation of dust, wear, and the like.

<Embodiment 1 Sound unit: Sound information output unit>
The "sound information output unit" outputs the sound information of the collected sound via the network. When outputting the sound information, in order to specify the sound information, it is output in association with the information indicating the date and time when the sound information was generated and the information for identifying the recorded cubicle. It is possible to remove unnecessary frequency bands from the collected sound information through a bandpass filter and generate sound information only in the necessary frequency bands. By using a plurality of bandpass filters to generate sound information only in various frequency bands, it is possible to process information so that even minute abnormal sounds stand out. With this configuration, it is possible to save the history by pairing a specific abnormality mode with an abnormal sound of a specific frequency. Therefore, since it is possible to acquire the relationship between the specific mode of abnormality and the abnormal sound, it is possible to predict what mode of abnormality should be confirmed in which frequency band and how much abnormal sound is confirmed. It will be easier and it will be possible to improve the abnormality detection system. Further, the sound information may be configured to output the result of Fourier expansion of the voice. By Fourier expansion, it becomes possible to identify a plurality of sound sources picked up from one microphone, and it becomes easy to identify which device or component in the cubicle has an abnormality. This expansion may be configured to be performed on the alarm output device side.

The output information refers to cubicle information (“cubicle information” refers to a single piece of information or a set of a plurality of pieces of information output from the information output unit of each unit of the cubicle. The same shall apply in the present specification). It is output to the alarm output device as one of the constituent information. The output of sound information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but abnormalities such as every 1 second, every 3 seconds, and every 5 seconds. It is also permissible to configure the sound information to be output to some extent at intervals that are acceptable as delays in detection. Further, a mechanism capable of amplifying the sound may be provided at a portion where the sound as a precursor is scheduled to be generated. For example, if the sound is generated by a slight vibration, it is conceivable to vibrate the string by the slight vibration and amplify the sound by the vibration of the string.

<Embodiment 1 Odor Unit: Odor Detection Unit>
The "odor detection unit" is arranged inside and detects odors. The odor detecting unit is arranged inside the cubicle (0300) shown in FIG. The odor detection unit is the safety inspection target items shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used for inspection of items that require inspection of offensive odors.

Specifically, regarding the lead-in equipment shown in Fig. 6-1 and the section switch, and the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-2, a circuit breaker, a circuit breaker, a high-pressure load switch, a bus, and a diagram. Regarding the power receiving equipment (including sub-transformer equipment) shown in 6-3, transformers, phase-advancing capacitors, series reactors, distribution lines shown in Fig. 6-6, circuit breakers for wiring, circuit breakers, knife switches, and figures. With respect to the load equipment shown in 6-8, the odor generated from the equipment such as a grounding device, a low pressure device, etc. is the odor of the purpose of being detected by the odor detecting unit.

A plurality of odor detection sensors may be configured to be in contact with or close to each facility shown in the above specific example, or may be arranged at regular intervals or at the four corners of a cabinet in a room to specify a target. It may be arranged so as to detect the odor over a wide area without using it. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. In the case of combustion due to overcurrent of the circuit inside the equipment, it takes a certain amount of time and scale to leak out of the equipment. Since expansion is required, the accuracy of odor detection will be higher if it is placed inside the equipment. Further, in order to strengthen the odor, a material that generates the odor by the heat that causes the odor may be placed and applied to the portion where the odor is expected to be generated as a precursor. For example, organic matter that evaporates with heat. Further, it is also possible to arrange a plurality of types of organic substances that evaporate by heat according to their volatilization temperature and to know the state of the odor generation source by the type of the organic gas that is volatilized. When there are a plurality of odor detection units, the odor measurement value is preferably generated so as to be associated with the odor detection unit identification information for identifying the odor detection unit and transmitted to the odor information output unit. .. Further, it is preferable that the odor detection unit identification information is associated with the installation position in the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition.

The odor detection unit detects the odor continuously for 24 hours. For example, if no offensive odor is generated, the odor information may be simply checked in real time without saving the data, and the saving may be started when the offensive odor is detected.

<Embodiment 1 Odor Unit: Odor Information Output Unit>
The "odor information output unit" outputs the odor information of the detected odor via the network. When the odor information is output, in order to specify the odor information, it is output in association with the information indicating the date and time when the odor information was generated and the information for identifying the cubicle in which the odor was detected. For example, it is conceivable to burn the substance used in the cubicle, collect the odor data in advance, and record the distribution of the odor data in advance. Then, it is possible to determine whether or not abnormal odor is generated by comparing whether or not the characteristic points of the distribution of the odor data match. Furthermore, when an object that has invaded from the outside burns, the distribution of odor data that is not included in the odor data recorded in advance can be confirmed, so the odor data that does not match the normal odor data or the odor data in the cubicle. If is confirmed, it is presumed that the object invaded from the outside and the object burned.

The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of odor information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but abnormalities such as every 1 second, every 3 seconds, and every 5 seconds. It is also permissible to configure the odor information to be output to some extent at an acceptable interval as a delay in detection.

<Embodiment 1 Temperature Unit: Temperature Measuring Unit>
The "temperature measuring unit" is arranged inside and measures the temperature. The detection unit is arranged inside the cubicle (0300) shown in FIG. The temperature measurement unit is the safety inspection target items shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used for overheating inspection and inspection of items that require temperature measurement.

Specifically, for the lead-in equipment shown in Fig. 6-1 and the section switch, and for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-2, a breaker, a power fuse, a circuit breaker, and a high-pressure load switch. , Bus, for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-3, instrument transformer, transformer, phase-advancing capacitor, series reactor, receiving / receiving / distribution panel shown in Fig. 6-4. Distribution panel, control circuit, distribution equipment shown in Fig. 6-6, distribution line, circuit breaker for wiring, circuit breaker, knife switch, generator shown in Fig. 6-7, exciter, grounding device, Fig. 6-8. With respect to the storage battery equipment shown, the temperature generated from the equipment such as the storage battery main body and the accessory device is the target temperature measured by the temperature measuring unit.

The temperature measuring unit may be configured to have a plurality of temperature sensors arranged in contact with or close to each equipment shown in the above specific example, or arranged at regular intervals or at four corners of a cabinet in a room. It may be arranged so as to measure the temperature over a wide area without specifying the target. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. When the temperature of the circuit inside the equipment rises due to overcurrent, it is necessary to expand the scale of the abnormality to a certain extent in order to be able to confirm the abnormality even outside the equipment, so it is better to place it inside the equipment. Increases the accuracy of temperature measurement. The temperature measurement may be a method of measuring a specific temperature inside the cubicle, but it may be configured to acquire only the rising / falling value of a specific part. In addition, the acceleration of the change in ascent / descent may be measured at the same time so that it can be determined whether the change is abrupt or a change over time. For example, in general, the outside air gradually rises from about 6:00 to 15:00 in the morning, and the temperature gradually decreases from about 18:00, so even if there is no abnormality, the inside of the cubicle responds to changes in the temperature of the outside air. The temperature of various equipment also changes. Therefore, by observing the acceleration of the temperature change together, it is possible to judge whether the rise is an abnormal rise or a rise in a normal range. When a plurality of temperature sensors are arranged, it is preferable to generate the measured value acquired by the temperature sensor in association with the temperature sensor identification information that identifies the temperature sensor and pass it to the temperature information output unit. Further, it is preferable that this temperature sensor identification information is associated with the installation position in the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition.

The temperature is continuously measured by the temperature measuring unit for 24 hours. For example, if overheating does not occur, the temperature information may not be stored as data but simply checked in real time, and storage may be started when overheating is detected.

<Embodiment 1 Temperature unit: Temperature information output unit>
The "temperature information output unit" outputs the temperature information of the measured temperature via the network. When the temperature information is output, in order to specify the temperature information, it is output in association with the information indicating the date and time when the temperature information was generated and the information for identifying the cubicle that detected the temperature. The output information is output to the alarm output device as one of the information constituting the cubicle information. The temperature information output is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but abnormalities such as every 1 second, every 3 seconds, and every 5 seconds. It is also permissible to configure the temperature information to be output to some extent at an acceptable interval as a delay in detection.

<Embodiment 1 Internal image unit: Internal image acquisition unit>
The "internal image acquisition unit" is arranged inside and acquires an image. The detection unit is arranged inside the cubicle (0300) shown in FIG. The internal image acquisition unit is the safety inspection target items shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. It is possible to target most of them, but especially for inspection of items that can be visually confirmed such as deformation, cracks, damage, corrosion, rust, stain, oil amount, liquid amount, discoloration, smoke generation, ignition, etc. Used.

Specifically, for the lead-in equipment shown in Fig. 6-1 and the section switch, and for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-2, a breaker, a power fuse, a circuit breaker, and a high-pressure load switch. , Bus, for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-3, instrument transformer, transformer, phase-advancing capacitor, series reactor, receiving / receiving / distribution panel shown in Fig. 6-4. Distribution boards, control circuits, ground wires shown in Fig. 6-5, protective pipes, etc., power receiving room buildings, cubicle type receivers, metal outer boxes for substation equipment, and power distribution equipment shown in Fig. 6-6, for distribution lines and circuit breakers. The transformer, circuit breaker, knife switch, distribution board, and regular / emergency power generation equipment shown in Fig. 6-7 are shown in the prime mover, starting device, accessory device, generator, exciter, grounding device, and Fig. 6-8. Regarding the storage battery equipment, it is a finding of purpose that the internal image that can be acquired from the equipment such as the storage battery main body and the accessory device is acquired by the internal image acquisition unit.

The internal image acquisition unit uses a device having an imaging function, such as a camera, a video camera, an infrared camera, a thermo camera, an endoscope (for example, for observing the inside of a pipe, observing the inside of a device, observing a gap), a high-speed camera, and the like. These may be configured to be in contact with or close to each of the facilities shown in the above specific example, or may be arranged at regular intervals or at the four corners of a cabinet in a room without specifying a target. It may be arranged so as to acquire an internal image over a wide area. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. If the abnormality inside the equipment can be directly acquired as image information, the abnormality inside the equipment can be detected earlier. When a plurality of cameras or the like are installed, images and images from the cameras are acquired in association with the camera identification information that identifies the cameras. The camera identification information is preferably associated with the location within the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition.

The acquisition of the internal image by the internal image acquisition unit is performed continuously for 24 hours. For example, if there are no findings such as cracks or deformation, the internal image information is not saved as data, but is simply checked in real time, and saving is started when findings such as cracks or deformation are detected. It may be configured as. Further, the internal image may be configured to be acquired by a thermo camera, and in this case, the invasion of an animal or the like can be detected.

<Embodiment 1 Internal image unit: Internal image information output unit>
The "internal image information output unit" outputs the acquired internal image information via the network. When the internal image information is output, in order to specify the internal image information, it is output in association with the information indicating the date and time when the internal image information was acquired and the information for identifying the cubicle in which the internal image was taken. The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of the internal image information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but every 1 second, 3 seconds, 5 seconds, etc. It is also permissible to configure the internal image information to be output to some extent at intervals that are acceptable as delays in detecting anomalies. The internal image information may be configured to retain the internal image information at the normal time and output it to the alarm output device via the network only when a difference from the image occurs.

<Embodiment 1 Vibration unit: Vibration acquisition unit>
The "vibration acquisition unit" is arranged inside to acquire vibration. The vibration sensor that detects the vibration is arranged inside the cubicle (0300) shown in FIG. The vibration acquisition unit is the safety inspection target item shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used to check the items of shaking. Types of vibration sensors include mechanical vibrometers, electromagnetic vibrometers, piezoelectric vibrometers, optical vibrometers, electromagnetic vibrometers and the like. When a plurality of vibration sensors are installed, the vibration information from the vibration sensor is acquired in association with the vibration sensor identification information that identifies the vibration sensor. The vibration sensor identification information is preferably associated with the installation position within the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition.

Specifically, for the power receiving equipment (including sub-transformer equipment) shown in Fig. 6-3, the phase-advancing capacitor, series reactor, and for the regular / emergency power generation equipment shown in Fig. 6-7, the generator, exciter, etc. This is a finding of purpose that the vibration that can be acquired from equipment such as a grounding device is acquired by the vibration acquisition unit.

A plurality of vibration acquisition units are configured to be arranged at positions in contact with or close to each equipment shown in the above specific example. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. The accuracy of vibration acquisition is higher when the motor noise and slight vibration of parts due to the disconnection of the fixture are placed inside the equipment.

Vibration acquisition by the vibration acquisition unit is performed continuously for 24 hours. For example, if there are no findings such as vibration, it is possible to simply perform a real-time check without saving the vibration information, and start saving when the vibration findings are detected. Will be.

<Embodiment 1 Vibration unit: Vibration information output unit>
The "vibration information output unit" outputs the acquired vibration information via the network. When the vibration information is output, in order to specify the vibration information, it is output in association with the information indicating the date and time when the vibration information was acquired and the information for identifying the cubicle from which the vibration information was acquired. The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of vibration information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but abnormalities such as every 1 second, every 3 seconds, and every 5 seconds. It is also permissible to configure the vibration information to be output to some extent at intervals that are acceptable as a delay in detection.

If the vibration sensor detects vibration above the specified range that is sufficiently larger than the alarm output standard, there is a possibility that a major disaster such as an earthquake, land subsidence, building collapse, or landslide has occurred, so alarm output. It may be configured to immediately cut off the reception of high-voltage current without instructions from the device. This is because if a cable through which high-voltage current flows is damaged by a disaster, a fire may occur from the cable, which may lead to a secondary disaster. In order to distinguish between the vibration generated by the equipment inside the cubicle and the vibration generated depending on the environment in which the cubicle is placed, a vibration sensor is also placed outside the cubicle and the difference is unique to the cubicle. It is also possible to adopt a differential vibration meter that is considered to be the vibration of.

<Embodiment 1 Dust Unit: Dust Amount Measuring Unit>
The "dust amount measuring unit" is arranged inside and measures the amount of dust in the air. The dust amount measuring unit is arranged inside the cubicle (0300) shown in FIG. The dust amount measuring unit is aimed at the inspection points shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used to inspect items that are affected by dust. The dust sensor is mainly used for checking for stains, distance distance, open / closed state of opened / closed objects, inundation holes for wind and rain, and operating status of ventilation equipment.

There is a possibility that the contact state between the receiver and the blade of the circuit breaker of the power receiving equipment shown in Fig. 6-2 may be impaired, and there is also the possibility of contamination in the case of the circuit breaker. There is a possibility that the circuit breaker may be soiled or the transformer may be soiled, the lightning arrester may be soiled, the phase advance capacitor and the series reactor may be soiled, and in the receiving / distribution board shown in Fig. 6-4, the receiving / distribution board control circuit may be operated. There is a possibility that there is an abnormality in the switching switch, etc., and there is a possibility that the separation distance from other objects is impaired in the electric wire and the support. There is a possibility that the power receiving room building, the metal outer box of the cubicle type receiving / transforming equipment, etc. may be flooded with wind and rain, the entry hole for small animals, the ventilation port, the operation of the ventilation fan, the lock and the key may be damaged. In the distribution equipment shown in Fig. 6-6, there is a possibility that the distribution board, circuit breaker for wiring, circuit breaker, and knife switch may be contaminated, and the distribution board may be contaminated. There may be an abnormality in the start / stop of the prime mover, starter, and accessory of the regular / emergency power generation equipment, and there may be something wrong with the rotation and vibration of the generator, exciter, and grounding device, and the circuit breaker. , Circuit breaker, switchboard, control device, investigation switching switch, etc. may be abnormal. There is a possibility of peeling. It is possible to check these by the dust amount measuring unit.

The dust amount measuring unit measures the dust amount by the dust sensor. In addition to arranging the dust sensor in the vicinity of a specific facility, the dust sensor may be arranged at regular intervals so that the entire inside of the cubicle can be observed. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. Dust that flies due to motor noise or slight vibration of parts due to disengagement of fixtures will be detected more accurately if it is placed inside the equipment. Dust is also detected and already detected when dust, dust, sand, paint peeling of the equipment inside the cubicle, rust, and other fine powder such as sugi pollen have flowed into the cubicle from the outside. It is also detected when the accumulated material in the cubicle soars up again.
When a plurality of dust sensors are installed, the dust amount information from the dust sensor is acquired in association with the dust sensor identification information that identifies the dust sensor. The dust sensor identification information is preferably associated with the installation position within the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition. In addition, in order to distinguish between the dust generated by the equipment inside the cubicle and the dust generated depending on the environment in which the cubicle is placed, a dust sensor is also placed outside the cubicle and the difference is unique to the cubicle. It is also possible to adopt a differential dust meter that is considered to be dust of.

The dust amount information is continuously acquired by the dust amount measuring unit for 24 hours. For example, if there is no finding of dust generation, the dust amount information is not saved as data, but simply checked in real time, and saving is started when the finding of dust intrusion, generation, or soaring is detected. It may be configured as.

<Embodiment 1 Dust unit: Dust amount information output unit>
The "dust amount information output unit" outputs the dust dust information of the acquired dust via the network. When the dust amount information is output, in order to specify the dust amount information, it is output in association with the information indicating the date and time when the dust amount information was generated and the information for identifying the cubicle in which the dust was detected. The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of the dust amount information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but the output is preferably performed every 1 second, 3 seconds, 5 seconds, etc. It is also permissible to configure it to output a certain amount of dust amount information at intervals that are acceptable as delays in anomaly detection.

<Embodiment 1 Electricity-related unit: Electricity-related value measurement unit>
The "electricity-related value measuring unit" acquires various electricity-related values in the cubicle. The electricity-related value measuring unit is arranged inside the cubicle (0300) shown in FIG. The electrical-related value measurement unit is subject to safety inspection as shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. It is possible to cover almost all of the items, but in particular, it is used for checking items related to current, voltage, cables, transformers, etc. in the cubicle such as ground faults, short circuits, electric leakage, and overcurrent.

Specifically, the electricity-related value measuring unit is a current meter, a measured value of a voltmeter, and a potential difference, a current difference, a leakage current value, a phase difference, a voltage value, a current value, which are acquired by calculation based on the measured values. Various numerical values such as frequency, insulation resistance value, resistance value, power value, and their time history, time fluctuation, etc. are acquired as electrical-related values. This information is provided inside and outside the cubicle and is obtained from all the equipment, appliances, electric wires, and wiring that make up the cubicle. If it does not interfere with the operation of the equipment, it may be placed inside the equipment. Changes in current and voltage values in the equipment can be detected earlier.
When a plurality of electric-related value measuring units are installed, the electric-related value information from the electric-related value measuring unit is acquired in association with the electric-related value measuring unit identification information that identifies the electric-related value measuring unit. It is preferable that the electrical-related value measuring unit identification information is associated with the installation position in the cubicle. The association with the installation position is held in the alarm output device and can be used as cubicle information applied to the alarm condition.
Specific types of electricity-related value measuring units include voltmeters, ammeters, multi-measurement instruments, CT measuring instruments, frequency measuring devices, spectrum analyzers, oscilloscopes, resistance measuring instruments, electromagnetic wave measuring instruments, electric field measuring instruments, and storage capacity. Measuring instruments, etc.

The acquisition of electricity-related values by the electricity-related value measurement unit is performed continuously for 24 hours. For example, if there are no findings such as a voltage drop or current value rise, the electrical-related values are not saved as data but simply checked in real time, and findings such as a voltage drop or current value rise are detected. And may be configured to start saving.

<Embodiment 1 Electricity-related unit: Electricity-related value information output unit>
The "electricity-related value information output unit" outputs the acquired electricity-related electricity-related value information via the network. When outputting electricity-related value information, in order to specify the electricity-related value information, information indicating the time (year, month, day, hour, minute, second) when the electricity-related value information was acquired, and the cubicle where the electricity-related value was acquired are identified. Output in association with the information to be used. The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of electricity-related value information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, such as every 1 second, every 3 seconds, and every 5 seconds. It is also permissible to configure it to output a certain amount of electrical-related value information at intervals that are acceptable as delays in detecting anomalies.

<Other possible detection units>
Other detection units include humidity detection unit, floating fine particle counter, radiation detection unit, ultraviolet detection unit, ground / floor / underfloor potential measurement unit, barometric pressure measurement unit, operation monitoring unit of each unit, electromagnetic wave measurement unit, illuminance measurement unit, etc. Piezoelectric actuator unit (By giving vibration to the equipment and detecting the reflected vibration, it is possible to detect loosening, rattling, rusting, etc. of the equipment. The reflected vibration can also be acquired by the piezoelectric actuator, and the microphone. Etc. may be acquired.), Etc. may be provided. Each of these units has a detection unit and an information output unit, respectively, and is associated with information for identifying the cubicle and output to an alarm output device described later.

<Explanation of Embodiment 1: Alarm output device>
<Explanation of Configuration 1 Cubicle Information Acquisition Unit>
The "cubicle information acquisition unit" acquires each information from the cubicle device via the network. The cubicle information is configured to include any two or more of the above-mentioned sound information, odor information, temperature information, internal image information, vibration information, dust amount information, and electricity-related value information.

<Explanation of Configuration of Embodiment 1 History Information Holding Unit>
The "history information holding unit" holds the acquired cubicle information as history information associated with the cubicle. The history information can be configured to record all of the information, but in addition to this, the history information may be obtained by recording only the date and time and the content of the abnormal findings when the abnormal findings are detected. The "history information" does not necessarily have to be a set of cubicle information at a plurality of time points, and includes a single piece of cubicle information at a temporary point.
In order to associate with the cubicle, the cubicle identification information or the history information is retained in association with the cubicle identification information and the detection sensor identification information. The cubicle identification information is an individual identification number given to the cubicle, identification information indicating the cubicle owner, identification information such as location information for identifying a place where the cubicle is arranged, and the like. Further, the cubicle identification information may be associated with a cubicle maintenance / inspection history, equipment introduction history, failure history, cubicle person in charge identification information, cubicle user side person in charge identification information, and the like. It is preferable that the person in charge identification information on the cubicle user side is stored in association with the attribute information of the user. The attribute information includes name, age, affiliation, desk phone number, mobile phone phone number, SNS identification information, e-mail address, user-only bulletin board URL, face photo, employee number, job title, and the like. The alarm output device can communicate with the person in charge on the cubicle user side by using this information. This communication may be automatic voice conversation or the like.

<Explanation of Configuration 1 Alarm Condition Holding Unit>
The "alarm condition holding unit" holds the alarm condition which is the cubicle information constituting the held history information and is the condition for outputting the alarm based on the combination of the cubicle information having different origins. Alarm conditions are provided in each of the sound collection unit, odor detection unit, temperature measurement unit, internal image acquisition unit, vibration acquisition unit, dust amount measurement unit, electricity-related value measurement unit, current / voltage acquisition unit, and external image acquisition unit. When the measured value, acquired value, or measured value of the sensor reaches a predetermined value, the speed of increase or decrease of the sensing value exceeds or / or turns, or the acceleration is a predetermined value. When it exceeds or / or falls below, the image change is composed of a combination such that the image change is in a predetermined position and / or is not.
"Different origin" is cubicle information acquired from the same cubicle, but information acquired from different units. Specifically, it is derived from two or more types of information: sound information, odor information, temperature information, internal image information, vibration information, dust amount information, electricity-related value information, ground fault degree information, and abnormality detection induced value degree information. Different information. Further, even if the information is of the same type, the information acquired from the sensors arranged at different positions may be treated as information having different origins. The ground fault degree information and the anomaly detection induced value degree information will be described again in another embodiment instead of the present embodiment.
The alarm condition is a condition that can be presumed to indicate an abnormal finding from the combination of cubicle information. As for the alarm condition, not only whether the alarm sounds or not, but also a method of outputting the alarm by changing the alarm content according to the degree of abnormal findings can be considered. In this case, the condition for classifying the abnormal findings can be included in the content of the alarm condition.
Since the alarm is output by combining the detection results and the history of the detection results of the unit that detects a plurality of physical quantities as in the present embodiment, false alarms can be reduced as compared with the conventional case, which is wasteful. It is possible to reduce the inadequate response caused by spending a lot of money and labor and turning into a wolf boy. In addition, since there is a history of detection results of multiple units, information on the condition of the cubicle is abundant, and the accident and the condition of the cubicle, the relationship between the accident and the detection result of each unit, the accident and the detection history of each unit, etc. It becomes possible to clarify the relationship between. These can be learned by humans to clarify causal relationships, or they can be learned by artificial intelligence to clarify causal relationships. This makes it possible to accurately predict the occurrence of an accident before it occurs. In other words, it is possible to accurately grasp the precursors of an accident.
Furthermore, the alarm condition may be configured to output an alarm when a functional abnormality actually occurs in the cubicle equipment, or it may be configured to output an alarm by catching the sign of the functional abnormality that has not occurred. You may. Here, the "function" of the "functional abnormality" mainly refers to the current processing function, but is not limited to this. For example, it may include a function of supporting and monitoring a device having a current processing function but not having a current processing function. For example, various measuring instruments, various sensors, air conditioners, water coolers, air conditioners, communication devices, etc. are applicable. This is because these are important devices used to support or monitor equipment that does not have a current processing function directly but has a current processing function.
The causes of functional abnormalities or signs of functional abnormalities include (1) initial failure of the device itself, (2) poor construction of the device, and (3) severe use of electricity at the user's office (excessive use of cubicle capacity). , Irregular use, etc.), (4) Harmful impact due to lightning strikes, flooding, invasion of birds and beasts, etc., (5) Aged deterioration, (6) Forced use beyond the useful life, etc.

As will be described later, sound information acquired by the sound collecting unit, odor information detected by the odor detecting unit, temperature information measured by the temperature measuring unit, internal image information acquired by the internal image acquisition unit, and vibration acquired by the vibration acquiring unit. The presence or absence of an alarm output may be determined by combining two or more of information, dust amount information measured by the dust amount measuring unit, and electricity-related value information measured by the electric-related value measuring unit. In this case, the alarm condition needs to be held for each possible combination.
For example, even if the threshold value of sound information is 5 and the threshold value of odor information is 4 when abnormal detection is performed by combining sound information and odor information, the sound when abnormality detection is performed by combining sound information and temperature information. The threshold value of the information can be set to 7, the threshold value of the temperature information can be set to 3, the threshold value of the odor information when detecting an abnormality by combining the odor information and the temperature information can be set to 7, and the temperature information can be set to 5. .. In this way, by setting the threshold value for each combination of cubicle information for each type, it is possible to check the abnormality inside a plurality of cubicles at the same time even if the information to be acquired is one.
The threshold value for each combination is also included in the alarm output condition.
Further, it may have the ground fault degree information measured by the ground fault degree measuring unit and the anomaly detection induced value degree information measured by the abnormality detection induced value degree measuring unit.

The "alarm" may include a pop-up on the display, an e-mail to a pre-registered person, or a telephone notification to a pre-registered person, in addition to the one that notifies the administrator by sound. .. E-mail may be automatically generated, and telephone may be automatically voiced. Prepare e-mail notifications and automatic phone calls in advance according to the cause of the alarm output. It is also possible to have a smartphone such as a person in charge registered in advance download an application dedicated to this system so that the smartphone sounds with a special sound by outputting alarm information. And it is convenient to take the smartphone and make it ring repeatedly until it is confirmed.

The acquired cubicle information includes information acquired by a plurality of detection units. Therefore, it is preferable to configure the alarm conditions so that it is possible to distinguish whether or not abnormal findings are observed for each combination. The combination is two or more, and is a combination of information from the information output units of a plurality of cubicles. The types of cubicle information acquired from different cubicles may be different. This is because the information to be acquired as cubicle information can be selected depending on the nature of the cubicle and other conditions.

For example, FIG. 52 (FIGS. 52-1 and 52-2) shows what kind of abnormal findings can be detected by combining the detection results of various detection units. FIG. 52 shows an example of a combination of two cubicle information, and FIG. 53 shows an example of a combination of three cubicle information. Although not shown, the judgment may be made based on a combination of four cubicle information.

When composed of a combination of two cubicle information, it is conceivable to select the cubicle information so as to be a pair of the main cubicle information and the cubicle information for determining the accuracy of the main cubicle information.
When it is composed of a combination of three cubicle information, it is conceivable to select the combination of cubicle information so that the certainty of abnormal findings can be judged by the judgment of majority vote.
In the case of configuring by combining four cubicle information, it is conceivable to select the cubicle information to be combined by the combination of the above two judgment methods.

With reference to FIG. 51, a method of detecting an abnormality occurring in the cubicle from a combination of two cubicle information will be described.

<Ammeter / voltmeter (electricity-related value information) and sound sensor (sound information)>
From the combination of cubicle information obtained from ammeters / voltmeters (electrical value information) and sound sensors (sound information), it is possible to determine the precursor of failure of high-voltage equipment such as transformers. can. That is, fluctuations only in current and voltage can occur even in normal use, but it can be identified as a failure of high-voltage equipment by setting the sound. When a large amount of current flows through a transformer, vibrations of core wires such as iron and vibrations of coils generate beats (sounds). If the current and the beat are in a proportional relationship, it can be judged that it is not abnormal, but if a beat occurs due to a small amount of current, it can be predicted that the transformer has deteriorated over time. Further, the sound of the failure of the high-voltage device in which the abnormality has occurred can be simulated and held in advance, and if the sound is the same as or similar to the simulated sound, it can be determined that the transformer has failed. If a failure simulation is held for each type of high-voltage device, it is possible to know which high-voltage device is in a failure precursor state by identifying the type of sound.
By storing the correlation between this abnormal sound and the fluctuation of voltage and current as data and performing deep learning, the failure sign can be further qualified.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. The alarms here are "cubicle identification number TC1034 discharge / voltage abnormality, transformer failure sign alarm occurrence, and failure occurrence probability within 1 day to 1 week is 80%."

<Ammeter / voltmeter (electricity-related value information) and odor sensor (odor information)>
From the combination of the electricity-related value information derived from the ammeter / voltmeter and the cubicle information acquired from the odor information derived from the odor sensor, it is possible to determine the presence or absence of internal damage to the cable or the like. The permissible current is fixed for the cable, and when a current exceeding the permissible current flows, a burning odor of the insulating coating portion is generated. It is possible to judge the overload from the increase in current, but if an appropriate one is not installed for the cable capacity of each circuit, a burning odor will be generated in the covering part of the cable, and it will be understood that the cable is abnormal. Or, if the cable is deteriorated and is in a state where it is easy to have heat, an offensive odor is likely to occur. In other words, since it is not possible to identify where the abnormality is in the path only with the current value and voltage value, setting it with the abnormal value of the odor sensor causes internal damage to the cable and partially melts the coating, or in some cases. Is strongly speculated to be burning.
Regarding odors, even if the cables themselves are the same cable, the cables can be identified by wrapping a tape that generates a different odor when the outermost circumference of the cable is overheated or worn. That is, it is conceivable to set the tape that circulates around the outermost circumference of the cable as a different type for identifying the cable, and set the odor generated at the time of overheating or the like so as to have a different type of odor. Regarding the odor, the odor generated for each type of tape is registered in advance, and when the odor is detected, it is configured to identify which tape the odor is, even if the cable is of the same type. , It is possible to determine which part of the damage is occurring. Furthermore, it is possible to determine how much the damage has progressed based on the intensity of the odor. Assuming that the maximum degree of damage is 10, an alarm may suddenly occur at a degree of damage of 9, or an alarm may initially occur at a degree of damage of 1. By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 current / odor abnormality, cable abnormality alarm occurs, and if used as it is, there is an 80% probability of failure occurrence of electric wire burning within 10 hours."

<Ammeter / voltmeter (electricity-related value information) and temperature sensor (temperature information)>
From the combination of the electricity-related value information derived from the ammeter / voltmeter and the cubicle information acquired from the temperature information derived from the temperature sensor, it is possible to determine whether or not the equipment is overheated due to an excessive current. In other words, since it is unclear what is the cause of the temperature rise with only the temperature sensor and hygrometer, the equipment overheat due to the excessive current is generated by combining it with the abnormality of the current value and voltage value. Can be identified.
At this time, it is preferable to disperse the temperature sensors. The distributed arrangement is arranged so that the temperature rise of the targeted equipment can be measured. For example, the surface temperatures of capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, cables, insulators, etc. are arranged so that they can be measured individually. In this case, it is possible to estimate from a sufficiently high angle which equipment in the cubicle is the cause of the abnormality caused by the ammeter / voltmeter. The temperature is stored in the alarm output device as a database by measuring the temperature in normal times in advance, but since the temperature sensor inside the cubicle is affected by the external environmental temperature of the cubicle, it should be stored in the laboratory in advance. Prepare the temperature change (behavior of temperature change) of each temperature sensor in the cubicle when the external environmental temperature of the cubicle is changed, and when applying it to the actual cubicle, the temperature of the temperature sensor outside the cubicle. It can be configured to judge whether it is abnormal by referring to the experimental data stored in the alarm output device together with the measurement result.
In other words, it is conceivable that the temperature rise of the temperature sensor measures only the temperature change inside the cubicle and outputs an alarm that it is abnormal, but the temperature inside the cubicle also changes depending on the environmental temperature outside the cubicle. Therefore, the environmental temperature outside the cubicle may be used as reference information, or it may be configured to determine whether it is abnormal or normal based on the difference in change from the environmental temperature outside the cubicle. In addition, regarding temperature changes, we conducted experiments that simulated abnormalities in various equipment installed in the cubicle in advance, and registered and accumulated what kind of temperature change would occur in what kind of equipment. It is preferable to leave it. This is because the failure mode can be known according to the temperature change history. For example, it is advisable to register the temperature change caused by a short circuit in the cable and the temperature change caused by the leakage current for each failure mode. By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. Possible alarms here include "cubicle identification number TC1034 current / temperature abnormality, transformer overload alarm, and instructions to contact the user to reduce power consumption."

<Ammeter / voltmeter (electricity-related value information) and image sensor such as camera (image information)>
From the combination of electricity-related value information derived from ammeters and voltmeters and cubicle information acquired from image sensor image information such as cameras, it is possible to judge the abnormality of opening and closing of circuits such as breakers, circuit breakers, and high-voltage load switches. It can be carried out. The opening and closing of the circuit may be able to detect not only a completely open state and a completely closed state, but also an intermediate state between the two, a halfway state, and the like. Further, even in the closed state, it is possible to detect a contact failure of the breaker, a malfunction of the breaker switch, and the like.
That is, it is unclear whether the breaker is open as a normal operation, the breaker is open as an abnormal operation, or other malfunctions are obtained only by the image analysis of the breaker part or the abnormality detection of the current / voltage, but the image of the camera or the like. And, it is possible to identify that the phenomenon that causes the abnormal operation exists in the breaker by the superimposed analysis of the measured values of the current value and the voltage value. By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 current alarm / switch operation, use confirmation caution alarm is generated, please contact the user to confirm."
Although this example describes a breaker, it is based on a combined analysis of currents and voltages of capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, cables, porcelain, etc., and images of cameras showing their appearance. , It is possible to grasp the dysfunction peculiar to the equipment or the precursor of the dysfunction.

<Ammeter / voltmeter (electricity-related value information) and vibration sensor (vibration information)>
From the combination of the electricity-related value information derived from the ammeter / voltmeter and the cubicle information acquired from the vibration sensor vibration information, it is possible to identify whether the mode is defective due to the external environment. By measuring the current value and voltage value, it is possible to determine whether the vibration generated in each high-voltage device such as a phase-advancing capacitor or series reactor is generated in normal use. This is because it is known what kind of abnormality appears in the waveforms of current and voltage in the case of malfunction of each equipment. Here, the current and voltage values of transformers, capacitors, circuit breakers, disconnectors, fuses, voltage transformers, instrument transformers, cables, etc., and vibrations are individually measured and acquired, and combined analysis is performed. By doing so, various abnormalities and precursors of abnormalities can be detected. In this case, the vibration sensor may be configured to be closely attached to each facility. Since vibration may propagate from equipment to equipment, it is possible to strongly estimate the first source of vibration by analyzing the strength of each vibration sensor in the cubicle. It is preferable to perform a simulated experiment on the vibration data in a facility in which a defective mode is intentionally set in advance in a laboratory or the like, and store the result as a database in an alarm output device. Then, it is possible to estimate what is happening in the cubicle by comparing the information of the vibration generated in the actual cubicle with the database. The same applies to other examples of the simulated experiment. In addition, the relationship between the vibration sensor and the equipment in the cubicle must be configured so that it is clear which equipment in the cubicle is measuring the vibration using the vibration sensor identification information. By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 discharge / vibration abnormality, transformer failure sign alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Ammeter / voltmeter (electricity-related value information) and dust sensor (dust amount information)>
From the combination of the electricity-related value information derived from the ammeter / voltmeter and the cubicle information acquired from the dust sensor dust amount information, it is possible to determine whether the mode is defective due to the external environment. In other words, it is not possible to determine whether or not there is an internal abnormality due to an external influence based only on the changes that occur in the current and voltage values, so the dust sensor values are set as a set. By doing so, it can be determined whether or not it is due to an external factor. The dust is measured by the dust sensor when the dust accumulated on the upper surface of the internal equipment or the floor inside the cubicle is blown up by vibration. In general, the environment inside the cubicle is separated from the external environment, so that a clean air environment is maintained inside the cubicle even when a large amount of dust is generated in the external environment. Therefore, it can be determined that the phenomenon that dust is observed in the cubicle, that is, the amount of dust increases, is caused only by the equipment in the cubicle. Therefore, it is difficult to determine whether it is an external cause or an internal cause only by the abnormality of the ammeter / voltmeter, but if the amount of dust increases in the closed cubicle, it may be the internal cause. It will be clear. This combined analysis can be applied to almost all equipment in the cubicle. A dust sensor is placed for each facility or for each part of each facility, and the position of each installed facility and the part of the facility is associated with the identification information of the dust sensor, and the dust sensor is sent to the dust sensor. By associating the identification information, the alarm output device can perform combined analysis. The target equipment will be arranged so that dust such as capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, cables, and insulators can be measured individually. The ammeter and the voltmeter may be configured to be able to measure the value of each facility individually, or may be configured to be able to measure the value of each system.
It is also possible to measure the tracking phenomenon due to dust or the like with a dust sensor and an abnormal current.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 current abnormality / dust abnormality, cubicle pollution alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Sound sensor (sound information) and odor sensor (odor information)>
From the combination of the sound information derived from the sound sensor and the cubicle information acquired from the odor information derived from the odor sensor, it is possible to determine the presence or absence of discharge or electric leakage due to deterioration of the insulating material such as a cable or high voltage device. That is, since similar sounds cannot be excluded only by abnormal sounds (bubu, bachin, jiji) detected by sound detection, if a kogation odor is generated at the same time by combining with an odor sensor, the cable It can be identified as an abnormality in high-voltage equipment.
It is conceivable that the odor sensor is provided only at one place in the cubicle, but it is also possible to disperse the odor sensor at a plurality of places. In the case of distributed installation, it is preferable to arrange it near the cable targeted by the odor sensor or at a position where it is expected to become a flow path of the smoke when smoke is emitted. In this case, it is preferable to configure the alarm output device to include a database by associating the target cable or cable portion with the device identification information of the odor sensor.
As mentioned above, regarding odor, even if the cable itself is the same cable, it is possible to wrap a tape that generates a different odor on the outermost circumference of the cable when it is overheated or worn. Can be identified. That is, it is conceivable to set the tape that circulates around the outermost circumference of the cable as a different type for identifying the cable, and set the odor generated at the time of overheating or the like so as to have a different type of odor. Regarding the odor, the odor generated for each type of tape is registered in advance, and when the odor is detected, it is configured to identify which tape the odor is, even if the cable is of the same type. , It is possible to determine which part of the damage is occurring. Furthermore, it is possible to determine how much the damage has progressed based on the intensity of the odor. Assuming that the degree of damage is 10 at the maximum, an alarm may suddenly occur at a degree of damage of 9, or an alarm may be generated at a degree of damage of 1 at the beginning.
The above explanation is for cables, but the target equipment is not limited to this, and the target equipment can measure the sound and odor of capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc. individually. By arranging them in such a manner, it is possible to discover these abnormalities, signs of abnormalities, corrosion, rusting, loosening, stains, cracks, and other points to be improved. The sound and odor sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, precursors of abnormalities, and points to be improved from the sound and odor with the alarm output device, a simulated abnormal state is brought in advance in a laboratory, etc., and what kind of sound is at that time. And, by grasping whether or not odor is generated and holding it in the alarm output device and comparing it with the information from the actual cubicle, the state of the equipment in the cubicle can be grasped.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 discharge / odor abnormality, switch discharge alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Sound sensor (sound information) and temperature sensor (temperature information)>
From the combination of the sound information derived from the sound sensor and the cubicle information acquired from the odor information derived from the odor sensor, it is possible to determine the presence or absence of discharge or leakage failure due to deterioration of the insulating material such as a cable or high voltage device. In other words, the spark abnormal sound (bubu, bachin, jiji) detected by sound detection alone cannot eliminate the sound in the case of similar sound that is not caused by insulation failure, so the temperature rise can be achieved by combining it with a temperature sensor. If they occur at the same time, it can be identified that the temperature is rising due to discharge, electric leakage, short circuit, or the like. Information that pairs the temperature sensor placement position and the temperature sensor identification information is stored in the alarm output device, and the temperature information accompanied by the temperature sensor identification information from the temperature sensor is acquired to obtain which cubicle. It is possible to grasp which part of which cable the temperature has risen. Since the temperature inside the cubicle depends on the temperature of the outside environment, the temperature of the outside environment at a position that does not depend on the cubicle is also measured and acquired together with the temperature information from the temperature sensor inside the cubicle. It is preferable to configure it so that the change in the temperature information of the temperature sensor in the cubicle can be isolated whether it is caused by the state of the cable in the cubicle or not.
The above explanation is for cables, but the target equipment is not limited to this, and the target equipment can measure the sound and temperature of capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, corrosion, etc. individually. By arranging them in such a way, these abnormalities, precursors of abnormalities, "corrosion, rusting, loosening, stains, cracks" (the acquisition of these information can be grasped by knowing not only the temperature but also the state of heat conduction. Information can be grasped by providing a heating point that operates intermittently in a part of the equipment to acquire information on heat conduction. In addition, corrosion, rusting, loosening, stains, and cracks generate a peculiar odor. This is configured to hold odor information in the alarm output device by conducting a corrosion simulation test in advance.) It is possible to discover points to be improved. The sound and odor sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 abnormal noise / temperature abnormality, transformer abnormality alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Sound sensor (sound information) and image sensor such as camera (image information)>
From the combination of the sound information derived from the sound sensor and the cubicle information acquired from the image information of the image sensor such as a camera, it is possible to determine whether or not the cubicle is damaged. That is, since it is unclear whether the sound alone is the cause of the damage in the cubicle, it is possible to identify whether the cause of the sound is due to the damage in the cubicle by combining with the image analysis.
In image analysis, problematic points can be easily identified by acquiring the difference information of the images before and after the sound is generated. It is often difficult to understand which equipment has been damaged by analyzing only the image after the sound is generated. However, in the differential analysis of the images before and after the sound, even if there is a slight change in the surface of the equipment or the like, it can be determined that there is a high possibility that some kind of damage has occurred in that portion. In this way, even if it is not possible to grasp it as an abnormality even if it is judged only by the image, it is possible to grasp the damaged part with high accuracy even if it is a very slight abnormality by analyzing it together with the sound information. Become.
The equipment covered by this analysis is all equipment within the cubicle, with individual sounds such as cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, corrosive equipment, etc. that may be damaged. By arranging it so that it can be measured and acquired, these abnormalities and precursors of abnormalities, "corrosion, rusting, loosening, stains, cracks" (for these, regularly using the installed key press etc.) It is possible to hit the key of the device and determine whether the corrosion has progressed based on the sound and the image.)) It is possible to discover points to be improved. Of course, if it is a high-performance microphone, it may not be necessary to install it individually. The sound and image sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp the abnormality, the precursor of the abnormality, and the point to be improved from the sound and the image with the alarm output device, a simulated abnormal state is brought in advance in the laboratory etc., and what kind of sound is at that time. It is also possible to grasp the state of the equipment in the cubicle by grasping whether an image is generated and holding it in the alarm output device and comparing it with the information from the actual cubicle.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 cubicle abnormal noise alarm occurs, switch is opened from image recognition when abnormal noise occurs, please contact the user to confirm."

<Sound sensor (sound information) and vibration sensor (vibration information)>
From the combination of the sound information derived from the sound sensor and the cubicle information acquired from the vibration information derived from the vibration sensor, it is possible to determine whether or not the inside of the cubicle is damaged. That is, since it is not possible to determine whether or not vibration is generated due to an external factor such as an earthquake or wind only by acquiring vibration, the reaction of the sound sensor and the vibration sensor is performed at the same time by combining with the sound sensor. In some cases, it can be identified as a break in the cubicle. For example, damage to equipment in a cubicle can be detected by the simultaneous generation of sound and vibration. For example, when considering the case where the transformer is damaged, the core of the transformer starts to vibrate and a peculiar sound is generated, and at a certain point, the criticality is reached and the core swings greatly and vibrates to the wall surface of the transformer. Become. In this way, by acquiring the sound and vibration peculiar to the equipment at the same time or in chronological order and comparing it with the held sound and vibration at the time of abnormality, it is possible to grasp with high accuracy that an abnormality has occurred in the transformer. be able to.
The equipment covered by this analysis is all equipment within the cubicle, with individual sounds such as cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, corrosive equipment, etc. that may be damaged. By arranging it so that it can be measured and acquired vibrations, these abnormalities and precursors of abnormalities, "corrosion, rusting, loosening, stains, cracks" (for these, use the installed key press etc. on a regular basis) By hitting the key of the device, it is possible to determine whether the corrosion has progressed due to the sound and the propagating vibration.)) It is possible to discover points to be improved. Of course, sound collection may not need to be installed separately if it is a high-performance microphone. The sound and vibration sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, precursors of abnormalities, and points to be improved from sound and vibration with an alarm output device, a simulated abnormal state is brought in advance in a laboratory, etc., and what kind of sound is at that point. It is also possible to grasp the state of the equipment in the cubicle by grasping whether vibration occurs and holding it in the alarm output device and comparing it with the information from the actual cubicle.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 abnormal noise / vibration abnormality, transformer failure sign alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Sound sensor (sound information) and dust sensor (dust amount information)>
From the combination of the sound information derived from the sound sensor and the cubicle information acquired from the dust amount information derived from the dust sensor, it is possible to determine whether or not the inside of the cubicle is damaged. That is, since it is not possible to determine whether or not dust is generated due to an external factor such as an earthquake or wind only by detecting dust, the reaction of the sound sensor and the dust sensor is performed at the same time by combining with the sound sensor. In some cases, it can be identified as a break in the cubicle.
The dust sensor may be any one that can detect the presence or absence of dust, one that can detect not only the presence or absence of dust but also the amount of dust, or one that can detect not only the amount but also the type of dust. However, if the amount and type of dust can be detected, it is possible to grasp not only abnormalities and precursors of abnormalities but also information such as points to be improved such as rust.
When a relatively large-scale damage occurs to the equipment inside the cubicle, the sound peculiar to the damage is generated, and at the same time, the damaged mechanical vibration causes dust and the like adhering to the equipment to fly up and dust in the space inside the cubicle. The amount increases. It can be considered that such a sound peculiar to damage and an event of an increase in dust occur at the same time, causing an abnormality in the equipment in the cubicle and causing a relatively large-scale damage.
The equipment covered by this analysis is all equipment within the cubicle, with individual sounds such as cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, corrosive equipment, etc. that may be damaged. By measuring and arranging so that information on dust in the space inside the cubicle or information on dust in a position close to each facility can be obtained, these abnormalities and precursors of abnormalities, "corrosion, rusting, loosening, and fouling" , Cracks ”(For these, the device is pressed regularly using the installed key press, etc., and it is judged whether the corrosion has progressed due to the sound generated at that time and the type of dust that rises. It is possible to discover points to be improved such as.). If it is a high-performance microphone, it may not be necessary to install it individually. The sound and image sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from sound and dust with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes "cracks"), and by grasping what kind of sound and dust is generated at that time and holding it in the alarm output device and comparing it with the information from the actual cubicle, it is inside the cubicle. It is also possible to grasp the state of the equipment of.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. Possible alarms here include "cubicle identification number TC1034 abnormal noise / vibration abnormality, transformer failure sign alarm occurrence, and failure occurrence probability within 1 day to 1 week is 80%."

<Odor sensor (odor information) and temperature sensor (temperature information)>
From the combination of the odor information derived from the odor sensor and the cubicle information acquired from the temperature information derived from the temperature sensor, it is possible to determine whether or not the transformer is damaged. That is, since it is unclear whether the odor alone is the cause of the transformer damage or the external factor, it can be identified as the transformer damage in the cubicle by combining with the temperature rise. For example, if the insulating oil is accidentally spilled when the transformer is refueled, the odor sensor indicates an abnormality, but the temperature sensor does not indicate an abnormality, so that the alarm output device can determine that the abnormality is not present. In addition, vinyl chloride and polyethylene are used for the cable coating, but these give off a certain odor even under normal conditions, and especially when shipped from the factory, they are used and older than those used. It gives off a strong odor. Therefore, when the cable in the cubicle is replaced with a new one, the value of the odor sensor shows an abnormality, but the information of the temperature sensor does not show an abnormality, so the alarm output device does not judge that an abnormality has occurred in the cubicle. .. On the other hand, electric leakage may cause thermal damage to the cable coating and generate odor. The odor due to thermal damage is stored in the alarm output device in advance for each type of cable and compared with the odor information from the odor unit. It may be configured to determine if the cable is being damaged. For example, it can be determined whether the cable is a high-voltage drop wire cable, a high-voltage cable inside the cubicle, a 220V or 100V wire cable, or an internal wiring cable (lead wire) of an electronic instrumentation device. By doing so, it is possible to predict what kind of accident will occur and to what extent in the future. If the odor unit is configured so as to measure the amount of smoke that is the basis of the odor even if the odor is the same, the degree of damage to the coating of the cable can be calculated. The greater the amount of smoke, the more severe the damage.
Abnormalities in equipment in the cubicle and signs of abnormalities often bring about changes in odor and changes in temperature at the same time. This is because, in general, in the equipment inside the cubicle, as the temperature rises, the members constituting the equipment and the dust accumulated in the equipment generate heat, and an odor different from the usual one fills the inside of the cubicle. In particular, the cubicle is generally not large in volume, and the odor generated in the cubicle can be easily detected with relatively high sensitivity. Here, since the temperature inside the cubicle depends on the temperature of the external environment, it is necessary to distinguish whether the change in temperature (mainly the rise) is caused by the equipment inside the cubicle or the external environment. A temperature sensor that can measure the external environment temperature is installed at a position that does not depend on the temperature change of the cubicle, and it is configured to distinguish whether the temperature change inside the cubicle is dependent on the external environment or the cause is an abnormality in the equipment inside the cubicle. Is preferable.
The equipment subject to this analysis is all equipment in the cubicle, such as cables, capacitors, transformers, circuit breakers, breakers, fuses, transformers, and equipment that may generate abnormal heat, such as corrosion. By measuring and arranging so that information on the odor and temperature of the space inside the cubicle or information on the odor and temperature in a position close to each facility can be obtained, these abnormalities and precursors of abnormalities, "corrosion, occurrence""Rust, looseness, stains, cracks" (For these, a small heater etc. was installed in each equipment to heat the equipment regularly, and corrosion progressed depending on the temperature at that time and the type of odor generated. It can be determined by using criteria such as the relationship between the temperature and odor under normal conditions and the relationship between temperature and odor when rusting to be improved occurs.) You can discover the points to be improved.
If the odor sensor has high performance, it may not be necessary to install it individually for each facility. The odor and temperature sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from the odor and temperature with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes "cracks"), and by grasping what kind of odor and temperature it is at that time, holding it in the alarm output device, and comparing it with the information from the actual cubicle, it is inside the cubicle. It is also possible to grasp the state of the equipment.
In addition, by applying or spraying a chemical that generates a predetermined odor by generating heat to the equipment in the cubicle and identifying the odor at the same time as the heat generation, it is possible to identify the equipment in which the abnormality occurred in the cubicle or to use the equipment. It is also possible to identify the abnormal part of the fever.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 temperature / odor abnormality, cable abnormality alarm occurs, and if used as it is, there is an 80% probability of failure occurrence of electric wire burning within 10 hours."

<Odor sensor (odor information) and image sensor such as camera (image information)>
The combustion portion can be specified from the combination of the odor information derived from the odor sensor and the cubicle information acquired from the image information derived from the image sensor such as a camera. That is, it is not possible to identify the combustion site that causes the odor only by the generation of the odor, but it is possible to identify the combustion site that causes the odor by analyzing the images before and after the generation of the odor. can. This is because, in general, when burned, the surface changes and its appearance changes before and after burning. By combining the odor sensor and the image sensor even for combustion that does not involve flames, it is possible to determine what kind of abnormal situation is occurring due to slight changes in equipment and accessories. .. The appearance of cables and the like clearly changes when the covered wire burns. This is because it is a polymer compound, so smoke is generated and the coating is dissolved. Further, even for non-plastics, for example, equipment having a metal housing, the coating changes due to overheating. Since the coating generally uses organic substances, the appearance changes when the coating burns. By acquiring the difference between the images before and after the generation of odor, it is possible to know the abnormality due to a slight overheating and the precursor of the abnormality.
The equipment covered by this analysis is all equipment within the cubicle, with individual odors such as cables, capacitors, transformers, breakers, breakers, fuses, metamorphic equipment, and equipment that may overheat, such as corrosion. By measuring and arranging so that information on the odor of the space inside the cubicle or information on the odor in a position close to each equipment can be obtained, these abnormalities and precursors of abnormalities, "corrosion, rust, looseness, stains" , Cracks ”(For these, a small heater etc. is installed in each equipment, and the equipment is heated regularly, and it is judged whether the corrosion has progressed depending on the temperature at that time and the type of odor generated. The relationship between the temperature and odor in the normal case and the relationship between the temperature and the odor in the case of corrosion to be improved are different, and the image of the appearance in the normal case and the appearance in the abnormal case are different. It is possible to discover points to be improved such as (discrimination using criteria such as images). When using a high-performance odor sensor, it may not be necessary to install it individually. The odor and the image sensor may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from the odor and images with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes "cracks" etc.), and by grasping what kind of odor and image it is at that time, holding it in the alarm output device and comparing it with the information from the actual cubicle, it is inside the cubicle. It is also possible to grasp the state of the equipment of.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. The alarm here is "cubicle identification number TC1034 odor abnormality, image confirmation (the difference between the image before and after the odor is generated is displayed and the abnormality notification for the device registered in the image is carried out) High voltage equipment It is possible that something is wrong with the image. "

<Odor sensor (odor information) and vibration sensor (vibration information)>
From the combination of the odor information derived from the odor sensor and the cubicle information acquired from the vibration information derived from the vibration sensor, it is possible to determine, for example, whether or not the transformer is damaged. Transformer damage occurs when a current above the rating is applied or a voltage above the rating is applied, but these overloads do not always cause a temperature rise. Therefore, with the combination of the odor sensor and the vibration sensor, it is possible to detect momentary damage that does not lead to a temperature rise. When the odor sensor detects the thermal damage of the cable and the vibration sensor detects the vibration of the transformer, it is possible to detect that the cable and the transformer are damaged due to an overload caused by an overcurrent or the like. Also, from the magnitude of the vibration and the intensity of the odor, it is possible to determine how much overload was applied to the cable or transformer, and the degree of damage can be estimated, so how later and how. It is possible to calculate whether or not a failure will occur.
The cubicle equipment that can detect and acquire abnormalities by combining an odor sensor and a vibration sensor is not limited to cables and transformers.
The equipment covered by this analysis is any equipment in the cubicle that can cause overheating and abnormal vibration of cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc. Equipment, etc. are targeted. As an example of how to collect information, a sensor that measures odor and vibration is attached to each equipment individually. By arranging so that information on odor and vibration in the space inside the cubicle or information on odor and vibration in a position close to each facility can be obtained, these abnormalities, precursors of abnormalities, "corrosion, rust, loosening" , Stain, crack "(For these, a small heater etc. was installed in each equipment to heat the equipment regularly, and whether the corrosion progressed depending on the temperature at that time and the type of odor generated, and , It is possible to periodically key the housing of each equipment using a tendon device and acquire the reaction with a vibration sensor to grasp abnormalities, signs of abnormalities, and the existence of points to be improved. The relationship between odor and vibration in normal cases and the relationship between odor and vibration when rusting to be improved occurs, and the response of odor and vibration in normal cases and the response of odor and vibration in abnormal cases, etc. It is possible to discover points to be improved, such as (determination using the criteria of). When using a high-performance odor sensor, it may not be necessary to install it individually. The odor and vibration sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from odor and vibration with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes "cracks" etc.), and by grasping what kind of odor and vibration it is at that time, holding it in the alarm output device and comparing it with the information from the actual cubicle, it is inside the cubicle. It is also possible to grasp the state of the equipment of.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As the alarm here, "cubicle identification number TC1034 vibration / odor abnormality alarm occurrence, transformer failure sign alarm occurrence, failure occurrence probability within 1 day to 1 week is 80%."

<Odor sensor (odor information) and dust sensor (dust amount information)>
The combination of the odor information from the odor sensor and the dust information from the dust sensor may work effectively in an abnormal mode in which the temperature rise cannot be detected even though the odor is burnt. This is effective in cases where an overload is applied to the cable or a transformer connected to the cable, causing momentary vibration and thermal damage to the cable as described above. Even if the vibration sensor does not sufficiently capture the vibration, if the dust sensor detects that the dust is flying up, the transformer etc. will vibrate or deform due to a momentary overload, and the dust will fly up. It can be inferred that there was. And since the odor sensor detects the thermal damage of the cable coating,
It can be predicted that the overload will cause some damage to the cables and transformers. In addition, the degree of damage can be known from the amount of dust and the intensity of odor, and it is possible to output a warning as to what kind of accident may occur in what future time.
The equipment targeted for this analysis is not only transformers, but all equipment in the cubicle, and abnormal odors can be generated due to overheating of cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc. Equipment that may generate insulators and abnormal vibrations is targeted. As an example of how to collect information, a sensor that measures odor individually and measures dust in the vicinity is attached to each facility. By arranging so that information on odor and dust in the space inside the cubicle or information on odor and dust in a position close to each facility can be obtained, these abnormalities and precursors of abnormalities, "corrosion, rust, loosening, etc.""Stain,crack" (the relationship between normal odor and vibration and the relationship between odor and vibration when rusting to be improved occurs, and the normal odor and vibration response and abnormal cases It is possible to discover points to be improved such as (discrimination using criteria such as odor and vibration response). When using a high-performance odor sensor, it may not be necessary to install it individually. The odor and vibration sensors may be configured so that the values of the respective equipments can be measured individually or can be measured in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from odor and vibration with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes "cracks" etc.), and by grasping what kind of odor and vibration it is at that time, holding it in the alarm output device and comparing it with the information from the actual cubicle, it is inside the cubicle. It is also possible to grasp the state of the equipment of.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 dust / odor abnormality alarm generation, cubicle tracking alarm generation, combustion by tracking within 24 to 48 hours has an 80% probability."

<Temperature sensor (temperature information) and image sensor such as camera (image information)>
From the combination of the temperature information derived from the temperature sensor and the cubicle information acquired from the image information derived from the image sensor such as a camera, it is possible to identify the overheated part of the equipment in the cubicle. That is, the temperature sensor alone cannot identify the portion of the equipment where the overheating has occurred, but by combining with the image analysis before and after the temperature rise, the overheating portion can be identified. This is because when the temperature rises, the paint overheats and emits smoke, the cable coating melts, and the cable coating melts and emits smoke. Further, the temperature sensor or the device for acquiring an image may be an infrared camera or a thermography camera. By using these, the overheated part can be identified relatively easily. If the temperature sensor is a thermography camera, the thermography and the normal camera have the same angle of view, so that it is possible to easily grasp which part of which equipment is overheated.
The equipment targeted for this analysis is all equipment in the cubicle, such as equipment that may cause abnormalities due to overheating of cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc. Is the target. As an example of how to collect information, a device that measures the temperature individually and measures the image of the vicinity is attached to each facility. By arranging so that the temperature and image information of the space in the cubicle or the temperature and image information at a position close to each facility can be obtained, these abnormalities and precursors of abnormalities, "corrosion, rust, loosening, etc.""Stain,crack" (the relationship between the image and overheating in the normal case and the relationship between the overheating and the image when rusting to be improved occurs, and the keystroke and the response of the image in the normal case and the abnormal case Judgment is made using criteria such as keystrokes and image response. If there is an occurrence, rust will spill from the surface due to keystrokes, or if dust is accumulated on the equipment, dust will be blown up by keystrokes. It is possible to acquire the image of the above.) It is possible to discover points to be improved. When using a high-performance temperature sensor, it may not be necessary to install it individually. The temperature and image sensor (camera in the case of an image) may be configured to be able to measure the value of each equipment individually or to be able to measure in a system unit. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from the temperature and images with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." This includes the case where the equipment is heated with a heater such as "crack"), and the temperature and image at that time are grasped and held in the alarm output device from the actual cubicle. By comparing with the information, it is possible to grasp the state of the equipment in the cubicle.
It is conceivable that the temperature rise of the temperature sensor detects only the temperature change inside the cubicle and outputs an alarm that it is abnormal, but the temperature inside the cubicle also changes depending on the environmental temperature outside the cubicle. Therefore, the environmental temperature outside the cubicle may be used as reference information, or it may be configured to determine whether it is abnormal or normal based on the difference in change from the environmental temperature outside the cubicle.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 dust / odor abnormality alarm generation, cubicle tracking alarm generation, combustion by tracking within 24 to 48 hours has an 80% probability."

<Temperature sensor (temperature information) and vibration sensor (vibration information)>
For example, in normal use of a transformer, the rise in temperature due to an increase in load is proportional to the rise in vibration. Therefore, it can be determined that the temperature rise within a certain range and the vibration rise are normal operating conditions. However, if this proportional relationship does not hold, for example, if the temperature rises but the vibration does not rise, or if the temperature does not rise but the vibration rises, it is calculated that the information deviates from the normal usage state. can. For example, it may be possible to calculate that vibration does not occur due to changes in the internal structure even though the transformer is internally damaged and a large load is applied. In this case, the temperature of the transformer itself rises due to the overload, but it can be determined by calculation that vibration has not occurred and that the inside of the transformer has been damaged.
The equipment targeted for this analysis is not limited to transformers, but any equipment in the cubicle, which causes abnormalities due to overheating of cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc. Equipment that may cause the equipment to be used is targeted. As an example of how to collect information, a device that measures the temperature individually and measures the vibration in the vicinity is attached to each facility. By arranging so that information on the temperature and vibration of the space inside the cubicle or information on the temperature and vibration in a position close to each facility can be obtained, these abnormalities and precursors of abnormalities, "corrosion, rust, loosening, etc.""Staining,cracking" (For these, if high output power is applied to the equipment that has been corroded in advance in the laboratory etc. and the equipment vibrates or overheats, the temperature at that time and the vibration that occurs By accumulating data of the above types and comparing this with the information from the actual cubicle, it is possible to judge whether corrosion has progressed. If corrosion has occurred, high output power Since the application causes a phenomenon such as rust spilling from the surface, it tends to vibrate differently than in the normal case.) It is possible to discover points to be improved. When using a high-performance temperature sensor, it may not be necessary to install it individually. The temperature and vibration sensors (which may be ultrasonic waves) may be configured to be able to measure the values of each facility individually or in units of systems. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from the temperature and vibration with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." This includes the case where the equipment is heated with a heater such as "cracks"), and the temperature and vibration at that time are grasped and held in the alarm output device from the actual cubicle. By comparing with the information, it is possible to grasp the state of the equipment in the cubicle.
It is conceivable that the temperature rise of the temperature sensor detects only the temperature change inside the cubicle and outputs an alarm that it is abnormal, but the temperature inside the cubicle also changes depending on the environmental temperature outside the cubicle. Therefore, the environmental temperature outside the cubicle may be used as reference information, or it may be configured to determine whether it is abnormal or normal based on the difference in change from the environmental temperature outside the cubicle.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 temperature / vibration abnormality alarm is generated, and there is an 80% probability of failure occurrence within 1 to 6 months due to abnormal vibration of the transformer."

<Temperature sensor (temperature information) and dust sensor (dust amount information)>
In cases where the temperature rises after the amount of dust has increased sharply, it may be possible to determine by calculation that the temperature has risen due to the dust accumulating in the electrically insulating portion, causing a short circuit and igniting. If there is a sudden generation of dust and a rise in temperature in this way, there is a possibility of a short circuit due to the dust, and by including information such as where the temperature rises in the temperature information, a short circuit will occur at any part. You can also judge if it is.
The equipment targeted for this analysis is all equipment in the cubicle, which causes abnormalities due to overheating of cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, insulators, etc., as well as insulation points. Equipment that may be the target is targeted. As an example of how to collect information, a device that measures the temperature individually and measures dust in the vicinity is attached to each facility. By arranging so that information on the temperature and dust in the space inside the cubicle or information on the temperature in the vicinity of each facility and the dust in the vicinity of the facility can be obtained, these abnormalities and precursors of the abnormality, "corrosion, generation" Rust, looseness, stains, cracks "(These cause short circuits due to dust, so if dust is observed due to temperature rise and sparks, corrosion, rust, looseness, stains, and cracks occur. It may be possible to discover points for improvement such as). When using a high-performance temperature sensor, it may not be necessary to install it individually. Temperature and dust sensor (It is preferable that the size of the dust can be measured in various sizes, and it is preferable that the minimum unit is the ability to detect the dust of the size up to the micron unit and the number of the dust per unit volume can be detected by size. From the distribution of the size and quantity of this dust, it is possible to determine what the temperature rise event in the cubicle is, because it occurs for each abnormal phenomenon such as melting of the covered wire and dust generated by sparks. This is because the size and the distribution of the amount of dust are different.) May be configured so that the value of each facility can be measured individually or can be measured in a system unit. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from the temperature and dust with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." This includes the case where the equipment is heated with a heater such as "cracks"), and the temperature and dust at that time are grasped and held in the alarm output device from the actual cubicle. By comparing with the information, it is possible to grasp the state of the equipment in the cubicle.
It is conceivable that the temperature rise of the temperature sensor detects only the temperature change inside the cubicle and outputs an alarm that it is abnormal, but the temperature inside the cubicle also changes depending on the environmental temperature outside the cubicle. Therefore, the environmental temperature outside the cubicle may be used as reference information, or it may be configured to determine whether it is abnormal or normal based on the difference in change from the environmental temperature outside the cubicle.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 temperature / dust abnormality alarm has occurred, and there is an 80% probability of failure occurring within 3 to 6 years due to the bad environment of the cubicle."

<Image sensor (image information) such as camera and vibration sensor (vibration information)>
From the combination of the image information derived from the image sensor such as a camera and the cubicle information acquired from the vibration information derived from the vibration sensor, it can be determined as an example whether or not the transformer is damaged. That is, it is not possible to identify whether or not the vibration is caused by the damage of the transformer only by the occurrence of the vibration, but by performing the image analysis before and after the vibration, the cause of the vibration is the damage of the transformer. Can be identified. For example, loosening of the insulator of the transformer, loosening of the fastening of the primary terminal and the secondary terminal, the existence of iron repair tools left on the transformer, misplacement of the repair cable on the transformer, etc. Can be found.
The equipment covered by this analysis is any equipment in the cubicle that can generate vibrations based on any anomalies such as cables, capacitors, circuit breakers, disconnectors, fuses, transformers, insulators, etc., as well as transformers. Equipment that has the property is targeted. As an example of how to collect information, a vibration measuring device is individually placed in each facility to measure vibration, and a device for measuring images in the vicinity is attached. By arranging so that one vibration measuring instrument installed on the wall surface of the space inside the cubicle and the information of the whole image, or the vibration value and the image information at the position close to each facility can be acquired, these abnormalities can be detected. It is possible to discover points to be improved such as precursors of abnormalities, "corrosion, rust, looseness, stains, cracks" (because if the mechanical balance is lost due to corrosion etc., vibration different from normal) etc. can. When using a high-performance vibration sensor, it may not be necessary to install it individually. The vibration and the image sensor (camera in the case of an image) may be configured so that the vibration value can be measured individually in each facility or can be measured in a system unit. In addition, in order to grasp abnormalities, signs of abnormalities, and points to be improved from vibrations and images with the alarm output device, simulated abnormal conditions ("corrosion, rust, looseness, stains, etc." It also includes the case of heating the equipment with a heater such as "crack"), grasping what kind of vibration and image it is at that time and holding it in the alarm output device from the actual cubicle. By comparing with the information, it is possible to grasp the state of the equipment in the cubicle.
It should be noted that the vibration acquisition of the vibration sensor may detect only the vibration change inside the cubicle and output an alarm that it is abnormal, but the vibration inside the cubicle also changes due to the environmental vibration outside the cubicle. It is also possible to use the environmental vibration outside the cubicle as reference information, or to determine whether it is abnormal or normal based on the difference in change from the environmental vibration outside the cubicle.
By saving the correlation of one or more sensors as data and performing deep learning, the failure sign can be made more qualified, and the alarm information can be up to the failure depending on the occurrence period and the number of occurrences. The probability of sex goes up. The alarm here is "cubicle identification number TC1034 vibration abnormality, image confirmation (the difference between the image before and after the vibration is displayed and an abnormality is issued for the equipment registered in the image) high-voltage equipment. It is possible that something is wrong with the image. "

<Image sensor for cameras (image information) and dust sensor (dust amount information)>
By combining the image information from the camera image unit and the dust information from the dust unit, it can be estimated by calculation that dust has adhered to or accumulated on the insulated part, and the camera actually insulates with dust. When discoloration of the part is observed, it can be inferred by calculation that the insulating part will be short-circuited in the future due to the volume of dust and an abnormality will occur. In this case, the color of the insulated part in a clean state and the change in the color of the insulated part when the expected dust gradually accumulates are held in the alarm output device and occur with the image information from the camera image unit. By calculating the change in the retained color and the cumulative amount of dust from the dust unit, it is possible to calculate how long the short circuit of the insulating part can occur. This makes it possible to predict when and where a short circuit may occur in the future.
The equipment covered by this analysis is all equipment in the cubicle, which can cause abnormalities due to overheating of cables, capacitors, circuit breakers, disconnectors, fuses, transformers, insulators, etc., as well as transformers. A certain facility etc. is targeted. As an example of how to collect information, a device that acquires images individually and measures dust in the vicinity is attached to each facility.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. The alarm here is "cubicle identification number TC1034 dust abnormality, image confirmation (difference between the image before and after the occurrence of dust abnormality is displayed and an abnormality is issued for the device registered in the image) high pressure. There may be a problem with the device. "

<Vibration sensor (vibration information) and dust sensor (dust amount information)>
From the combination of the vibration information derived from the vibration sensor of the vibration unit and the cubicle information acquired from the dust amount information derived from the dust sensor of the dust unit, it is possible to determine, for example, whether or not the transformer is damaged.
The generation of dust may be, for example, the intrusion of dust from the outside by opening the door of the cubicle, or the dust rolled up when cleaning the cubicle. On the other hand, even when the intensity of vibration suddenly increases, it may be contact with the equipment of a small animal. From this point of view, if the intensity of vibration increases and the amount of dust increases at the same time, it is strongly presumed that the cause is abnormal vibration of the equipment in the cubicle. Especially with regard to vibration, since there is a resonance frequency peculiar to the equipment of the cubicle, the natural frequency is held in advance by the alarm output device, and it is determined whether the vibration information transmitted from the cubicle matches the peculiar frequency. Is preferable.
The equipment covered by this analysis is all equipment in the cubicle, which can cause abnormalities due to overheating of cables, capacitors, circuit breakers, disconnectors, fuses, transformers, insulators, etc., as well as transformers. A certain facility etc. is targeted. As an example of how to collect information, a device that measures vibration individually and measures dust in the vicinity is attached to each facility.
By continuously acquiring and accumulating this one or more sensor data and performing deep learning (deep learning) together with the corresponding failure data (date and time, duration, number of times, interval, etc.), the accuracy of grasping the failure sign is improved. I will go. As an alarm here, "cubicle identification number TC1034 vibration / dust abnormality alarm has occurred, and there is an 85% probability of failure occurring within 3 to 6 years due to the bad environment of the cubicle."

By combining the image information and the reaction information of two other sensors as illustrated in FIG. 52, it is possible to identify the location where the abnormality has occurred by analyzing the image information before and after the reaction of the sensors and the like. It will be possible. Therefore, is the reaction of the sensor etc. caused by the abnormality inside the cubicle, is the reaction of the sensor etc. caused by the circumstances outside the cubicle, or more specifically, which part of the cubicle is causing the abnormality? Can be specified. The image may be a high-definition image, an ultra-high-definition image, for example, a 4K image, an 8K image, or the like, in addition to the image of a normal camera. Further, an infrared image, a thermographic image, an ultraviolet image, an ultrasonic image, or the like may be used. In the case of ultrasonic images, it is possible to observe the inside of the device. In addition, the image uses an appropriate type of image, whether it is a still image or a moving image. Comparing the images before and after the abnormality detection by other sensors makes it more accurate to grasp the event.

For example, it is more complicated to understand not only that there seems to be a short circuit as an event, but also to grasp the specific aspect such as the degree of damage and which part is damaged. The amount of cubicle information required to perform an event analysis will increase. Therefore, by increasing the cubicle information used to analyze one event, such as 5, 6, 7, ..., not only the certainty of the abnormal findings but also the specificity of the specific mode of the abnormal findings can be specified. It will be possible to increase. The cubicle information referred to here is not only the meaning of the cubicle information for each sensor type (problem of how to combine sensor types such as odor sensor, voice sensor, temperature sensor, image sensor, etc.), but also the cubicle information for each sensor (A). It may mean a problem of how to combine cubicle information specified by the type of the installed point and the sensor, such as the odor sensor at the point, the odor sensor at the point B, the odor sensor at the point C, and the temperature sensor at the point D). ..

How to combine cubicle information to determine the presence or absence of abnormal findings and hold alarm conditions corresponding to them, and separately, how to combine cubicle information to specify the specific mode of abnormal findings and corresponding to this If it is determined that there is an abnormal finding, the specific mode corresponding to the finding is acquired, and the alarm corresponding to the acquired specific mode is selected and output. It may be configured.

<Explanation of Configuration 1 Alarm Output Unit>
The "alarm output unit" is cubicle information that constitutes the retained history information, and an alarm is issued when the result of information processing using a combination of cubicle information of different origins meets the retained alarm condition. Output. The alarm conditions have already been described above. As described above, the "history information" does not necessarily have to be a set of cubicle information at a plurality of time points, and includes a person who has a single point of cubicle information.
Here, the "alarm" does not necessarily mean a defect (a defect does not necessarily mean only an abnormality in the information processing function of the cubicle, etc., but a sign leading to an abnormality in the current processing function of the cubicle, etc. can also be included in the defect mentioned here. It is not limited to what is done only once for), but it can also be configured to output an alarm for the same defect in multiple stages. Multi-stage output means that alarms are output multiple times with a time span. Although the time span is a design matter, it is preferable to set a certain time length such as a unit of 2 to 3 days, a unit of 1 week, or a unit of 1 month. When a plurality of alarms are output in three or more stages, it is preferable to shorten the span as the final alarm approaches. Also, when outputting alarms in multiple stages, the quality of the information may be improved as the final alarm approaches (possible to improve the quantity and quality of available cubicle information), or alarms. The output form of is made stronger (for example, first mail → then the display on the personal computer or related web page → then the mobile phone or landline → then the premises broadcast or indoors. (Speakers, etc.), gradually expand the output target (first the person in charge → then the person in charge and his superior → then the person in charge, the superior, the superior of this superior, etc.) It is also good.

For example, if the sound abnormality detection was obtained from the cubicle information, but it is unknown whether the sound of the fireworks display was acquired or the sound in the cubicle was detected because the fireworks display was held nearby, another unit may be used. If no abnormal findings are found in the acquired cubicle information, such as odor information or temperature information, the sound information indicating the abnormal findings acquired by the voice microphone section is not based on the abnormal findings inside the cubicle, but the fireworks outside. It can be judged that it is due to the competition. Therefore, if abnormal findings are found only in the sound information, it is conceivable to set an alarm condition that it is not necessary to output an alarm. This is a rule that the processing results of two or more cubicle information must meet a predetermined alarm condition in order to output an alarm.

For example, if an abnormal finding is found in the odor information contained in the cubicle information or an abnormal finding is found in the temperature information contained in the cubicle information, the abnormal odor outside the cubicle happens to be acquired as odor information, or It is conceivable that the outside of the cubicle is too hot and affects the temperature measuring device installed inside the cubicle. That is, when it is not recognized that a part of the two or more cubicle information to be processed in combination is abnormal, the alarm output condition is not satisfied and the alarm is not output.
When processing both cubicle information related to odor and cubicle information related to temperature in combination to detect damage (softening, melting, wire material exposure, etc.) of the covered wire of the wiring cord, a part of the wiring becomes hot, and that As a result, when the material covering the wiring cord is heated and melted, odor is usually generated. Therefore, when abnormal findings are found in both the cubicle information regarding odor and the cubicle information regarding temperature. Can be considered as an alarm condition that outputs an alarm.

As the alarm to be output, a method of outputting a warning message or the like on a monitor or the like displaying the measurement information so that it can be checked in real time for 24 hours, or a method of generating a warning sound by voice can be considered. The alarm is information that can identify the cubicle and, in principle, the cause. It is information that can identify the name of a part in the cubicle, the name of the device, the location of the failure, and the cause of the failure, which are the causes of the precursor of the failure in advance by combining a plurality of information included in the cubicle information. The alarm may be configured to be uttered to the person in charge by an automatic voice telephone from the alarm output device, or may be configured to be transmitted by e-mail or the like. In this case, a database about the electric manager of the cubicle is prepared, and the cause of failure and the cubicle and the electric manager are associated and maintained. Therefore, when the cubicle and the cause of the failure are identified, it is preferable that the electric manager is identified and automatically notified to that effect. If the response from the electric manager cannot be received within a predetermined time, it is preferable that a spare electric manager is selected and an alarm is transmitted. Further, depending on the type of alarm, a remote control signal for stopping the cubicle portion may be automatically issued. Further, if there is a spare mechanism, it may be configured to emit a remote control signal for operating the spare mechanism in accordance with the spare mechanism. Furthermore, it can be configured to send an alarm to the consumer receiving electricity from the cubicle to notify the consumer. By doing so, it is possible to curb the power consumption of consumers, and in some cases, to encourage actions such as suspension of operations and evacuation. When fire extinguishing work is required, it is preferable to arrange and drive a fire extinguishing agent spraying device that remotely sprays the fire extinguishing agent in the cubicle and a noncombustible gas discharging device that discharges noncombustible gas.

<Embodiment 1 Hardware Configuration>
<Premise of explaining the invention of the hardware configuration and operation program of the cubicle automatic security inspection system>
Regarding the meanings of the terms used in the invention of the cubicle automatic security inspection system operation program described below, the meanings of the terms already explained have the same meanings unless they are intended to be used in a different meaning. Must be understood as a word. For example, the term "... part" previously described is described as "... program" or "... step" in the explanation of the cubicle automatic security inspection system operation program, but its function is What was described as a function performed by "... part" in the previous explanation must be interpreted as equivalent to what is realized by a program on a computer.

<Embodiment 1 Hardware Configuration: Cubicle Device>
FIG. 7 is a diagram showing an example of the hardware configuration of the sensing system and the computer system of the cubicle device in the present embodiment. As shown in the figure, the present invention can basically be configured by a programmable controller, a sequencer program thereof, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, a "sound collection program" for collecting sounds, a "sound information output program" for outputting the collected sound information to an alarm output device, and a "odor detection" for detecting odors. "Program", "Odor information output program" to output the detected odor information to the alarm output device, "Temperature sensor measurement program" to measure the temperature, "Temperature sensor measurement program" to output the measured temperature information to the alarm output device "Temperature information output program", "Internal image acquisition program" to acquire the image inside the cubicle, "Internal image information output program" to output the acquired internal image to the alarm output device, to output vibration information "Vibration acquisition program", "Vibration information output program" to output the acquired vibration information to the alarm output device, "Dust amount measurement program" to measure the amount of dust in the air as a measured value placed inside. , "Dust amount information output program" to output the measured dust amount information via the network, "Electrical value measurement program" to measure various electric related values in the cubicle as measured values, Measured An "electrical-related value information output program" for outputting electrical-related value information of electrical-related values via a network is held, and these programs are read into the main memory based on the execution instructions of a series of programs. Then, these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As for the data, sound information, odor information, temperature information, internal image information, vibration information, dust amount information, electrical-related value information, cubicle identification information, various setting information such as communication (not shown) are non-volatile as in the program. It is held in the sex memory, loaded in the main memory, referenced and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other.

<Embodiment 1 Hardware Configuration Alarm Output Device>
FIG. 8 is a diagram showing an example of the hardware configuration of the alarm output device according to the present embodiment.
<Hardware configuration>
The hardware configuration of the equipment operation plan support device in this embodiment will be described with reference to the figure.
As shown in this figure, a computer includes a chipset, a CPU, a non-volatile memory, a main memory, various buses, a BIOS, various interfaces, a real-time clock, and the like, which are configured on a motherboard. These work in conjunction with operating systems, device drivers, and various programs. The various programs and various data constituting the present invention are configured to efficiently utilize these hardware resources to execute various processes.
<Chipset>
A "chipset" is a set of large-scale integrated circuits (LSIs) mounted on the motherboard of a computer and integrated with a communication function between an external bus of a CPU and a standard bus for connecting memories and peripheral devices, that is, a bridge function. .. There are cases where a two-chipset configuration is adopted and cases where a one-chipset configuration is adopted. A north bridge is provided on the side close to the CPU and main memory, and a south bridge is provided on the side of the interface with a relatively low-speed external I / O on the far side.
(North Bridge)
The north bridge includes a CPU interface, a memory controller, and a graphic interface. The CPU may be responsible for most of the functions of the conventional northbridge. The north bridge is connected to the memory slot of the main memory via a memory bus, and is connected to the graphic card slot of the graphic card by a high-speed graphic bus (AGP, PCI Express).
(Southbridge)
The south bridge is connected to a PCI interface (PCI slot) via a PCI bus, and is responsible for I / O functions and sound functions with an ATA (SATA) interface, a USB interface, an Ethernet interface, and the like. Incorporating circuits that support PS / 2 ports, floppy disk drives, serial ports, parallel ports, and ISA buses that do not require or do not require high-speed operation will hinder the speeding up of the chipset itself. Therefore, it may be separated from the chip of the south bridge and assigned to another LSI called a super I / O chip. A bus is used to connect the CPU (MPU) with peripheral devices and various control units. The buses are connected by a chipset. The memory bus used for connection with the main memory may adopt a channel structure instead of the memory bus in order to increase the speed. As the bus, a serial bus or a parallel bus can be adopted. In the parallel bus, while the serial bus transfers data bit by bit, the original data itself or a plurality of bits cut out from the original data are grouped together and transmitted over a plurality of communication paths at the same time. A dedicated clock signal line is provided in parallel with the data line to synchronize data demodulation on the receiving side. It is also used as a bus that connects a CPU (chipset) and an external device, and includes GPIB, IDE / (parallel) ATA, SCSI, and PCI. Since there is a limit to the speedup, the data line may be a serial bus in the improved version of PCI Express or the improved serial ATA of parallel ATA.
<CPU>
The CPU reads, interprets, and executes instruction sequences called programs in the main memory in order, and outputs information consisting of signals to the main memory as well. The CPU functions as a center for performing calculations in the computer. The CPU is composed of a CPU core part that is the center of calculation and a peripheral part thereof, and has a register and a cache memory inside the CPU, an internal bus that connects the cache memory and the CPU core, a DMA controller, a timer, and a north bridge. The interface with the connection bus with is included. A plurality of CPU cores may be provided in one CPU (chip). Further, in addition to the CPU, processing may be performed by a graphic interface (GPU) or an FPU.
<Non-volatile memory>
(HDD)
The basic structure of a hard disk drive consists of a magnetic disk, a magnetic head, and an arm on which the magnetic head is mounted. The external interface can adopt SATA (ATA in the past). A sophisticated controller, such as SCSI, is used to support communication between hard disk drives. For example, when copying a file to another hard disk drive, the controller can read the sector and transfer it to another hard disk drive for writing. At this time, the memory of the host CPU is not accessed. Therefore, it is not necessary to increase the load on the CPU.
<Main memory>
The CPU directly accesses and executes various programs on the main memory. The main memory is a volatile memory and DRAM is used. The program on the main memory is expanded from the non-volatile memory onto the main memory in response to the program start command. After that, the CPU executes the program according to various execution instructions and execution procedures in the program.
<Operating system (OS)>
The operating system is used to manage the resources on the computer for the application to use, to manage various device drivers, and to manage the computer itself, which is the hardware. Small computers may use firmware as an operating system.
<BIOS>
The BIOS is the one that causes the CPU to execute the procedure for starting up the hardware of the computer and operating the operating system, and most typically, the hardware that the CPU first reads when receiving the start command of the computer. .. Here, the address of the operating system stored in the disk (nonvolatile memory) is described, and the operating system is sequentially expanded to the main memory by the BIOS expanded in the CPU and put into an operating state. The BIOS also has a check function for checking the presence or absence of various devices connected to the bus. The result of the check is saved in the main memory and made available by the operating system as appropriate. The BIOS may be configured to check an external device or the like.

The above is the same for other embodiments.

As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "cubicle information acquisition program" for acquiring the information acquired from each detection unit output from the cubicle, and the information acquired by each unit included in the acquired cubicle information is retained as a history. "History information retention program" for, "Alarm condition retention program" for retaining alarm conditions to distinguish whether to output alarms, "Alarm output program" for outputting alarms when alarm conditions are met , And are retained, these programs are read into the main memory based on the execution instructions of a series of programs, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, various setting information such as communication (not shown), etc. are held in the non-volatile memory and loaded into the main memory as in the case of the program, and a series of programs are used. It is referred to and used at the time of execution. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Embodiment 1 Processing Flow>
Since the cubicle automatic security system of the present embodiment can perform a security check for 24 hours, the process flow shown in FIG. 9 is constantly repeated. As shown in FIG. 9, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then outputs the odor information. It can be configured to perform steps. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the alarm output condition is applicable, the alarm output step is continued, and if the alarm output is necessary, the alarm is output. After the alarm is output, a step to confirm whether to shut down the system is executed, but since the automatic security check system constantly checks the safety for 24 hours, it may return to the start without shutting down. Mostly.

<Embodiment 2: Mainly corresponding to claim 2>
<Outline of Embodiment 2>
The invention of the second embodiment is characterized in that the alarm output condition is updated from the alarm history information in the first embodiment and the event generated after the alarm is output.

<Structure of Embodiment 2>
FIG. 10 is a diagram showing an example of the configuration of the invention according to the second embodiment. As shown in the figure, the alarm output device (1000) of the cubicle automatic safety inspection system of the present embodiment includes a cubicle history information acquisition unit (1001), a history information holding unit (1002), an alarm condition holding unit (1003), and an alarm condition holding unit (1003). It has an alarm output unit (1004), an event information acquisition unit (1005), and an alarm condition update unit (1006). In the present embodiment, the description of the configuration common to the first embodiment will be omitted, and only the configuration peculiar to the present embodiment will be described.

<Explanation of Embodiment 2 Configuration>
<Explanation of the second embodiment: event information acquisition unit>
The "event information acquisition unit" acquires event information, which is information indicating an event actually occurring in the cubicle in relation to the output alarm. The event information is not the true appearance of the event reported by the alarm (confirmed event at the site), the information of the event that changed after the alarm occurred, or the event itself reported by the alarm, but the event information. It is an event that was the trigger.
For the output alarm, event information is acquired, which is information indicating whether the event reported by the alarm was correct or inaccurate, and if it was inaccurate, to what extent. Therefore, the event information indicates an abnormal state occurring in the cubicle based on each cubicle information, and may be qualitative information or quantitative information. If an event similar to or related to the event reported by the alarm has occurred, then the alarm condition was appropriate.
If the reported content of the output alarm is different or similar but not itself, or if no reported event occurs, the alarm condition is incorrect.

The erroneous condition means that the state of the cubicle was different from the assumed state woven in by the alarm condition at the stage when the alarm was output under the alarm condition. Therefore, the value that triggers the alarm output, which was set based on the single or combination of the cubicle information acquired at the time of outputting the alarm and / and up to the alarm output, was too loose as a condition (the value is large). It means that it was too tight (too small) or, conversely, it was too tight (the value was too small). Or, it means that it was not properly associated with the abnormality in the cubicle assumed based on the combination of cubicle information.
The degree of abnormality in the cubicle is specifically the degree of corrosion, the degree of overheating, the degree of rusting, the degree of deformation, the degree of looseness, the mounting state, the degree of looseness, the degree of damage, the degree of connection, the degree of loosening of the wire height, and others. It is a degree indicating the degree of separation from and the like.
For example, the person in charge at the site may be made to score and report each equipment or part of the equipment, for example, the state where there is no problem is 0 points and the worst state is 10 points. Also, as a qualitative report rather than a score, for example, if the degree of corrosion is, no corrosion is seen, there is a sign of corrosion, there is slight corrosion, there is partial corrosion, and more than half of the whole has corrosion. Almost all of them are corroded, the degree of corrosion progresses rapidly, and they are on the verge of collapse due to corrosion. These may be processed as text by the computer of the alarm output device, or may be scored and processed.

Alternatively, a dedicated inspection device for measuring these may be brought to the cubicle and compared with the actual alarm contents. For example, an ultrasonic flaw detector may be used to quantify "corrosion, rust, looseness, stains, cracks" and the like. Further, an X-ray inspection device may be used to acquire an image of "corrosion, rust, looseness, stain, crack" and the like, and this may be quantified. Image analysis may be used for quantification. In addition, the degree of damage and the type of damage are determined using a dedicated device that measures the degree of damage to the equipment inside the cubicle, such as cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, and insulators. It may be configured to acquire based on a numerical value or a type. In the case of a transformer, the degree of oxidation of insulating oil, the degree of contamination of impurities, the amount of mechanical deformation of the internal structure, etc. can be obtained. In the case of a cable, the damaged area of the covered wire, the damaged depth of the covered wire, the damaged volume of the covered wire, the damaged amount of the core wire and the sheath, and the burnt amount may be quantified. In the case of a capacitor, the measurement of the amount of mechanical deformation, the dielectric breakdown area of the insulator, the dielectric breakdown volume, the color of charring, and the like may be quantified. In the case of, the amount of mechanical deformation, the burnt area, the amount of destruction of the coating, etc. may be quantified. In the case of a circuit breaker, a disconnector, and a fuse, the amount of mechanical deformation, the burnt area, and the like may be quantified. In the case of a metamorphic device, the amount of mechanical deformation, the amount of burnt, the burnt area, the broken area of the coating, and the like may be quantified. In the case of insulators, the amount of mechanical defects, the burnt area, the adhered area of molten metal, and the like may be quantified. These numerical values are compared with the numerical values assumed in the alarm conditions used in the alarm output device, and the alarm conditions are corrected based on the numerical values actually measured in the field. This correction is automatically performed by the alarm condition update unit. The alarm condition update unit corrects the alarm condition based on the numerical value of the abnormality expected in the alarm condition and the difference value at the actual site (including the case of correcting to the value expected at the time of alarm output). To increase or decrease the constants that make up the alarm condition and the cubicle information used to issue the alarm.

In order to make the above judgment, the event information acquisition unit acquires information indicating an event that has occurred after the alarm. This information is acquired by the person in charge who actually goes to the cubicle related to the alarm, inspects the site, and recovers from the failure, and transmits the event information to the alarm output device from the person in charge's mobile terminal or the like. The mobile terminal of the person in charge may be equipped with a dedicated application for reporting on-site events to the alarm output device. Alternatively, it may be a dedicated terminal. The terminal has a temperature sensor function, a wear measurement function such as coating, a measurement function such as insulating oil, a current / voltage measurement function, a distance measurement function, a vibration measurement function, a sound measurement function, an odor measurement function, a sound measurement function, and dust measurement. It is preferable that any one or more of a function, an image acquisition function, a gas type detection function, a plastic type detection function, and an area measurement function such as a burnt part and a leaked part are provided. Alternatively, such a measuring instrument may be connected externally and configured so that it can be operated and measured by software in the mobile terminal. The mobile terminal is generally a smartphone, but is not limited to this.

In addition, the event information transmission function prepares a pull-down menu for event reporting in order to avoid the complexity of work in the field, and it is possible to grasp the event just by following the instructions of the dedicated application in order. It may be possible to report on-site events to the alarm output device. Of course, it is preferable that there is a text input screen so that the input text can also be transmitted. It is preferable that the text information is interpreted by the syntax analysis and semantic analysis functions of the alarm output device and converted into standard information as event information and acquired. Furthermore, the person in charge who went to the site calls the call center that has jurisdiction over the alarm output device and verbally reports the current situation while seeking instructions from the call center expert, and the call center expert reports the person in charge. Based on this, the event information may be input to the alarm output device.

<Explanation of Configuration 2: Alarm Condition Update Unit>
The "alarm condition update unit" updates the alarm condition based on the acquired event information and the history information of the cubicle information leading up to the occurrence of the event. The acquired event information is, for example, under the existing alarm condition, the content of the alarm is "damage to the insulating oil exchange port of the transformer of cubicle No. TC1034. The current cutoff is between 24 hours and 48 hours. However, when the current situation was actually grasped at the site, there was a risk of current interruption between 12 hours and 24 hours later.
Further, it is preferable that the alarm output device of the cubicle automatic security inspection system is configured so that the corresponding "event information" is associated and held according to the content of the alarm. The alarm condition is updated based on the difference between the assumed event information and the actual event information, and the accuracy is improved. As described above, the "event information" associated with the alarm may be qualitative information or quantitative information. The event information associated with the alarm includes information indicating the degree of abnormality in the cubicle, specifically, as described above, the degree of corrosion, the degree of overheating, the degree of rusting, the degree of deformation, the degree of looseness, the mounting state, and the degree of looseness. , Degree of damage, degree of corrosion, degree of connection, looseness of wire height, degree of separation from other objects, etc. As described above, for example, the state where there is no problem is set to 0 points, the worst state is set to 10 points, etc., which are determined based on empirical rules and are held in association with the alarm. In addition, as a qualitative report rather than a score, for example, if the degree of corrosion is not seen at all, there is a sign of corrosion, there is slight corrosion, there is partial corrosion, and more than half of the whole has corrosion. It may be corroded almost entirely, the degree of corrosion progresses rapidly, or it may be on the verge of collapse due to corrosion. These may be processed as text by the computer of the alarm output device, or may be scored and processed. For example, "corrosion, rust, looseness, stains, cracks" acquired in the past using an ultrasonic flaw detector may be quantified. Further, an image of "corrosion, rust, looseness, stain, crack" or the like acquired in the past using an X-ray inspection device, or a quantified image thereof may be used. Image analysis may be used for quantification. In addition, the degree of damage and the type of damage are determined using a dedicated device that measures the degree of damage to the equipment inside the cubicle, such as cables, capacitors, transformers, circuit breakers, disconnectors, fuses, transformers, and insulators. It may be configured to keep what was acquired in the past based on a numerical value or a type in association with an alarm. In the case of a transformer, the degree of oxidation of insulating oil, the degree of contamination of impurities, the amount of mechanical deformation of the internal structure, etc. are associated with the alarm as information. In the case of a cable, the damaged area of the covered wire, the damaged depth of the covered wire, the damaged volume of the covered wire, the damaged amount of the core wire or the sheath, and the burnt amount may be quantified and held in association with the alarm. In the case of a capacitor, the measurement of the amount of mechanical deformation, the dielectric breakdown area of the insulator, the dielectric breakdown volume, the color of charring, and the like may be quantified. In the case of, the amount of mechanical deformation, the burnt area, the amount of destruction of the coating, etc. may be quantified and held in association with the alarm based on past experience values. In the case of circuit breakers, disconnectors, and fuses, the amount of mechanical deformation, burnt area, etc. may be quantified and held in association with the alarm. In the case of a metamorphic device, the amount of mechanical deformation, the amount of burnt, the burnt area, the broken area of the coating, etc. may be quantified and held in association with the alarm. In the case of insulators, the amount of mechanical defects, the burnt area, the adhered area of molten metal, etc. may be quantified and held in association with the alarm.

In order to make the above judgment, the event information acquisition unit acquires information indicating an event that has occurred after the alarm. This information is acquired by the person in charge who actually goes to the cubicle related to the alarm, inspects the site, and recovers from the failure, and transmits the event information to the alarm output device from the person in charge's mobile terminal or the like. The mobile terminal of the person in charge may be equipped with a dedicated application for reporting on-site events to the alarm output device. Alternatively, it may be a dedicated terminal. The terminal has a temperature sensor function, a wear measurement function such as coating, a measurement function such as insulating oil, a current / voltage measurement function, a distance measurement function, a vibration measurement function, a sound measurement function, an odor measurement function, a sound measurement function, and dust measurement. It is preferable that any one or more of a function, an image acquisition function, a gas type detection function, a plastic type detection function, and an area measurement function such as a burnt part and a leaked part are provided. Alternatively, such a measuring instrument may be connected externally and configured so that it can be operated and measured by software in the mobile terminal. The mobile terminal is generally a smartphone, but is not limited to this. If the event information associated with the alarm and held is qualitative, it may be represented, for example, in text. The text information is configured to acquire past text event information, interpret it by the parsing and semantic analysis functions of the alarm output device, and convert it into standard information as event information associated with the alarm. Is preferable.
FIG. 54 is a diagram showing a conceptual diagram of alarm condition update. The figure conceptually shows the cubicle information obtained from a specific cubicle, the recovery work, and the contents of the alarm. In the figure, the first triangle 5400a and the second triangle 5400b indicate the history information of the cubicle information of the current / voltage sensor and the sound sensor. In this example, an example of a cubicle automatic safety inspection system that predicts an abnormality of a transformer by the intensity 5400a of current / voltage A and the intensity 5400b of sound B as cubicle information is shown. The width direction of the first triangle (width parallel to the base) indicates the strength obtained from the current / voltage cubicle information, and the width direction of the second triangle in the figure (width parallel to the base). Indicates the sound intensity obtained from the cubicle information. It is expressed in proportion to the size in the width direction. The setting condition of the alarm is that when the intensity of the current / voltage A is a1 (5407) and the intensity of the sound is b1 (5409), the transformer can be cut off from the current between 24 hours and 48 hours. It was a condition to issue an alarm that there was sex. The horizontal axis is the time axis, and the content of the alarm issued at the time of the actual alarm is 5401a. There is sex. " After the alarm occurred 5401a, the person in charge rushed to the site to start the restoration work 5401b and the restoration work was completed 5401c, but when event information was collected from the situation at the site, the actual damage status of the transformer From this, we obtained event information that the possibility of current cutoff should be that there is a possibility of current cutoff between time 5305, which is δ hours ahead of time 24 hours later, and time 5306, which is 24 hours later. rice field. Therefore, when updating the alarm condition based on this event information, the current / voltage intensity of the alarm issuance and the sound intensity condition are changed from a1 (5407) to a2 (5408), respectively, based on the history information. , B1 (5409) to b2 (5410). That is, based on the information that "the alarm time should be advanced by δ hours" as the event information, the condition for issuing the alarm is "current / voltage intensity and the condition for sound intensity are a1 (5407) to a2 (5408), respectively. The result is that b1 (5409) is updated to b2 (5410) ". The cubicle automatic security check system is configured so that this process is performed by the event information acquisition unit and the alarm condition update unit. This is done based on the event information and the history information obtained by the processing of the computer.

Such an update is an update provided by event information that the damage was actually more advanced than planned for the existing alarm conditions. In such a case, it is necessary to reset the threshold value of the cubicle information for generating the alarm to the stricter side as described above. In another example from the above, in the case where the cubicle information detects the abnormality of the transformer by the product of the respective intensities of "current / voltage" and "sound", the degree of abnormality of "current / voltage" starts from 0. 5 out of 11 stages of 10; 5 in 11 stages of "sound" from 0 to 10; the output condition of the alarm is 25 when the product of both outputs an alarm, and the transformer assumed by the alarm is output. The situation is that if the transformer becomes overheated and leaks in large quantities between the next 24 hours and 48 hours, the transformer replacement port under this situation is actually assumed. The looseness was 7 out of 11 steps from 0 point with no problem to 10 points where the exchange port came off, but if it was 9 out of 11 steps in the actual confirmation, the value of 25 as an alarm condition is 25. It means that it was too big.

In other words, it was assumed that the worst situation when the lid was removed would occur after 36 hours as the assumed median, and it was assumed that the situation would progress from 7 to 10 out of 11 stages in 36 hours. It will be. In other words, the assumption of the progress speed that deteriorates by 1 point is 12 hours. However, when the product of cubicle information is 25, the degree of deterioration is 9, so the alarm condition must be updated in order to issue an alarm when the degree of deterioration is 7. As a characteristic of the transformer, it is known that the traveling speed per point from the degree of deterioration 1 is 12 hours (a deterioration rate database is provided for each equipment or each part of the equipment). On the other hand, looking at the product history of cubicle information, it is found that the rate of progress of the product value is approximately 0.5 points / day after the product value becomes larger than 0. Then, since the alarm must be output one day in advance, the alarm must be issued at the timing when the product of cubicle information is 0.5 points smaller. Therefore, where the product of cubicle information has been 25 as the alarm output condition in the past, it is appropriate to update the product value to 24.5 as a new alarm output condition. The alarm condition update unit, which is the computer of the alarm output device, executes these processes.

The above has described the case where an alarm is output based on the relationship between the product value of cubicle information and the threshold value, but the relationship between the cubicle information and the threshold value, that is, the alarm condition is not limited to the product, but may be a sum. , Mean value, time change rate of the value indicated by cubicle information, time acceleration, value indicated by each cubicle information falls within a predetermined range, and a predetermined value is used together. There are various possibilities such as exceeding the limit. Further, as described below, the value indicated by the cubicle information may be substituted into a predetermined function constituting the alarm condition, and the alarm may be output using the value of the function.
As an example, an increasing function F1 (cubicle value 1, cubicle value 2) = C that calculates a threshold value A (alarm condition is calculated value ≧ A) for determining whether to generate an alarm.
C: Regarding the output value of the function, when the alarm condition is C> A, the timing of the alarm actually output under this condition is late (the damage to the equipment in the cubicle is larger than expected). In such cases), it is necessary to replace it with an increasing function that is calculated at a faster timing.
for example,
Cubicle value 1> cubicle value 3, cubicle value 2> cubicle value 4
In the case of, the new increasing function is
F2 (cubicle value 3, cubicle value 4) = A
Update like. In this case, the increasing function used to determine whether the alarm condition is satisfied has been updated. It is said in the present application that the alarm conditions have been updated even in such a case.

Alternatively, the threshold value A may be updated without updating the increasing function. For example, a value B satisfying the condition B <A can be adopted as a threshold value instead of the conventional threshold value A. What kind of threshold B is suitable is the value obtained when two cubicle values are substituted into the increasing function F1 from the history of cubicle information, and the damage to the equipment actually obtained by checking the situation after the cubicle alarm. The time when it is determined that an appropriate alarm should have been output is estimated from the degree, etc., and the value is obtained from the increasing function F1 by substituting the two cubicle values of the time corresponding to that time. In this case, a newly updated threshold value B can be obtained by giving cubicle information (history) at the time when the alarm should be output to the alarm condition update unit.

The above explanation was given using a specific example in which the current cutoff occurs approximately 12 to 48 hours after the alarm is output, but the current cutoff occurs on a daily basis, such as between 2 days and 4 days. Various time units such as a notice of current cutoff on a weekly basis such as one week to two weeks later and a notice of current cutoff on a monthly basis such as one month to two months later can be adopted.
Further, as the event information, the above-mentioned explanation is made using the site information from the viewpoint of correcting the time length until the current cutoff, but the situation of the current cutoff actually generated may be adopted as the event information. In this case, the time difference between the current cutoff time announced by the alarm and the actually generated current cutoff time becomes important event information, and the alarm condition is updated.

The alarm condition may be updated for each cubicle identified by the cubicle identification information so that factors specific to the cubicle that outputs the alarm can be reflected. Alternatively, the relationship between the alarm condition of the entire cubicle and the event information may be statistically processed, and the alarm condition may be updated uniformly or with the same degree of influence for the entire cubicle. That is, the alarm condition may be updated for each cubicle using the cubicle identification information, and the alarm condition may be configured to be updated uniformly for each cubicle in two ways. The following factors can be considered as factors peculiar to cubicles. (1) Elapsed period after the start of operation of the equipment, (2) Installation location, along the sea, along the river, high altitude, along the wetland, high and low average temperature, (3) Elapsed time after maintenance of the equipment, cubicle Elapsed time after maintenance, (4) magnitude and frequency of harmonics received by the cubicle, (5) attributes of factory equipment downstream of the cubicle, use of liquid along the electric current, operating time such as 24-hour operation, equipment Environmental temperature during operation, humidity around equipment, frequency of repeated operation and stop of equipment, (6) vertical pattern of power consumption of equipment, (7) situation of factories around cubicle, for example, power consumption pattern of peripheral factories, (8) Is an aerial switch with an overcurrent lock function provided on the upstream side of the cubicle, or is an aerial switch without an overcurrent lock function provided instead? (9) Inside the cubicle Whether only three-phase alternating current is processed, single-phase alternating current is also processed, or only single-phase alternating current is processed downstream from the contact point with the drop line, three-phase alternating current, single-phase What kind of AC combination is 1: 1, 1: multiple, multiple: 1, multiple: multiple, (10) Is there a monitoring system for insulation deterioration? Monitors the leakage current flowing through the class B ground wire. What kind of relationship is there between (11) the frequency of appearance of wild animals and insects at the cubicle installation site, the type of appearance, and (12) the connection of the transformer for distributing power to the downstream side? Or Delta vs. Delta Delta vs. Star Star vs. Star Star vs. Delta, and so on.

<Embodiment 2 Hardware Configuration>
<Embodiment 2 Hardware Configuration: Cubicle Device>
Since the most basic hardware configuration of the cubicle device in the present embodiment is common to the hardware configuration of the first embodiment, the description thereof will be omitted in the present embodiment.

<Embodiment 2 Hardware Configuration: Alarm Output Device>
FIG. 11 is an example of the most basic hardware configuration of the alarm output device of the second embodiment. As shown in the figure, "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", information indicating the event that actually occurred in the cubicle based on the output alarm. An "event information acquisition program" that acquires event information, and an "alarm condition update program" that updates alarm conditions based on the acquired event information and history information leading up to the occurrence of the event are retained. These programs are read into the main memory based on the execution instruction of a series of programs, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, event information, history information, various setting information such as communication (not shown) are held in the non-volatile memory as in the program, and are stored in the main memory. It is loaded and referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The program having the same function as that of claim 1 is omitted, and only the program characteristic of the present embodiment is described.

<Phase 2 Processing Flow>
FIG. 12 is a flow chart showing an example of the processing flow of the automatic security inspection system according to the second embodiment. As shown in FIG. 12, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then outputs the odor information. It can be configured to perform steps. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the match with the alarm condition is found, the step to output the alarm is executed. After the execution of the alarm output step, the event information acquisition presence / absence judgment step for determining whether or not the event information is acquired is executed, and in the case of the determination result that the acquisition is present, the information indicating the event actually occurring in the cubicle is executed. The event information acquisition step for acquiring the event information is executed. An alarm condition update presence / absence determination step is executed, which determines whether or not the alarm condition needs to be updated based on the event information acquired in the event information step and the history information leading up to the occurrence of the event. If the judgment result in the alarm condition update presence / absence judgment step is the judgment result that the alarm condition needs to be updated, the alarm condition update step for updating the alarm condition is executed. After the alarm condition update step, a step to determine whether to shut down the system is executed, but since the automatic security check system constantly checks the safety 24 hours a day, the system does not shut down in most cases. In addition, after the above-mentioned various steps are completed, the information acquisition by each unit will be returned again. In addition, the alarm advance notice output rule is updated from the alarm history which is the history of outputting the advance notice alarm and the alarm history held in the history information holding unit.

<Embodiment 3: Mainly corresponding to claim 3>
<Outline of Embodiment 3>
The artificial intelligence type alarm warning device of the third embodiment is based on the first embodiment or the second embodiment, and the alarm output device includes a history information acquisition unit, an alarm notification output rule holding unit, an alarm history information acquisition unit, and an alarm advancement. It is a cubicle automatic security inspection system that further has an output rule update unit and an alarm warning output unit. The parts described in the first embodiment or the second embodiment will be omitted, and the parts peculiar to the present embodiment will be described.

<Structure of Embodiment 3>
FIG. 13 is an example of a functional block diagram showing an example of the configuration of the alarm output device according to the third embodiment. As shown in the figure, the alarm output device (1300) of the present embodiment has a cubicle history information acquisition unit (1301), a history information holding unit (1302), an alarm condition holding unit (1303), and an alarm output unit (1304). , History information acquisition unit (1305), alarm advance notice output rule holding unit (1306), alarm history information acquisition unit (1307), alarm advance notice output rule update unit (1308), and alarm advance notice output unit (1309). Hereinafter, the description of the configuration common to the first embodiment or the second embodiment will be omitted, and only the configuration peculiar to the present embodiment will be described.

<Explanation of Embodiment 3 Configuration>
<Explanation of Configuration in Embodiment 3 History Information Acquisition Unit>
The "history information acquisition unit" acquires history information. The history information in this case is the time-lapse of cubicle information such as detection information, measurement information, measurement information, and acquisition information from each unit before the alarm is issued, and is constantly acquired from each cubicle and accumulated as a history. It will be done. Naturally, it is associated with the cubicle identification information. The alarm notice that gives a notice before the alarm is issued is output when the history information satisfies the condition of the alarm notice output rule.

<Explanation of Configuration 3 Alarm Notice Output Rule Holding Unit>
The "alarm notice output rule holding unit" holds an alarm notice output rule that outputs an alarm notice based on the acquired history information. This rule may be something like an increasing function or may consist of data, regardless of the form of the rule. Basically, the timing for issuing an alarm is calculated based on the history information, and the stage at which the alarm is issued a predetermined time earlier than the assumed alarm issuance time is the output timing of the alarm notice. The alarm advance notice output rule is a rule for calculating whether or not the time from the history information to the assumed alarm issuance timing has reached a predetermined time.
This rule may be the same for all cubicles or may be unique for each cubicle. The history information is unique to each cubicle (because the position of the sensor placed in the cubicle, the sensitivity of the sensor, and the geographical situation are related), so the decision to give an alarm notice is also unique to each cubicle. There are merits. For example, in the initial stage of introduction of this system, a typical rule can be adopted and updated so as to be optimized for each cubicle according to each alarm history information. Typical rules may be prepared according to the type of cubicle, and updated and optimized according to the individuality of each cubicle.

<Explanation of Configuration 3 Alarm History Information Acquisition Unit>
The "alarm history information acquisition unit" acquires alarm history information, which is history information of the output alarm and cubicle information up to the alarm. The alarm history information is information used for updating the alarm advance notice output rule so as to be optimized for each cubicle. The information acquired by the alarm history information acquisition unit is composed of information indicating the type of output alarm (whether it is a warning alarm or an alarm) and history information of cubicle information up to the time when the alarm is issued. ..
The alarm advance notice output rule is updated depending on whether the time from the alarm advance notice to the actual alarm output coincides with the foretold time, whether it is early or late. That is, if the time until the alarm is output is approximately the same as the time for which the alarm has been announced, the content of the alarm advance notice output is accurate and the alarm advance notice output rule does not need to be updated. If the time until the alarm is output is earlier than the announced time, the content of the alarm advance notice output is incorrect, and the alarm advance notice output rule is updated by giving an alarm advance notice at an earlier timing or by giving an alarm advance notice. Update whether to shorten the estimated time until the alarm announced as the content is output. If the time until the alarm is output is later than the announced time, the content of the alarm advance notice output is incorrect, and the alarm advance notice output rule is updated by giving an alarm advance notice at a later timing or by giving an alarm advance notice. Update whether to lengthen the estimated time until the alarm announced as the content is output.

<Explanation of Configuration 3 Alarm Notice Output Rule Update Unit>
The "alarm notice output rule update unit" optimally updates the alarm notice output rule for the cubicle. It is a part having a so-called artificial intelligence function or an artificial intelligence function. The point that the alarm notice output rule is improved by this update is that the alarm notice can be reliably output at a certain time earlier than the assumed main alarm timing by increasing the calculation accuracy of the assumed main alarm timing. By increasing the accuracy of the alarm notice, it becomes possible to prepare for the planned cutoff and to make a maintenance plan in preparation for the output of the alarm.

FIG. 54 is a diagram conceptually showing the update of the alarm advance notice output rule. The vertical axis is an axis that quantifies the degree of malfunction (damage, stain, etc.) of the equipment in the cubicle obtained from the cubicle information, and the horizontal axis is the time axis. No dysfunction was observed at time 0, but it shows that the dysfunction gradually increases with the passage of time thereafter. The output stage (5401) in which the degree of dysfunction reaches a predetermined stage and an alarm is output is a constant value X (5402). As for the output of the alarm notice, the alarm notice is output at the time point (5404) before the fixed time a1 of the alarm output time point A1 (5403).
Assuming that the relationship representing the degree of dysfunction according to the elapsed time of the alarm output timing A1 is expressed as an increasing function F (α) (5407) based on the cubicle information, the elapsed time at which the value becomes the threshold value X. It is expressed as.
Therefore, if an attempt is made to output an alarm notice before a predetermined time a1 (for example, 48 hours) before the elapsed time when the alarm is output, the time point 5404 is the output timing of the alarm notice according to the increasing function F (α).
However, when the alarm is actually output at A2 (5405) at an earlier stage than A1, it means that the output timing of the alarm notice should have been at an earlier stage. That is, the actual alarm advance notice output timing should have been the time point (5406) before the fixed time a2 (for example, 48 hours) of the actual alarm output timing A2 (5405). That is, it is considered that the function for the elapsed time of the equipment malfunction degree grasped based on the cubicle information was F (β). Therefore, using the new increasing function F (β), the degree of dysfunction before a2 (for example, 48 hours) from the time when the alarm is actually issued is set as a value indicating the degree of dysfunction for which the alarm advance notice output should be output. The increasing function F (α) that predicts the correlation between the elapsed time and the degree of dysfunction is changed to F (β), and the value indicating the degree of dysfunction for alarm warning is changed from Y1 to Y2. Rewriting this increasing function and rewriting the value indicating the degree of malfunction for which the alarm warning should be issued correspond to the update of the alarm warning output rule.

As the increasing function, for example, it is conceivable to show the correlation between the deterioration state and the time until the output of this alarm by multiplying the numerical value of the cubicle information and the coefficient indicating the deterioration rate. If the predicted time point of this alarm output and the actual output time point of this alarm, which are derived from the increase function used for the alarm advance notice output, are different, the coefficient indicating the deterioration rate is one with the actual deterioration rate. Since it was not done, the alarm warning output rule can be updated by changing the coefficient indicating the deterioration rate.

As described above, since the alarm advance notice output rule may be unique to the cubicle, the update of the alarm advance notice output rule can also be unique to each cubicle. In addition, the tendency of the entire cubicle and the tendency peculiar to the cubicle may be mixed and updated. In this case, it may be weighted as to which tendency is adopted more heavily. For example, the weight of the overall tendency may be 3 to 5, while the weight based on the unique cubicle tendency may be 5 to 7.

<Explanation of Configuration of Embodiment 3 Alarm Notice Output Unit>
The "alarm notice output unit" outputs an alarm notice based on the acquired history information and the held alarm notice output rule.
"Alarm notice" means a notice of the alarm to be output next. The alarm notice to be output next preferably includes at least the content of the alarm to be output next and the type of the alarm, and preferably includes information indicating the timing of the alarm to be output next. The timing may be indicated by the elapsed time from the time when the alarm advance notice output is performed, or may indicate the calendar timing by the date or, in addition to this, the time information. In addition, the output form of the alarm to be output next (email notification, telephone (either fixed or mobile) notification, direct speaker output, ringing of the bell, display display of a personal computer, etc., notification target Person, a combination thereof, etc.) may be included.
As described above, it is preferable that the alarm notice includes various information rather than a mere alarm. The cause, location, estimated date and time when the alarm occurred, equipment and materials required for maintenance, access route to the cubicle, date and time suitable for going to the cubicle (that is, it coincides with the output timing of this alarm), and the like. The alarm advance notice output may also have a schedule adjustment function for the cubicle administrator or the person in charge, so that preparations for maintenance at the time of issuing this alarm can be planned based on the schedule database. Can be considered.

When outputting the alarm notice, simply "There is a damage to the insulating oil replacement port of the transformer of cubicle No. TC1034. This alarm will occur one month later and one week later. The content of the alarm is" This year. The power will be cut off in the middle of October. " In addition to issuing a warning with the text, it is configured to display using a map or drawing which equipment in the cubicle has an abnormality and in which part of the equipment the abnormality has occurred. , It is also possible to include information that anticipates the content of this alarm. By doing so, it is possible to save the trouble of finding a place and making a mistake in finding the relevant part.

<Embodiment 3 Hardware Configuration>
<Embodiment 3 Hardware Configuration: Cubicle Device>
An example of the most basic hardware configuration of the cubicle of the third embodiment is common to the hardware configuration of the first embodiment shown in FIG. 7. Therefore, the description thereof will be omitted in this embodiment.

<Embodiment 3 Hardware Configuration: Alarm Output Device>
FIG. 14 is an example of the most basic hardware configuration of the alarm output device of the third embodiment. As shown in the figure, "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", "history information" for acquiring history information held by the history information retention unit. "Acquisition program", "Alarm advance notice output rule holding program" for holding an alarm advance notice output rule that outputs an alarm notice based on the acquired history information, and an alarm history that is the history information leading to the output alarm and the alarm. "Alarm history information acquisition program" for acquiring information, "Alarm advance notice output rule update program" for updating the alarm advance notice output rule held based on the acquired alarm history information, acquired history information and An "alarm notice output program" for outputting an alarm notice based on the held alarm notice output rule is held, and these programs are stored in the main memory based on the execution instructions of a series of programs. It is read and these programs are executed based on the operation start command. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As for the data, as in the program, various types of data such as cubicle information, cubicle identification information, alarm conditions, alarm output information, alarm advance notice output rule, alarm history information, alarm advance notice output information, update alarm advance notice output rule, and communication (not shown) are used. Setting information and the like are held in the non-volatile memory, loaded into the main memory, and referred to and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The program having the same function as that of claim 1 is omitted, and only the program characteristic of the present embodiment is described.

<Example 3 Processing flow>
FIG. 15 is a flow chart showing an example of the processing flow of the automatic security inspection system according to the third embodiment. As shown in FIG. 15, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then outputs the odor information. It can be configured to perform steps. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. After the cubicle information acquisition step, a history information retention step is executed in which the acquired cubicle information is associated with the cubicle, accumulated, and recorded and retained. After the history information retention step, the history information acquisition step for acquiring the retained history information is executed. After executing the history information acquisition step, the alarm advance notice output rule applicable determination step for determining whether or not the alarm advance notice output rule is applicable is executed based on the combination of cubicle information of different origins constituting the acquired history information. .. If the judgment result in the alarm advance notice output rule applicability determination step is not applicable to the alarm advance notice output rule, the alarm advance notice output is not output and the cubicle information acquisition step is executed again. If the judgment result in the alarm advance notice output rule applicability determination step is that the alarm advance notice output rule is applicable, the alarm advance notice output is executed. After the alarm advance notice output is executed, an alarm condition match presence / absence determination step is executed, which determines whether or not the alarm condition is met based on the combination of cubicle information of different origins constituting the history information. If the judgment result in the alarm condition conformity determination step is no alarm condition conformity, the alarm is not output and the alarm condition conformity determination step is repeated. If the judgment result in the alarm condition matching presence / absence judgment step is the judgment result that the alarm condition is applicable, the alarm output step for outputting the alarm is executed. After executing the alarm output step, the alarm history information acquisition step for acquiring the output alarm and the alarm history information which is the history information leading to the alarm is executed. After executing the alarm history information acquisition step, the alarm advance notice output rule update presence / absence determination step for determining whether it is necessary to update the alarm advance notice output rule held based on the acquired alarm history information is executed. If the judgment result in the alarm notice output rule update presence / absence judgment step is the judgment result that the alarm notice output rule is not updated, it is judged whether to terminate the system without executing the alarm notice output rule update step. Go to the step. If the judgment result in the alarm notice output rule update presence / absence judgment step is the judgment result that the alarm notice output rule needs to be updated, the alarm notice output rule update step for updating the alarm notice output rule is executed. .. After executing the alarm warning output rule update step, the step of determining whether to terminate the system is executed, but since the automatic security inspection system constantly performs security inspections for 24 hours, the system is terminated in most cases. Without doing so, after the above various steps are completed, the information acquisition by each unit will be returned again. In addition, the alarm advance notice output rule is updated from the alarm history which is the history of outputting the advance notice alarm and the alarm history held in the history information holding unit.

<Embodiment 4: Mainly corresponding to claim 4>
<Outline of Embodiment 4>
The invention in the present embodiment analyzes the safety level of the cubicle based on historical information in addition to the features of the invention described in any one of the first to third embodiments, and provides information on the safety level as a result of the analysis. Is characterized by outputting.

<Structure of Embodiment 4 Invention>
<Construction of Embodiment 4 Invention: Cubicle device>
Since the most basic configuration of the cubicle device in the present embodiment is common to the configuration of the cubicle device of the first embodiment shown in FIG. 4, the description thereof will be omitted in the present embodiment.

<Structure of the Fourth Invention: Alarm Output Device>
FIG. 16 is a diagram showing an example of the most basic configuration of the alarm output device according to the present embodiment. As shown in FIG. 16, the alarm output device (1600) in the present embodiment includes a cubicle information acquisition unit (1601), a history information holding unit (1602), an alarm condition holding unit (1603), and an alarm output unit (1604). It consists of an analysis rule holding unit (1605) and a safety level information output unit (1606). Hereinafter, the description of the configuration common to any one of the first to third embodiments will be omitted, and only the configuration characteristic of the present embodiment will be described.

<Embodiment 4 Safety Level>
The "safety level" is information indicating the probability, degree, and the like that the cubicle causes or does not cause a functional defect. It can be expressed as a percentage (for example, a dysfunction occurrence probability within 10 days 0.1%), a fraction (for example, a dysfunction occurrence probability within 10 days 1/1000), or a decimal (for example, a dysfunction occurrence probability within 10 days) 0. Expressed in 001) or in ratings (eg, dysfunction occurrence probability AAA), qualitative sentences (eg, dysfunction occurrence probability is almost negligible within 10 days) and characters (eg, function) It is expressed by a symbol (for example, a probability of failure occurrence within 10 days ★★★) or the like (minimum probability of failure occurrence within 10 days).
Generally, an alarm detects a danger and gives a warning, but safety information can be constantly calculated and presented regardless of the presence or absence of the danger. For example, it is information that the probability that a cubicle will generate a functional defect within the next hour is "0.1%". Actually, if the probability that it will occur within the next hour is "0.1%", no alarm will be output, but by telling the administrator of the cubicle as information, the administrator can feel at ease in daily work. Can be done. That is, the invention of the present embodiment exerts the effect of not being scared of anxiety about when the alarm will come.

<Explanation of Embodiment 4 Configuration>
<Embodiment 4 Analysis Rule Holding Unit>
The "analysis rule holding unit" holds analysis rules for analyzing the safety level of the cubicle based on the held history information. The risk of malfunction is the history information recognized when an accident occurred in the past, the history information when an alarm was output in the past, and the event information associated with these (pre-stage of malfunction). Each detection unit (sound, odor) included in multiple cubicle information and event information that is composed of information consisting of the state of , Temperature, internal image, vibration, dust, electrical related, etc.) Detection information value, wavelength, shape, frequency, size, process, increase rate, decrease rate, pattern, corrosion of equipment in cubicle, Damage, offensive odor, overheating, reflection, damage, operation display, rusting, deformation, looseness, operation condition, mechanism condition, ground wire connection condition, wire mounting condition, looseness degree, corrosion, crack, cable mounting condition , Chip, crack, corrosion, vibration, leakage, offensive odor, disconnection, leakage current condition, insulation condition, locked condition, key condition, dust and dust condition, paint condition, switch malfunction condition, refueling It is calculated using a model in which a plurality of elements such as event information such as a state and a peeling state of a paint are characterized over time in N dimensions (N is the number of types of cubicle information to be acquired). That is, one event information (an event that is normal and has no problem, an event that is judged to be abnormal and has a problem, or an event that causes a malfunction) is associated with N pieces of cubicle information on the time axis with probability. Has been done. By comparing this model with the information of N cubicles obtained from the cubicles during normal operation, it is possible to calculate the probability that the cubicles during normal operation will fall into an event such as malfunction. If cubicle information similar to the extracted features is obtained at a certain point in time, the future prediction of the cubicle indicated by the subsequent feature-extracted cubicle information can also be obtained. The probability of a malfunction of this feature-extracted cubicle is the total time of the cubicle that has been statistically processed and modeled (eg, the time from the start of use of the cubicle to the arrival of the designed lifetime). It has been calculated over. For example, if the cubicle information obtained from the cubicle during normal operation is approximated by the feature-extracted cubicle information in N dimensions, the cubicle that is assumed to have obtained the feature-extracted cubicle information (actually, it is assumed to be fictitious by statistical processing). Since the probability that the cubicle is dysfunctional in the future (including the present time) is calculated, it is possible to know the dysfunction probability of the cubicle during normal operation.

Ideally, artificial intelligence (AI) is used to determine N-dimensional approximation for safety analysis. Since the cubicle to which this system is applied has a wide variety of operating characteristics depending on how it is used, it is appropriate to reflect the individual disparity of each machine only by inputting the pre-learning information given in advance by humans. It is not possible to perform an analogical analysis. Therefore, by introducing an artificial intelligence self-learning system (so-called "deep learning"), elements that are difficult to appear in simple numerical values, such as machine-specific habits and season-specific habits, such as experienced engineers. It is possible to incorporate even into the judgment element of closeness.

For example, when the safety level is displayed by 100% display, 0% indicates no risk and the safest state, and 100% indicates the highest risk and safety is not ensured at all. It is conceivable to configure it as follows. The safety level information may be analyzed for each detection result of each detection unit (sound, odor, temperature, internal image, vibration, dust, electrical related, etc.) included in the cubicle information constituting the history information. , The detection results of all detection units (sound, odor, temperature, internal image, vibration, dust, electrical related, etc.) may be comprehensively analyzed and acquired, or both individually and comprehensively. It can be obtained by performing an analysis.

The merit obtained by comprehensive analysis is if the detection information (cubicle information) detected by multiple detection units (sound, odor, temperature, internal image, vibration, dust, and electricity-related units) can be judged in a complex manner. This is because it is possible to eliminate the possibility that the noise detection coming from each unit is erroneously determined to be an actual abnormality detection, or the actual abnormality detection is erroneously determined to be noise. Therefore, the safety level analysis rule collects a large number of cubicle information history information accumulation, alarm output history, event information, and alarm history information and statistically analyzes them, and analyzes the safety level so that the hit rate is higher. It is preferable to update the rules, and the analysis rule holding unit may be configured to have the analysis rule updating means. It is preferable to apply so-called artificial intelligence processing to the analysis rules.

<Embodiment 4 Safety Information Output Unit>
The "safety level information output unit" outputs information on the safety level based on the retained history information and the retained analysis rules. Since the destination to output the safety level is not specified in the claims, it may be output to a higher-level server or the like that bundles a plurality of alarm output devices of this system.

<Embodiment 4 Hardware Configuration>
<Embodiment 4 Hardware Configuration: Cubicle Device>
Since the most basic hardware configuration of the cubicle device in the present embodiment is common to the hardware configuration of the first embodiment, the description thereof will be omitted in the present embodiment.

<Embodiment 4 Hardware Configuration: Alarm Output Device>
FIG. 17 is a diagram showing an example of the most basic hardware configuration of the alarm output device according to the fourth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", "analysis rule" for analyzing safety level information based on history information. A "retention program" and a "safety information output program" that outputs information on safety based on safety analysis rules and history information are retained, and these programs are based on the execution instructions of a series of programs. Is read into the main memory and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, analysis rules, safety level information, various setting information such as communication (not shown), etc. are held in the non-volatile memory as in the program, and are held in the main memory. It is loaded into and referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The program having the same function as any one of claims 1 to 3 will be omitted, and only the program characteristic of the present embodiment will be described.

<Example 4 Processing flow>
FIG. 18 is a diagram showing an example of a processing flow of the cubicle automatic security inspection system of the fourth embodiment. As shown in the figure, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then the odor information output step. Can be configured to run. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. After executing the history information retention step, a history information analysis step is executed that analyzes post-safety information based on the retained history information and analysis rules for analyzing the safety of the cubicle. After executing the historical information analysis step, the analysis result acquisition step for acquiring the analysis result is executed. After executing the analysis result acquisition step, the safety level information output step that outputs the information regarding the safety level acquired as the analysis result is executed. After the safety level information is output, the step of confirming whether to terminate the system is executed. However, since the automatic security inspection system constantly conducts security inspections 24 hours a day, after the above various steps are completed, In most cases, the information acquisition by each unit will be returned without shutting down the system.

<Embodiment 5: Mainly corresponding to claim 5>
<Outline of Embodiment 5>
The invention in the present embodiment is characterized in that, in addition to the features of the invention described in any one of the first to fourth embodiments, information about the equipment arranged outside the cubicle is detected. In each of the equipments shown in FIGS. 6-1 to 6-9, the external equipment corresponds to, for example, the service line and support of the lead-in equipment shown in FIG. 6-1 and the cable, and the power receiving equipment shown in FIG. 6-3 ( Lightning rods (including sub-substation equipment), electric wires and supports for receiving and distribution boards shown in Fig. 6-4, etc.

<Structure of Embodiment 5>
<Structure of the fifth invention: cubicle device>
FIG. 19 is a diagram showing an example of the most basic configuration of the cubicle device of the fifth embodiment. As shown in the figure, the cubicle device (1900) of the fifth embodiment is a sound unit including a sound collecting unit (1901) and a sound information output unit (1902), an odor detecting unit (1903), and an odor information output unit (1904). ), An odor unit consisting of a temperature measuring unit (1905) and a temperature information output unit (1906), an internal image unit consisting of an internal image acquisition unit (1907) and an internal image information output unit (1908). Vibration unit consisting of vibration acquisition unit (1909) and vibration information output unit (1910), dust unit consisting of dust amount measurement unit (1911) and dust amount information output unit (1912), electricity-related value measurement unit (1913) An electrical-related unit consisting of an electrical-related value information output unit (1914), at least two or more units, and a current-voltage unit consisting of a current-voltage information acquisition unit (1915) and a current-voltage information output unit (1916), an external unit. It has one or more external image units including an image acquisition unit (1917) and an external image information output unit (1918). Hereinafter, the description of the configuration common to any one of the first to fourth embodiments will be omitted, and only the configuration characteristic of the present embodiment will be described.

<Structure of the fifth invention: alarm output device>
Since an example of the most basic configuration of the alarm output device of the present embodiment is common to the alarm output device of the first embodiment shown in FIG. 5, the description in the present embodiment will be omitted.

<Explanation of Embodiment 5>
<Embodiment 5 Current / Voltage Unit: Current / Voltage Acquisition Unit>
The "current / voltage acquisition unit" is arranged outside and acquires the current and / or voltage of the lead wire to the cubicle. The detection unit is arranged outside the cubicle (0300) shown in FIG. The current / voltage acquisition unit is subject to safety inspection as shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of the items, it is used to detect the current and voltage of external equipment.

Specifically, the lead-in wire and support of the lead-in equipment shown in Fig. 6-1 and the cable, the lightning rod of the power receiving equipment (including the sub-substation equipment) shown in Fig. 6-3, and the electric wire of the receiving / distribution board shown in Fig. 6-4. And supports, etc.

The current / voltage acquisition device may be arranged at a specific location suitable for current / voltage detection of each facility shown in the above specific example.

The current / voltage acquisition device constituting the current / voltage acquisition unit continuously acquires the current / voltage value for 24 hours. For example, if no abnormal voltage value or abnormal current value has occurred, the current voltage data is not saved but only a real-time check is performed, and when an abnormal voltage value and / or an abnormal current value is detected, the data is saved. It may be configured to start. However, the current value and / and the voltage value may be configured to be constantly transmitted to the alarm output device.

<Embodiment 5 Current / Voltage Unit: Current / Voltage Information Output Unit>
The "current / voltage information output unit" outputs the acquired current / voltage information to the alarm output device via the network. When the current / voltage information is output, in order to specify the current / voltage information, it is output in association with the information indicating the date and time when the current / voltage information was generated and the information for identifying the acquired cubicle. The output information is output to the alarm output device as one of the information constituting the cubicle information. The output of the current / voltage information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but every 1 second, 3 seconds, 5 seconds, etc. It is also permissible to configure the current and voltage information to be output to some extent at intervals that are acceptable as delays in anomaly detection.

<Embodiment 5 External image unit: External image acquisition unit>
The "external image acquisition unit" is arranged outside to acquire an image. A detection unit such as a device for acquiring an image, for example, a camera, a movie, an image sensor, an infrared sensor, a thermography device, or the like is arranged outside the cubicle (0300) shown in FIG. The external image acquisition unit is the safety inspection target item shown in Fig. 6-1, Fig. 6-2, Fig. 6-3, Fig. 6-4, Fig. 6-5, Fig. 6-7, Fig. 6-8, and Fig. 6-9. Of these, it is used for inspection of items that can be visually confirmed such as shadows, cracks, damage, corrosion, etc., but is not limited to this. For example, it is possible to grasp the traffic of wild animals, wind, rain, flooding, external damage to the cubicle, traffic of people in the vicinity of the cubicle, construction, construction, parking, etc.

Specifically, the service line and support of the service shown in Fig. 6-1 and the cable, the lightning arrester of the power receiving equipment (including the sub-transformer equipment) shown in Fig. 6-3, and the electric wire of the receiving / distribution board shown in Fig. 6-4. And supports, etc. are important observation targets.

The external image acquisition unit is configured to come into contact with or close to each of the facilities shown in the above specific example, and is arranged so as to acquire an external image over a wide area without specifying a target. May be good.

The acquisition of the external image by the external image acquisition unit is continuously performed for 24 hours. For example, if there are no findings such as cracks or deformations, the external image information is not saved as data, but is simply checked in real time, and saving is started when findings such as cracks or deformations are detected. However, in principle, it is preferable to continuously transmit images to the alarm output device. This is because the image information is important as cubicle information and also as event information.

<Embodiment 5 External image unit: External image information output unit>
The "external image information output unit" outputs the acquired external image information via the network. When the external image information is output, in order to specify the external image information, it is output in association with the information indicating the date and time when the external image information was acquired and the information for identifying the cubicle in which the external image was taken. In addition, if there are devices that acquire multiple images for one cubicle, for example, multiple "cameras, movies, image sensors, infrared sensors, thermography devices", the device identification information that identifies each device is also associated. It is preferable to send.
The output information is output to the alarm output device as one of the information constituting the cubicle information (event information in some cases). The output of the external image information is preferably configured to be performed in real time for 24 hours so that abnormality detection can be performed without delay, but every 1 second, 3 seconds, 5 seconds, etc. It is also permissible to configure the system to output a certain amount of external image information at intervals that are acceptable as delays in detecting anomalies.

<Embodiment 5 Hardware Configuration>
<Embodiment 5 Hardware Configuration: Cubicle Device>
FIG. 20 is a diagram showing an example of the most basic hardware configuration of the cubicle device in the present embodiment. It is a figure which shows an example of the hardware configuration of a sensing system and a computer system. As shown in the figure, the present invention can basically be configured by a programmable controller, a sequencer program thereof, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "Sound collection program", "Sound information output program", "Odor detection program", "Odor information output program", "Temperature sensor measurement program", "Temperature information output program", "Internal image""Acquisitionprogram","Internal image information output program", "Vibration acquisition program", "Vibration information output program", "Dust amount measurement program", "Dust amount information output program", "Electrical value measurement program", "Electricity""Related value information output program", "Current and voltage acquisition program" to acquire current and voltage, "Current and voltage information output program" to output current and voltage information to the alarm output device, "External" to acquire external images An "image acquisition program" and an "external image information output program" for outputting external image information are held, and these programs are read into the main memory and start operation based on the execution instructions of a series of programs. These programs are executed based on the instructions. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As with the program, the data includes sound information, odor information, temperature information, internal image information, vibration information, dust information, electrical-related value information, current / voltage information, external image information, cubicle identification information, communication not shown, and the like. Various setting information and the like are held in the non-volatile memory, loaded into the main memory, and referred to and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other. The description of the program having a common function with any one of the first to fourth embodiments is omitted, and only the configuration characteristic of the present embodiment is described.

<Embodiment 5 Hardware Configuration: Alarm Output Device>
Since the most basic hardware configuration of the alarm output device of the fifth embodiment is the same as the hardware configuration of the first embodiment shown in FIG. 8, the description in the present embodiment is omitted.

<Example 5 Processing flow>
FIG. 21 is a diagram showing an example of a processing flow of the cubicle automatic security inspection system in the present embodiment. As shown in the figure, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then the odor information output step. Can be configured to run. The temperature unit is configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. The current-voltage unit can be configured to perform a current-voltage information output step after the current-voltage acquisition step. The external image unit can be configured to perform an external image information output step after the external image acquisition step. Each unit is configured to have at least one, and the acquisition step and the output step are paired. After outputting the information acquired by each unit inside and outside the cubicle device, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the judgment result in the alarm output condition applicability determination step is the determination result that the alarm output condition is not applicable, the alarm output step is not executed and the cubicle information acquisition step is executed again. If the judgment result in the alarm output condition applicability judgment step is the judgment result that the alarm output condition is applicable, the alarm output step is executed and the alarm is output. After the alarm is output, a step to determine whether to terminate the system is executed, but since the automatic security inspection system constantly conducts security inspections 24 hours a day, most of the above steps are completed. In the case of, the system does not end and returns to the information acquisition by each unit again.

<Embodiment 6: Mainly corresponding to claim 6>
<Outline of Embodiment 6>
The invention in the present embodiment has a function of notifying the replacement and maintenance timing of each cubicle facility constituting the present system, in addition to the features of the invention described in any one of the first to fifth embodiments.

<Structure of Embodiment 6 Invention>
<Construction of Embodiment 6 Invention: Cubicle device>
Since the configuration of the most basic invention of the cubicle device in the present embodiment has the same configuration as that of the first embodiment shown in FIG. 4, the description thereof will be omitted in the present embodiment.

<Structure of the Sixth Embodiment: Alarm Output Unit>
FIG. 22 is a diagram showing an example of the most basic configuration of the alarm output device of the sixth embodiment. As shown in the figure, the alarm output device of the sixth embodiment includes a cubicle information acquisition unit (2201), a history information holding unit (2202), an alarm condition holding unit (2203), an alarm output unit (2204), and equipment replacement maintenance timing. It has a determination rule holding unit (2205), an equipment replacement maintenance timing calculation unit (2206), and an equipment replacement notification unit (2207). In the following, the description of the configuration common to the first to fifth embodiments will be omitted, and only the configuration characteristic of the present embodiment will be described.

<Explanation of Embodiment 6 Configuration>
<Embodiment 6 Equipment replacement maintenance timing judgment rule holding unit>
The "equipment replacement / maintenance timing judgment rule holding unit" holds the equipment replacement / maintenance timing judgment rule, which is a rule that determines the replacement / maintenance timing of each equipment based on the information held in the history information holding unit. The equipment replacement maintenance timing judgment rule uses not only the time elapsed since the last equipment update held in the history information holding unit but also various information included in the cubicle information for the equipment update judgment. Specifically, for abnormal noise, offensive odor, overheating, discoloration, deformation, looseness, operation condition, mounting condition, crack, ground wire connection condition, oil leakage, rust, bus height, class B ground wire. The magnitude of the leakage current, the trace of small animal intrusion, the locked state, the state of the key, damage, stain, the operation display of the equipment, the damage of the cable head shielding layer, the corrosion, the distance from other things, etc., the sound unit , Odor unit, temperature unit, internal image unit, vibration unit, dust unit, electrical unit, etc., information showing signs of malfunction, current voltage information of high voltage lead wire from current voltage unit, external image It is preferable that the equipment replacement timing is determined according to the external image information from the unit. Therefore, it is preferable to use a rule that calculates the timing of equipment replacement by using various cubicle information and the state of the internal equipment of the cubicle assumed based on the cubicle information as a variable as the root of the equipment replacement maintenance timing determination. Further, it is preferable that the temporal timing is set to reflect the difference due to the natural environmental factor of the place where the device is installed. For example, factors such as near the sea where the sea breeze blows, where it is exposed to direct sunlight for a long time, when it is humid or in a region, when it is snowy or rainy for a long time or when it is raining, or when there are many creatures such as small animals and insects. Is an example of an environmental factor that affects temporal timing.

<Embodiment 6 Equipment replacement maintenance timing calculation unit>
The “equipment replacement / maintenance timing calculation unit” calculates the equipment replacement / maintenance timing based on the retained history information and the retained replacement / maintenance timing determination rule. For the calculation of equipment replacement maintenance timing, if the equipment replacement maintenance timing judgment rule is set for multiple replacement targets for one equipment, multiple equipment replacement maintenance timing judgment rules are applied to one equipment. It becomes possible to do. By comprehensively using multiple calculation results, it is possible to calculate for which replacement target the equipment replacement maintenance is necessary, and whether or not the equipment replacement maintenance timing has arrived or is approaching. To decide. When the equipment replacement and maintenance timings are close to each other, efficient cubicle maintenance can be performed by replacing and maintaining a plurality of replacement targets at the same time. "Equipment replacement maintenance" includes not only the case of replacing the entire equipment, but also the replacement and maintenance of equipment parts, consumables, and items consumed by the operation of the equipment. Equipment parts include fuses, resistors, coils, insulating oil, cable coatings, screws, bolts, paints, paints, fuels, porcelain, and equipment includes power receiving boards, distribution boards, circuit breakers, shields, switches, switches, and distribution boards. , Control device, ground wire, floor surface, wall surface, ventilation fan, heater, charging device, cable, transformer, capacitor, reactor, lightning protection needle, voltage regulator, rectifier, neutral point resistor, discharge coil, voltage regulator, pole Plates, terminals, grounding wires, grounding devices, low-voltage equipment, etc. In addition, the equipment includes one or more of lead-in equipment, power receiving equipment, sub-substation equipment, receiving / distribution board, grounding structure, structure, power distribution equipment, regular power generation equipment, emergency power generation equipment, storage battery equipment, load equipment, etc. ..

<Embodiment 6 Equipment Replacement Notification Unit>
The "equipment replacement notification unit" outputs when the determined replacement / maintenance timing is within a predetermined period. Specifically, the equipment replacement notice may be something like "The transformer equipment is deteriorating. Please replace it." The equipment replacement notification unit preferably continues to notify until the equipment replacement is completed, but like the so-called alarm clock snooze function, it is configured to periodically re-notify until the equipment replacement is completed. You may. In this case, when the notified equipment is replaced and maintained, the equipment replacement completion information indicating that the equipment replacement is completed is input to the replacement and maintenance completion information acquisition means provided in the equipment replacement notification unit. , When the equipment replacement completion information is input, it is conceivable to configure it to have a snooze stop means for stopping the snooze. The equipment replacement completion information is configured to be input in association with the equipment replacement notification knowledge-specific information which is the identification information of the equipment replacement notification. The equipment replacement notification information is information associated with the cubicle identification information and the equipment identification information in the equipment, and is also information associated with the identification information of the parts and the like when notifying the replacement of the equipment parts and the like. .. Further, it may be associated with information that identifies the person in charge of performing the exchange, the department, and the like. Then, it is preferable that the equipment replacement notification information is configured to be output to those persons in charge or departments. These may be output as a push type on a web basis, may be output by e-mail, telephone, short message, etc., or may be output by indoor broadcasting, video conference, or the like. In addition, the schedule may be automatically written to the schedule application of the person in charge.

<Embodiment 6 Hardware Configuration>
<Embodiment 6 Hardware Configuration: Cubicle Device>
Since the most basic hardware configuration of the cubicle device of the present embodiment is common to the hardware configuration of the first embodiment shown in FIG. 4, the description thereof will be omitted in the present embodiment.

<Embodiment 6 Hardware Configuration: Alarm Output Device>
FIG. 23 is a diagram showing an example of the most basic hardware configuration of the alarm output device of the sixth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the replacement and maintenance timing of each facility such as "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", and sensors that make up this system is determined. "Equipment replacement maintenance timing judgment rule holding program" that holds the replacement maintenance timing judgment rule, "Equipment replacement maintenance timing calculation program" that calculates the equipment replacement maintenance timing based on the equipment replacement maintenance timing judgment rule, equipment replacement maintenance timing judgment The "equipment replacement notification program" for issuing equipment replacement notification based on is held, and these programs are read into the main memory based on the execution command of a series of programs, and based on the operation start command. These programs are executed. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, equipment replacement maintenance timing judgment rules, equipment replacement maintenance timing information, various setting information such as communication (not shown), etc. are non-volatile memory as in the program. It is held in, loaded into main memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The description of the program having a common function with any one of the first to fifth embodiments is omitted, and only the configuration characteristic of the present embodiment is described.

<Example 6 Processing flow>
FIG. 24 is a diagram showing an example of the processing flow of the cubicle automatic inspection system in the present embodiment. As shown in the figure, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then the odor information output step. Can be configured to run. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. After the execution of the cubicle information acquisition step, the history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Equipment replacement / maintenance timing that calculates the equipment replacement / maintenance timing, which is the replacement / maintenance timing of each equipment of each cubicle device, based on the information held in the history information holding unit and the replacement / maintenance timing judgment rule of each equipment of each cubicle device. The calculation step is performed. After executing the equipment replacement maintenance timing calculation step, the equipment replacement timing applicability determination step for determining whether the calculation result corresponds to the equipment replacement timing is executed. If the judgment result in the equipment replacement maintenance timing applicability judgment step is the judgment result that the equipment replacement maintenance timing is not applicable, the cubicle information acquisition step is executed again without executing the equipment replacement notification step. .. If the judgment result of the equipment replacement maintenance timing applicability determination step is the determination result of the equipment replacement timing applicability, the equipment replacement notification output step of outputting the equipment replacement notification is executed. After the equipment replacement notification step is completed, a step to determine whether to terminate the system is executed. However, since the automatic security inspection system constantly conducts security inspections 24 hours a day, after the above various steps are completed, In most cases, the system will not be shut down and will return to information acquisition by each unit.

<Embodiment 7: Mainly corresponding to claim 7>
<Outline of Embodiment 7>
The invention in the present embodiment has a function of notifying the replacement / maintenance timing of each unit constituting the present system, in addition to the features of the invention described in any one of the first to sixth embodiments.

<Structure of Embodiment 7>
<Structure of the 7th embodiment: cubicle device>
Since the configuration of the most basic invention of the cubicle device in the present embodiment has the same configuration as that of the first embodiment shown in FIG. 4, the description thereof will be omitted in the present embodiment.

<Structure of the 7th Embodiment: Alarm output device>
FIG. 25 is a diagram showing an example of the most basic configuration of the alarm output device of the seventh embodiment. As shown in FIG. 25, the alarm output device of the seventh embodiment includes a cubicle information acquisition unit (2501), a history information holding unit (2502), an alarm condition holding unit (2503), an alarm output unit (2504), and unit replacement maintenance. It has a timing determination rule holding unit (2505), a unit replacement maintenance timing calculation unit (2506), and a unit replacement notification unit (2507). In the following, the description of the configuration common to the first to fifth embodiments will be omitted, and only the configuration characteristic of the present embodiment will be described.

<Explanation of Embodiment 7 Configuration>
<Embodiment 7 Unit replacement maintenance timing judgment rule holding unit>
The "unit replacement maintenance timing judgment rule holding unit" holds a unit replacement maintenance timing judgment rule, which is a rule that determines the replacement maintenance timing of each unit based on the information held in the history information holding unit.
A "unit" is one or more of a sound unit, an odor unit, a temperature unit, an internal image unit, a vibration unit, a dust unit, an electric-related unit, an external current / voltage unit, and an external image unit provided in a cubicle device. Point to.
The unit replacement maintenance timing judgment rule uses not only the time elapsed since the previous unit update and maintenance held in the history information holding unit, but also various information contained in the cubicle information for equipment update judgment. .. The rate of false positives, the rate of noise signals, the frequency of signal interruptions, the frequency of signal omissions, etc. included in cubicle information are used in the unit replacement maintenance timing determination rule. Each unit can also be configured to include self-diagnosis information in the cubicle information. It is also possible to provide a self-diagnosis unit in each unit so that parts and devices peculiar to each unit can be self-diagnosed and included in the cubicle information.
Self-diagnosis is an electronic circuit self-diagnosis means, CPU, etc. that can be commonly adopted for all units by sending a test signal to the electronic circuit and checking whether the reaction from the electronic circuit is a planned reaction. A calculation check means (in this case, an MPU for checking may be separately provided) for determining whether or not the expected answer has been calculated by making a calculation for which the answer is known in advance, and a predetermined value for the measurement sensor system. It is possible to adopt a sensor checking means for checking whether the sensor responds as planned by passing a current or a predetermined signal.
Regarding the "sound unit", it is conceivable to provide a test sound source pre-recorded in the sound unit and provide a test sound source check means for determining whether the sound unit outputs the scheduled information according to the reproduction of the test sound source. Be done.
The "odor unit" is provided with a test odor source stored in advance in the odor unit (for example, a fragrance material that has absorbed a liquid is overheated to evaporate the liquid to make a test odor), and the test odor is provided. It is conceivable to provide a test odor check means for determining whether the odor unit outputs the planned information according to the occurrence of the above.
Regarding the "temperature unit", a test temperature generation source equipped with a lamp unit for generating a predetermined temperature in advance in the temperature unit (for example, a predetermined region observed by the temperature unit is heated by the lamp unit and the temperature in that region is measured. It is conceivable to provide a test temperature checking means for determining whether the temperature unit outputs the planned information in response to the test overheating.
Regarding the "internal image unit", a test image generator equipped with a projection unit for causing the internal image unit to capture a predetermined image in advance (for example, projecting a predetermined image on a predetermined area observed by the internal image unit). , Displayed and reproduced on the display), and it is conceivable to provide a test projection check means for determining whether the internal image unit outputs the scheduled information according to the test projection.
The "vibration unit" can be considered to be a vibration unit provided with a test vibration generation source for applying a predetermined vibration to the vibration unit in advance, for example, it is realized by a piezoelectric element, a vibration generation motor, or the like.
As for the "dust unit", it is conceivable to use a dust unit equipped with a dust generator for applying a predetermined dust to the dust unit in advance. As a dust generator, a predetermined dust can be stored in a bag or case in advance, and the bag can be compressed and burst, or the window of the case can be opened to vibrate the case to generate the predetermined dust. Conceivable.
Regarding the "electrical-related unit", it is conceivable to provide a test current checking means for temporarily stopping the current flowing in the cubicle and passing a test current to check whether the electric-related unit outputs information correctly. Since the above test output is information from each unit in the cubicle device, it is included in the cubicle information as referred to in the present specification.
When calculating the unit replacement maintenance timing based only on the cubicle information in the normal operating state (when the test output is not used), not only the temporal timing from the previous replacement but also the sensitivity and sensitivity It also includes factors such as the frequency of noise detection and the frequency of misjudgment between noise detection and risk detection. Further, it is preferable that the temporal timing is set to reflect the difference due to the natural environmental factor of the place where the device is installed. For example, factors such as near the sea where the sea breeze blows, where it is exposed to direct sunlight for a long time, when it is humid or in a region, when it is snowy or rainy for a long time or when it is raining, or when there are many creatures such as small animals and insects. Is an example of an environmental factor that affects temporal timing.

<Embodiment 7 Unit replacement maintenance timing calculation unit>
The "unit replacement / maintenance timing calculation unit" calculates the unit replacement / maintenance timing based on the retained history information and the retained replacement / maintenance timing determination rule. In the calculation of the unit replacement / maintenance timing, when the unit replacement / maintenance timing determination rule is set for a plurality of factors, it is possible to apply a plurality of unit replacement / maintenance timing determination rules to one facility. By comprehensively using a plurality of calculation results, it is calculated how much replacement is necessary, and it is determined whether or not the unit replacement maintenance timing has arrived or is approaching. For example, regarding the "sound unit", in addition to the judgment (inspection) based on the reproduction of the test sound source, the magnitude of the noise level (decibel) during quiet times (for example, during non-operation such as in a factory) and the diagnosis result of the electric circuit. (The resistance value of the electronic circuit, the response to the test pulse of the electronic circuit, etc.) may be integrated to calculate the replacement / maintenance timing of the sound unit. Other than the sound unit, noise level, electric circuit diagnosis, etc. can be used. At the time of comprehensive judgment, it is possible to set a threshold value in a plurality of stages for each test value and to calculate a score for determining that the test value should be exchanged when the threshold value is exceeded. The score can be calculated by weighting each test value with respect to points added when the threshold value is exceeded.

<Embodiment 7 Unit Replacement Notification Unit>
The "unit replacement notification unit" outputs when the determined replacement / maintenance timing is within a predetermined period. Specifically, the unit replacement notice may be something like "The temperature measurement unit measuring the transformer equipment is getting dirty. Please replace it." It is preferable that the unit replacement notification unit continues the notification until the unit replacement is completed, but like the so-called alarm clock snooze function, the unit replacement notification unit is configured to periodically re-notify until the unit replacement is completed. You may. In addition, it can be configured to notify the deadline until the unit is replaced. For example, "Please replace the sound unit within 3 days." This period can be configured to calculate and announce the time when the final exchange must be made from the increase in the points on the time axis when the exchange is determined by the above-mentioned point addition method.

<Embodiment 7 Hardware Configuration>
<Embodiment 7 Hardware Configuration: Cubicle Device>
Since the most basic hardware configuration of the cubicle device of the present embodiment is common to the hardware configuration of the first embodiment shown in FIG. 4, the description thereof will be omitted in the present embodiment.

<Embodiment 7 Hardware Configuration: Alarm Output Device>
FIG. 26 is a diagram showing an example of the most basic hardware configuration of the alarm output device of the seventh embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the replacement and maintenance timing of each unit such as "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", and sensors constituting this system is determined. "Unit replacement maintenance timing judgment rule holding program" that holds the unit replacement maintenance timing judgment rule, "Unit replacement maintenance timing calculation program" that calculates the unit replacement maintenance timing based on the unit replacement maintenance timing judgment rule, unit replacement maintenance timing A "unit exchange notification program" for performing exchange notification based on judgment information is held, and these programs are read into the main memory based on the execution instructions of a series of programs, and based on the operation start instruction. These programs are executed. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, unit replacement maintenance timing judgment rules, unit replacement maintenance timing information, various setting information such as communication (not shown), etc. are non-volatile memory as in the program. It is held in, loaded into main memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The description of the program having a common function with any one of the first to fifth embodiments is omitted, and only the configuration characteristic of the present embodiment is described.

<Example 7 Processing flow>
FIG. 27 is a diagram showing an example of the processing flow of the cubicle automatic inspection system in the present embodiment. As shown in the figure, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then the odor information output step. Can be configured to run. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. After the execution of the cubicle information acquisition step, the history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. The unit replacement / maintenance timing calculation step of calculating the unit replacement / maintenance timing, which is the replacement / maintenance timing of each unit, is executed based on the information held in the history information holding unit and the replacement / maintenance timing determination rule of each unit. After executing the unit replacement / maintenance timing calculation step, the unit replacement / maintenance timing applicability determination step for determining whether the calculation result corresponds to the unit replacement / maintenance timing is executed. If the judgment result in the unit replacement maintenance timing applicability determination step is the determination result that the unit replacement maintenance timing applicability is not applicable, the cubicle information acquisition step is executed again without executing the unit replacement maintenance notification step. If the judgment result of the unit replacement maintenance timing applicability determination step is the determination result that the unit replacement maintenance timing applicability is applicable, the unit replacement notification output step for outputting the unit replacement notification is executed. After the unit replacement notification step is completed, a step to determine whether to terminate the system is executed. However, since the automatic security inspection system constantly conducts security inspections 24 hours a day, after the above various steps are completed, In most cases, the system will not be shut down and will return to information acquisition by each unit.

<Embodiment 8: Mainly corresponding to claim 8>
<Outline of Embodiment 8>
The invention in the present embodiment is based on any one of the first to seventh embodiments, and is a measurement value report that outputs measurement results acquired from various sensors and the like measured for monitoring cubicle equipment as a report. It is a cubicle automatic security inspection system with an output device. In the following description, the part related to the first embodiment will be omitted.

<Structure of the 8 invention: measured value reporting device>
FIG. 28 is a diagram showing an example of the most basic configuration of the measured value reporting device. As shown in the figure, the measured value reporting device of the eighth embodiment has a history information acquisition unit (2801) for reporting, a measured value related information generation unit (2802), and a measured value related information report output unit (2803). ..

<Explanation of Embodiment 8>
<Explanation of Configuration 8: Report History Information Acquisition Unit>
The “report history information acquisition unit” acquires the report history information that is the history information held in the history information holding unit of the alarm output device for a predetermined period and is acquired for the report. "Report history information" is an observation history in which the contents of data acquired as cubicle information are accumulated and recorded within a predetermined period. The report may be in a format that is displayed on the monitor interface or may be configured to be printed on paper for display on a printer device. The predetermined period is a period for accumulating historical information used for creating reports such as regular, weekly, monthly, semi-annual, and annual. For these, a predetermined period is set so that the report is performed at a fixed timing as a default, or / or a predetermined period is set by the user. It is preferable that the report is created regularly to ensure the safety of the cubicle, but at the same time, it is desirable to allow the user to set his / her own timing according to the business scale and operation frequency of the user. preferable.

<Explanation of Configuration of Embodiment 8: Measurement Value Related Information Generation Unit>
The “measured value related information generation unit” generates measured value related information which is information about the measured value of each cubicle based on the acquired report history information. The measured value is cubicle information obtained from each unit provided in the cubicle. These are acquired in association with the cubicle identification information, each unit identification information, or the identification information of the equipment in charge of each unit provided in the cubicle. These cubicle information reports may be in the form of expressing the measured values themselves, or may be expressed not in the measured values themselves but in the form of converted units and values for general comprehension. .. For example, the value to be determined to be abnormal may be set to 100, and the current value may be expressed between 0 and 100. These values are cubicle identification information, unit identification information, or identification information of the equipment to be observed by each unit in the cubicle, and the time when the measured value was acquired or generated (date time). Is preferable). The measured value-related information is numerical information acquired from the measurement results of various sensors acquired as the history information for the report. For example, the cubicle information from each unit in the normal state (measured value of each unit or synthetic value for determining whether it is an abnormality calculated based on the measured values of multiple units) as well as abnormality is confirmed. It is information such as the timing, the number of times, the frequency, the measured value at the time of abnormality, and the like.

<Explanation of Configuration: Measurement Value Related Information Report Output Unit>
The “measured value related information report output unit” outputs a measured value related information report which is a report of the generated measured value related information. As described above, the output method may be in a format displayed on the monitor interface, or may be configured to be output to a printer device and printed on paper. If the display is left to the user's selection, the user may not output the report intentionally. Therefore, the measured value related information report output in the measured value related information report output unit is information from the outside such as the user's instruction. It is preferable that the input is not triggered and the output is automatically performed after a lapse of a predetermined time. It is preferable to configure this report to be sent in a push-type manner to the person who manages the cubicle. It is preferable that the computer used by the person who manages the cubicle is provided with an application for acquiring and displaying this measurement value-related information report. This application should not only be passive to receive push notifications, but should also have a report request section so that administrators can request reports whenever they feel they need them. In addition, the application is configured to not only receive and request reports, but also request information from the alarm output device to time the replacement of each unit as described above. Is preferable. This may be configured to have a unit replacement timing calculation unit control unit for forcibly calculating the unit replacement timing in the unit replacement maintenance timing calculation unit for unit replacement described above. Further, it can be configured to be sent by e-mail or the like not only to the computer used by the administrator but also to the smartphone or tablet terminal used by the administrator. In addition to using the application as described above, it can also be configured to allow the report to be viewed on the web. When browsing on the web, it can be browsed by inputting the administrator's user name, password, cubicle identification information, and the like.

<Embodiment 8 Hardware Configuration: Measured Value Reporting Device>
FIG. 29 is a diagram showing an example of the most basic hardware configuration of the measured value reporting device of the eighth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, each is based on the "report history information acquisition program" that acquires the report history information that is the history information for a predetermined period and is acquired for the report, and the acquired report history information. "Measurement value related information generation program" that generates measurement value related information that is information about cubicle measurement value, "Measurement value related information report output" that outputs measurement value related information report that is a report of generated measurement value related information "Programs", and are held, these programs are read into the main memory based on the execution instructions of a series of programs, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate measured value-related information. As data, as in the program, report history information, measured value related information, measured value related information report, various setting information such as communication (not shown) are held in the non-volatile memory, loaded into the main memory, and a series of data. It is referred to and used when executing the program of. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Process 8 Process Flow>
FIG. 30 is a diagram showing an example of the processing flow of the measured value reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. , Performs a measurement-related information generation step to generate measurement-related information, which is information about each cubicle's measurement, and outputs a measurement-related information report, which is a report of the generated measurement-related information. Perform a related information report output step.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 9: Mainly corresponding to claim 9>
<Outline of Embodiment 9>
In the present embodiment, the types of measurement results described in the report of the eighth embodiment are set to "time transition graph of measured value in a predetermined period", "maximum value of measured value", "minimum value of measured value", and "measured value". It is characterized in that it is limited to information of any one or more of "mean value" and "standard deviation of measured value".

<Structure of the 9th embodiment: Measured value reporting device>
FIG. 31 is a diagram showing an example of the most basic configuration of the measured value reporting device of the ninth embodiment. As shown in the figure, the alarm output device of the ninth embodiment includes a report history information acquisition unit (3101), a measured value-related information generation unit (3102), a time transition graph or the like generation means (3103), and a measured value-related information report. It has an output unit (3104). In the following, the description of the configuration common to the embodiment 8 will be omitted, and only the configuration characteristic of the present embodiment will be described.

<Explanation of the configuration of Embodiment 9>
<Explanation of the configuration of Embodiment 9: means for generating a time transition graph or the like>
The "means for generating a time transition graph, etc." is information on any one or more of a time transition graph of measured values in a predetermined period, a maximum value of measured values, a minimum value of measured values, an average value of measured values, and a standard deviation of measured values. To generate. The contents described in the measured value-related information report output in the seventh embodiment are limited.
The "time transition graph of measured values in a predetermined period" is a graph that displays a list of specific values that transition with the passage of time. Line graphs / bar graphs, three-dimensional graphs, heat distribution graphs, etc. can be considered. It is a graph for monitoring how the measured value fluctuates with time.
The "maximum value of the measured value" is a numerical value that specifically highlights the maximum value during the measurement during a predetermined period. Alternatively, it is also possible to set a subdivision period in which the predetermined period is further subdivided, and set the maximum value of the measured values for each subdivision period as a special value.
The "minimum value of measurement" is a numerical value that specifically highlights the minimum value during a predetermined period of measurement. Alternatively, it is also possible to set a subdivision period in which the predetermined period is further subdivided, and set the minimum value of the measured value for each subdivision period as a special value.
For the "mean value of measured values", it is conceivable to calculate the average value of the measured values within a predetermined period, or the average value of the measured values of the subdivision period and the average value of the measured values of the subdivision period. Be done.
For "standard deviation of measured value", it is conceivable to calculate the standard deviation of the measured value within a predetermined period, or the standard deviation of the measured value of the subdivision period and the standard deviation of the measured value of the subdivision period. Be done.

<Embodiment 9 Hardware Configuration: Measured Value Reporting Device>
FIG. 32 is a diagram showing an example of the most basic hardware configuration of the measured value reporting device of the ninth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "report history information acquisition program", "measurement value related information generation program", time transition graph of measurement value for a predetermined period, maximum value of measurement value, minimum value of measurement value, measurement value A series of programs are held, such as a "time transition graph generation subprogram" and a "measurement value related information report output program" for generating one or more information of either the mean value or the standard deviation of the measured value. These programs are read into the main memory based on the execution instruction of, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate measured value-related information. As data, history information for reports, measurement value related information, unit replacement maintenance timing judgment rules, unit replacement maintenance timing information, various setting information such as communication (not shown), etc. are held in the non-volatile memory as in the program. It is loaded into the main memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The description of the program having a common function with the seventh embodiment is omitted, and only the configuration characteristic of the present embodiment is described.

<Process 9 Process Flow>
FIG. 33 is also a diagram showing an example of the processing flow of the measured value reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. , Perform a measurement-related information generation step to generate measurement-related information, which is information about the measurement of each cubicle. During the execution of the measurement value related information generation step, one or more of the time transition graph of the measurement value for a predetermined period, the maximum value of the measurement value, the minimum value of the measurement value, the mean value of the measurement value, and the standard deviation of the measurement value. Execute the time transition graph generation sub-step to generate information. Then, the measurement value-related information report output step for outputting the measured value-related information report, which is a report of the generated measured value-related information, is executed.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 10: Mainly corresponding to claim 10>
<Outline of Embodiment 10>
The invention in the present embodiment is based on any one of the first to ninth embodiments, and has an internal image report output device that outputs a report on internal image data without acquiring measurement results numerically. Cubicle automatic security inspection system.

<Structure of Embodiment 10 Invention>
FIG. 34 is a diagram showing an example of the most basic configuration of the internal image reporting device of the tenth embodiment. As shown in the figure, it has an internal image history information acquisition unit (3401) for a report, an internal image-related information generation unit (3402), and an internal image-related information report output unit (3403).

<Explanation of Embodiment 10 Configuration>
<Explanation of the configuration of the tenth embodiment: Internal image history information acquisition unit for report>
The "report internal image acquisition unit" acquires the report internal image history information that is the internal image information acquired by the internal image unit among the history information for a predetermined period and is acquired for the report. The "report internal image information" is an internal image recording in which the contents of the internal image data acquired as cubicle information are accumulated and recorded within a predetermined period. The report may be in a format that is displayed on the monitor interface or may be configured to be printed on paper for display on a printer device. The predetermined period is a period for accumulating historical information used for creating reports such as regular, weekly, monthly, semi-annual, and annual. For these, a predetermined period is set so that the report is performed at a fixed timing as a default, or / or a predetermined period is set by the user. It is preferable that the report is created regularly to ensure the safety of the cubicle, but at the same time, it is desirable to allow the user to set his / her own timing according to the business scale and operation frequency of the user. preferable.
The "internal image for report" may be a thermal image or a radiation image name in addition to a normal color photograph and a black-and-white photograph. Further, the internal image for the report may be a moving image or, of course, a moving image with audio. In the case of moving images, it can be configured so that moving images of a predetermined time length are acquired periodically (for a predetermined period). For example, images of 10 seconds, 20 seconds, 30 seconds, and 60 seconds are set every 5 minutes, every 60 minutes, every 2 hours, and the like. The predetermined period referred to in this embodiment may vary depending on the time zone. For example, if the cubicle is for a power line that is pulled into a factory, it can be configured to shoot for a relatively short period of time during operation and for a relatively long period of time during shutdown. This is because the operation should be observed more precisely.

<Explanation of the configuration of the tenth embodiment: Internal image-related information generation unit>
The "internal image-related information generation unit" generates internal image-related information, which is information related to the internal image, based on the acquired internal image history information for the report. The internal image-related information is internal image information acquired from the recording of the internal image acquired as the internal image history information for the report. For example, the timing when an abnormality is confirmed, the internal image at the peripheral timing, the number of abnormal occurrences confirmed from the internal image, the frequency of abnormal occurrence confirmed from the internal image, and the abnormality at the time of the abnormality confirmed from the internal image. Information such as peripheral internal images other than the occurrence.
Further, the internal image information generation unit may be configured to generate not only the acquired internal image information for the report itself or a copy, but also the information generated as a result of analyzing the internal image information for the report. .. For example, image processing that emphasizes the difference value of the internal image for the report that is adjacent in time may be performed, or the image may be analyzed by AI or the like to explain the image, for example, to include the prediction of the occurrence of an abnormality. Can be done.

<Explanation of the configuration of the tenth embodiment: Internal image-related information report output unit>
The "internal image-related information report output unit" outputs an internal image-related information report, which is a report of the generated internal image-related information. As described above, the output method may be in a format displayed on the monitor interface, or may be configured to be output to a printer device and printed on paper. If the display is left to the user's selection, the user may not output the report intentionally. Therefore, the internal image-related information report output in the internal image-related information report output section is information from the outside such as the user's instruction. It is preferable that the input is not triggered and the output is automatically performed after a lapse of a predetermined time.
The report may be a voice explanation for explaining the image by automatic voice by AI or the like, or may be a single character, a photograph, a video, or the like. Further, both may be included.

<Embodiment 10 Hardware Configuration: Internal Image Reporter>
FIG. 35 is a diagram showing an example of the most basic hardware configuration of the internal image reporting device of the tenth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "inside for report" for acquiring the internal image history information for report, which is the internal image information acquired by the internal image unit among the history information for a predetermined period and is acquired for the report. "Image history information acquisition program", "Internal image-related information generation program" for generating internal image-related information based on internal image information taken at predetermined intervals of each cubicle based on the acquired internal image information for reports. , An "internal image-related information report output program" for outputting an internal image-related information report, which is a report of the generated internal image-related information, and these are held based on the execution instructions of a series of programs. Programs are read into the main memory, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire internal image history information for reports and generate internal image-related information. As data, internal image history information for reports, internal image-related information, various setting information such as communication (not shown), etc. are held in the non-volatile memory and loaded into the main memory, as in the case of the program, when a series of programs are executed. Referenced and used. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Flow of embodiment 10 processing>
FIG. 36 is a diagram showing an example of the processing flow of the internal image reporting device in the present embodiment. As shown in the figure, the internal image history for the report, which is the internal image information acquired by the internal image unit among the history information for a predetermined period and is acquired for the report, is the internal image history for the report. Execute the information acquisition step, and execute the internal image related information generation step to generate the internal image related information based on the internal image taken at a predetermined interval of each cubicle based on the acquired internal image history information for the report. Then, execute the internal image-related information report output step for outputting the internal image-related information report, which is a report of the generated internal image-related information.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 11: Mainly corresponding to claim 11>
<Outline of Embodiment 11>
The invention in the present embodiment is based on any one of the first to tenth embodiments, and is a cubicle having an alarm-related information reporting device, which outputs a report on the status of alarm output. It is an automatic security inspection system.

<Embodiment 11>
<Structure of Embodiment 11 Invention>
FIG. 37 is a diagram showing an example of the most basic configuration of the alarm-related information report output device according to the present embodiment. As shown in the figure, the alarm-related information report output device has an alarm output history information acquisition unit (3701) for each report cause, an alarm-related information report generation unit (3702), and an alarm-related information report output unit (3703). ..

<Explanation of Embodiment 11 Configuration>
<Explanation of Configuration 11: Alarm Output History Information Acquisition Unit>
The "alarm output history information acquisition unit" is the alarm output history information for each cause, which is information related to the alarm output history from the alarm output unit and the alarm condition that caused the alarm output, and is for reporting. The alarm output history information for each cause is acquired. "Report cause-specific alarm output history information" is alarm output history information acquired from the alarm output unit of the cubicle automatic security check system for report creation, which is acquired for each cause of alarm occurrence. For example, the cause of the alarm output, the output type of the output alarm, the output date and time, the cubicle that output the alarm, the time from the output until the user confirms the output content, and the like are examples of the alarm output history information.

<Explanation of the configuration of the eleventh embodiment: alarm-related information report generation unit>
The "alarm-related information report generator" generates an alarm-related information report, which is information for a report related to an alarm, based on the acquired report cause-specific alarm output history information. "Alarm-related information" is information that can be acquired by calculating and analyzing from the alarm output information for each report cause. For example, information such as the frequency of outputting an alarm and the number of times an alarm is output is acquired as alarm-related information.

<Explanation of the configuration of the eleventh embodiment: alarm-related information report output unit>
The "alarm-related information report output unit" outputs the generated alarm-related information report. The output method may be in a format displayed on the monitor interface, or may be configured to be output to a printer device and printed on paper. If the display is left to the user's selection, the user may not output the report intentionally. Therefore, the internal image-related information report output in the internal image-related information report output section is information from the outside such as the user's instruction. It is preferable that the input is not triggered and the output is automatically performed after a lapse of a predetermined time. The report may be a voice explanation explained by automatic voice by AI or the like, or may be composed of characters, photographs, videos, and the like. Further, both may be included.

<Embodiment 11 Hardware Configuration>
FIG. 38 is a diagram showing an example of the most basic hardware configuration of the alarm-related information reporting device of the eleventh embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the alarm output history information by cause, which is the information related to the alarm output history from the alarm output unit and the alarm condition that caused the alarm output, is acquired for the report. Report Caused alarm output history information acquisition "report cause alarm output history information acquisition program", acquired report Alarm related information report that is information for alarm reports based on cause alarm output history information An "alarm-related information report generator" to generate and an "alarm-related information report output program" to output the generated alarm-related information report are held, and these programs are based on the execution instructions of a series of programs. Is read into the main memory and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and the alarm output history for each report cause is always acquired. As for the data, as with the program, alarm output history information by report cause, alarm-related information, various setting information such as communication (not shown), etc. are held in the non-volatile memory and loaded into the main memory, when a series of programs are executed. Referenced and used. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Process 11 Process Flow>
FIG. 39 is a diagram showing an example of the processing flow of the internal image reporting device in the present embodiment. As shown in the figure, the alarm output history information by cause, which is the information relating the alarm output history from the alarm output unit and the alarm condition that caused the alarm output, is acquired for the report. Report Report for acquiring alarm output history information by cause Execute the alarm output information acquisition step by cause, and report the report related to the alarm based on the alarm output history information by cause acquired in the alarm output information acquisition step by cause. Performs the alarm-related information report generation step to generate the alarm-related information report, and outputs the alarm-related information report generated by the alarm-related information report generation step. Performs the alarm-related information report output step. ..
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 12: Mainly corresponding to claim 12>
<Outline of Embodiment 12>
The invention in the present embodiment is a cubicle automatic security inspection system having a measured value reporting device, which is based on the eighth embodiment and is characterized in that information related to measured values and specific contents are specified.

<Structure of the 12th embodiment>
An example of the configuration of the measured value reporting device of the twelfth embodiment is common to the configuration of the eighth embodiment shown in FIG. 28. Therefore, in this embodiment, only the differences from the eighth embodiment will be described.
In the measured value reporting device of the twelfth embodiment, as the measured value related information, abnormal noise, strange odor, overheating, discoloration, damage, stain, corrosion, looseness, crack, foreign matter adhesion, fusing, rusting, oil leakage, oil amount, mounting Condition, sound, vibration, operation / switching switch abnormality, sign / protection fence condition, separation distance from other objects, detachment of equipment parts, etc., inundation hole of wind and rain, entry hole of small animals, operation of ventilation port / ventilation fan , Locking and key breakage, loose switch / fuse, oil leakage and oil storage from fuel system, engine start / stop, rotation, deposit, liquid level, hue, electrode plate curvature, isolation plate, loose / damaged terminal , Acquire any one or more of the information of the operating state of the charging device and the amount of liquid. This measured value reporting device may be the measured value reporting device of the eighth embodiment.

"Abnormal noise" is a noise that does not occur when the equipment inside the cubicle is operating normally. In the case of overload or harmonic inflow from load equipment, abnormal noise is generated from the transformer and capacitor, and abnormal noise is also generated when the installation condition of each device is bad. It may be an event such as rain noise or draft. When the insulation of each device deteriorates, a weak electric discharge occurs, so it is possible to grasp the dielectric breakdown by measuring ultrasonic waves. Since the reaction of the echoing sound can be confirmed in the collected sound, the existence of the sound can be confirmed. As for the information of abnormal noise, history information is acquired.

The "offensive odor" is an odor that does not occur when the equipment in the cubicle is operating normally. It occurs when the cable coating and molded case circuit breaker overheat due to overload, when the contact is poor at each connection, or when the insulation of the insulation of each device deteriorates or is short-circuited. For example, the overload of the cable generates heat and the burning odor generated from the melting of the coating. As for the information of the offensive odor, the history information is acquired in relation to the abnormality.

"Overheating" may occur when the cable coating and the molded case circuit breaker overheat due to overload, when the contact is poor at each connection, or when the insulation of the insulation of each device is deteriorated or short-circuited. As for the information of overheating, history information is acquired in relation to the abnormality. The main cause of overheating is the generation of Joule heat due to overcurrent and contact resistance.

"Discoloration" occurs when the cable coating and the molded case circuit breaker overheat due to overload, when the contact is poor at each connection, and when the insulation of the insulation of each device is deteriorated or short-circuited. As for the discoloration information, history information is acquired in relation to the abnormality.

"Damage" is trauma to the cubicle equipment. If there is damage, the cable may be damaged. For example, the copper wire may be exposed due to poor construction or by biting off the cable coating by a small animal that has invaded the cubicle.

"Dirt" is dirt attached by dust or the like in the cubicle. If there is dirt, the insulation of the equipment will deteriorate due to the humidity.

"Corrosion" means that the structure of the equipment inside the cubicle is corroded. When there is corrosion, the cubicle leaks and water invades the cubicle, or water droplets are generated by dew condensation, and each device is corroded. In such a state, the insulation of the equipment is deteriorated.

"Looseness" refers to a state in which play occurs due to loose fitting of the structure (screws, valves, etc.) of the equipment inside the cubicle. If looseness occurs, poor contact will occur and micro-vibration or overheating due to Joule heat will occur.

A "crack" is a crack in the equipment inside a cubicle. If there is a crack, it is possible that there is a crack in the cable or equipment insulation. This is the case when the cable coating deteriorates, the equipment insulation deteriorates over time, or the insulation breaks down due to abnormal voltage such as lightning.
The locations where cracks occur include cable coverings and insulating supports (insulators, etc.). The cause is due to deterioration over time, construction failure, inflow of abnormal voltage such as lightning, etc., and discharge occurs.

"Foreign matter adhesion" is a state in which foreign matter adheres to the equipment inside the cubicle. If foreign matter adheres, the insulation of the equipment will deteriorate. Dust buildup and moisture further accelerate insulation degradation.

The "fuse display" is a mark displayed when the power fuse is blown. Possible causes of fusing include overload and other abnormalities in which large acceleration such as vibration is continuously applied.

"Rusting" means that rusting occurs in cubicle equipment. As a case where rust occurs, it is conceivable that the cubicle leaks and rainwater invades the cubicle, or water droplets are generated due to dew condensation.

"Leakage" is a state in which oil such as insulating oil used in cubicle equipment is leaking. For example, oil leakage may occur due to temperature rise due to overload or poor welding. If the insulating oil in the transformer leaks out, the cooling effect in the transformer will not be achieved normally and abnormalities such as an internal short circuit will occur. Therefore, the initial stage of oil leakage can be confirmed from the temperature rise and the like.

The "oil amount" is the remaining amount of insulating oil used in the equipment in the cubicle. For example, if the insulating oil in the transformer leaks, the cooling effect in the transformer may not be normally achieved or an abnormality such as an internal short circuit may occur.
The amount of oil can be checked with the oil meter installed in the transformer.

The "inspection operation state and mounting state of the transformer / accessory device" is the inspection operation state and mounting state of the thermometer, oil amount meter, etc. of the transformer.
It is possible that accurate readings cannot be measured if there is an abnormality in the inspection operation status or mounting status of the attached equipment.

"Vibration" is vibration that does not occur when the equipment inside the cubicle is operating normally. For example, a slight vibration may be generated from a transformer, a capacitor, or the like due to an overload, a harmonic inflow from a load facility, aged deterioration, or a sign of failure. It is conceivable that the vibration may cause the terminal to loosen or cause an internal short circuit, resulting in a failure.

"Abnormality of operation / switching switch, etc." means a state in which the switching switch does not operate normally. If it is not operating normally, it is possible that normal power distribution cannot be performed.

"The state of the sign / protection fence" indicates whether the state of the sign placed in the cubicle equipment is normal, or whether it corresponds to damage, stain, or loss, and is the state of the protection fence. Indicates whether the condition of the protective fences of the equipment and devices installed in the cubicle equipment is normal, or whether it corresponds to damage, stain, or loss.

The "separation distance from other objects" is the distance between the equipment installed in the cubicle and the equipment and the equipment and the electric wire, or the distance between the wall of the cubicle and the equipment or the electric wire arranged in the cubicle. It is the distance and the separation distance between electric wires. In order to release heat properly, it is necessary to arrange the equipment in the cubicle while maintaining a certain sense of distance. If the separation distance is insufficient, heat will be trapped in the cubicle due to insufficient convection and dissipation of heat, resulting in an increase in temperature. From the measurement result of the temperature sensor, it is possible to confirm whether or not the distance from other objects is normal. In addition, if the equipment is in contact with the electric wire, a ground fault will occur, and if the electric wire is in contact with each other, a short circuit will occur.

"Disengagement" means a state in which a fixing tool such as a screw used for equipment in a cubicle is loosened or detached. When the fixtures such as screws used in the equipment loosen, the equipment will vibrate slightly in the cubicle. Therefore, when an abnormal sound corresponding to the vibration sound of the metal is confirmed by the sound collection, the state of disconnection can be confirmed.

The "wind and rain inundation hole" is a state in which a hole through which wind and rain enter is opened due to rust or the like in the cubicle container that houses various cubicle equipment. If the inundation holes for wind and rain are open, the sound of wind and water will be generated in the cubicle container. Further, due to the influence of the outside air, the temperature change in the cubicle becomes larger than that in the case where there is no inundation hole for wind and rain. Therefore, it is possible to determine the presence or absence of inundation holes of wind and rain from the measured values of the collected sounds.

The "small animal entry hole" means a state in which a hole made for small animals to enter or a hole through which small animals can enter is opened in the cubicle container containing various equipment of the cubicle. When a small animal invades, it may bite off the cable, rust due to moisture such as urine, or short-circuit the electric circuit. When a small animal is invading, the body temperature of the animal partially raises the temperature around the animal to the extent that it does not lead to over-discharge, and the sound of the animal moving, breathing sounds, barking, hitting equipment, etc. An audible sound such as is generated. From this, it is possible to determine the existence of small animals from the measured values of the temperature sensor and the sound collected, and if small animals are invading, it is possible to confirm that an invasion hole for small animals has been created. can.

The "operation of the ventilation port / ventilation fan" is the operation of the ventilation port and the ventilation fan. When the ventilation port and ventilation fan are operating properly, the outside air and the air inside the cubicle circulate properly, so the effect of heat dissipation can be seen, and the concentration of constantly occurring odors such as oil odors. Can be replaced so that it does not become dark. Therefore, when the concentration of the naturally occurring odor in the cubicle where the temperature rises is high, it can be confirmed that there is an abnormality in the operation of the ventilation port and the ventilation fan.

"Locked and key damage" means that the cubicle door is unlocked and the key is damaged. If the cubicle door is unlocked or the key is damaged, the cubicle door, which should not be opened except when a person originally goes to the site for inspection, may be inadvertently opened. .. If an object other than the chief engineer in charge intrudes into the cubicle, there is a risk of accidentally handling precision equipment and destroying it, or causing an electric shock by touching equipment with high-voltage current flowing. There is sex. If the sound of opening the door is mixed with the collected sound when it is not the scheduled inspection date, it can be confirmed that the lock and the key are damaged.

"Loose switch fuse" is mainly the looseness of the switch of the knife switch connected to the circuit breaker or the switchboard and the looseness of the fuse housed in the knife switch. If the switch is loose, subtle changes such as the switch touching or not may occur irregularly, and irregular fluctuations can be confirmed in the values of the ammeter and voltmeter. Further, when the fuse is loose, the fuse is not stable, so that a slight vibration noise can be confirmed.

"Oil leakage and oil storage from the fuel system" refers to the amount of oil leakage and oil storage from the fuel system that is stored mainly for use in the prime mover, starting device, and accessory device. If there is oil leakage, the oil odor becomes high in the oil leakage portion, so it can be confirmed by odor measurement. The specific heat of oil stored as oil is greater than that of air. Therefore, when the amount of oil stored in the oil storage tank decreases and the proportion of air in the oil storage tank increases, the temperature of the air with a high specific heat tends to rise. It will be faster. Therefore, it is possible to confirm the amount of oil stored by determining the acceleration of the temperature rise obtained from the measurement result of the temperature sensor.

"Starting / stopping of an engine" mainly means starting / stopping a prime mover, a starting device, and an accessory device. When the engine is started or stopped, the motor accelerates or decelerates at the initial stage, so that the transformer load is larger than when the engine is exercising constantly. Therefore, abnormalities in the prime mover, starting device, and accessory device tend to appear prominently when a load is applied at the time of starting or stopping, which tends to manifest as a resonance sound of metal due to metal fatigue. Therefore, if the sound collected at the time of starting and stopping contains an abnormal sound, it is possible to confirm the abnormality at the time of starting / stopping the engine, and as a result, the prime mover, the starting device, and the accessory device. It leads to the discovery of anomalies.

"Rotation" refers to the rotation of a motor that is mainly used in generators, exciters, and installation devices. Since a constant speed of rotation sound is generated during normal rotation, it is possible to confirm whether or not there is an abnormality in rotation by checking whether or not irregular rotation sound is mixed with the collected sound.

The "precipitate" is a precipitate mainly settled in the electrolytic solution stored in the main body of the storage battery. The active substance peeled off from the electrode precipitates, causing an internal short circuit and generating heat. Since the specific heat of the presence of the precipitate changes due to the mixture of the precipitate, it is necessary to confirm whether or not the precipitate is mixed by checking the change over time and the acceleration of the change in the measurement result of the temperature sensor. Can be done.

The "liquid level" is mainly the liquid level of the electrolytic solution stored in the storage battery body and the cooling water stored in the tank. When there is a device adjacent to a portion having a liquid level, the slight vibration generated by the operation of the device is transmitted to the liquid level, and the liquid level also vibrates slightly. By checking the vibration of the liquid level, it is possible to determine whether or not there is an abnormality in the adjacent device. The vibration of the liquid level can be confirmed by the vibration system.

"Hue" refers to the hue of equipment, equipment, parts, stockpiles, fuels, insulating oil, etc. in a cubicle. This is information used to determine what these states are based on the hue. For example, it is known that the insulating oil of a transformer turns brown as it is oxidized and its insulating performance deteriorates. Information on the hue of the insulating oil is obtained from a transparent glass window provided on the side surface of the transformer. Can be obtained. In order to obtain the hue of the insulating oil of the transformer more accurately, windows facing the two opposite sides of the transformer are provided, and lighting is supplied from one window, and the lighting is provided in the other window. It is advisable to configure it so that the hue is acquired with the background. In addition, the performance of metals such as disconnectors, switches, circuit breakers, etc. that make up terminals and current paths deteriorate when discolored due to rust, etc., so hue information is also important for these.

"Pole plate curvature" is a state in which the electrode plate in the storage battery is curved. If the plates of both poles are curved and come into contact with each other, it may cause a short circuit. Therefore, if the plates are curved, it is necessary to correct the plates at an early stage. When electrons gather on the plate, the temperature of the plate rises. Therefore, the shape of the plate can be confirmed by measuring the temperature and coloring a portion having a higher measurement temperature than the surroundings.

The "isolation plate" is an isolation plate that is an insulating material. If the isolation is not properly removed by the isolation plate, the insulation effect will be weakened, and a small amount of current will flow in the part where electricity should not flow. Therefore, it is possible to confirm whether or not there is an abnormality in the arrangement of the isolation plate from the measurement results by the voltmeter and the ammeter.

"Loose / damaged terminals" refers to a state in which the structure (screws, valves, etc.) of the equipment inside the cubicle is loosely fitted, causing play, and damage to the equipment in the cubicle. If looseness has occurred, slight vibration has occurred and an abnormality is found in the vibrating meter. In addition, a metallic sound is generated in response to the vibration, and an abnormality is observed in the sound collector. If the damage has occurred, the cable may be damaged. This is a case where the outer skin of the cable is deteriorated and the copper wire is exposed due to being bitten off by a small animal such as a mouse that has invaded the cubicle. In such a state, a small amount of electricity leaks out of the cable, and the voltage of the cable drops. Therefore, damage can be confirmed by the abnormal value of the voltage that does not lead to a short circuit.

The "operating state of the charging device" is whether the charging device is operating normally. If the charging device is operating normally, the voltage value of the storage battery will gradually increase, so it is possible to check the operating status of the charging device by checking the change over time with a voltmeter. can. Also, if the operating state of the charging device is abnormal, the sound during operation includes abnormal sound, so by checking whether the collected sound contains abnormal sound. , You can check the operating status of the charging device.

The "liquid amount" is the amount of oil stored or the amount of water stored. The specific heat of the oil stored as oil and the water stored is larger than that of air. Therefore, if the amount of oil stored in the oil storage tank or the amount of water stored in the water storage tank decreases and the proportion of air in the oil storage tank or water storage tank increases, the temperature of the air with high specific heat tends to rise. And the rate of temperature rise in the water storage tank is faster than when there is a lot of oil or water. Therefore, by determining the acceleration of the temperature rise obtained from the measurement result of the temperature sensor, it is possible to confirm the amount of oil storage and the amount of water stored.

<Embodiment 12 Hardware Configuration>
The hardware configuration of the cubicle security inspection system including the measured value reporting device of the twelfth embodiment is basically the same as the hardware configuration of the seventh embodiment. Therefore, the description thereof will be omitted in this embodiment.

<Example 12 Processing flow>
The processing flow of the cubicle security inspection system including the measured value reporting device of the twelfth embodiment is basically the same as the processing flow of the seventh embodiment.

<Embodiment 13: Mainly corresponding to claim 13>
<Outline of Embodiment 13>
The internal image reporting device of the present embodiment is an internal image reporting device, characterized in that the content of the internal image information is limited. The internal image reporting device may be the internal image reporting device of the cubicle automatic security inspection system of the tenth embodiment. Further, the internal / external image reporting device may be used instead of the internal image information or a report based on the external image information which is the information of the external image together with the internal image information. Hereinafter, the internal image and / or the external image is referred to as an internal / external image, and a device that outputs a report based on the internal / external image is referred to as an internal / external image report device.

<Structure of the 13th embodiment>
An example of the configuration of the internal / external image-related information reporting device of the thirteenth embodiment is common to the configuration of the tenth embodiment shown in FIG. 33. Therefore, in this embodiment, only the differences from the tenth embodiment will be described.
In the internal / external image-related information reporting device of the thirteenth embodiment, the internal / external image information of the internal / external image-related information reporting device of the tenth embodiment includes discoloration, damage, stain, corrosion, looseness, cracks, foreign matter adhesion, fusing, and rusting. , Oil leakage, amount of oil, mounting condition, vibration, operation / switching switch abnormality, sign / protective fence condition, separation distance from other objects, detachment of equipment parts, etc. Obtain one or more of the information on the operation of the ventilation port / ventilation fan, the lock and key breakage, and the looseness of the disconnector / fuse.

"Discoloration" is a scorched mark on the surroundings due to overheating or leakage current. It is mainly caused by a transformer abnormality in the cubicle and a short circuit of the cable. The discoloration information can be confirmed by analyzing the camera image for burn marks.

"Damage" is trauma to the cubicle equipment. If there is damage, the cable may be damaged. This is a case where the outer skin of the cable is damaged and the copper wire is exposed by being bitten off by a small animal such as a mouse that has invaded the cubicle. In such a state, a small amount of current leaks out of the cable, and the voltage of the cable drops. The presence or absence of damage can be confirmed by analyzing the cables and equipment inside the cubicle for signs of damage using camera images.

"Dirt" is dirt adhering to the equipment inside the cubicle. If it is dirty, the heat dissipation of the equipment will be hindered and the temperature of the equipment will rise slightly. The presence or absence of fouling can be confirmed by analyzing the camera image for traces of the fouled portion.

"Corrosion" means that the equipment inside the cubicle is corroded. If there is corrosion, it is possible that the cable is corroded. This is a case where the outer skin of a cable is corroded by leaking rain from the cubicle and flooding the inside of the cubicle, or by forming water droplets due to dew condensation. In such a state, a small amount of current leaks to the outside of the cable, so that the output pressure of the cable decreases. The presence or absence of corrosion can be confirmed by analyzing the camera image for traces of corroded parts.

"Looseness" refers to a state in which play occurs due to loose fitting of the structure (screws, valves, etc.) of the equipment inside the cubicle. If there is slack, the screw thread or one of the corners of the valve is slightly different from the correct position, so it is possible to confirm the presence or absence of slack by comparing the camera images of the relevant part.

A "crack" is a crack in a cubicle facility. If there is a crack, the cable may be cracked. This is a case where the outer skin of the cable is deteriorated and the central copper wire is exposed due to being bitten off by a small animal such as a mouse that has invaded the cubicle. In such a state, a small amount of current leaks out of the cable. The presence or absence of cracks can be confirmed by analyzing the camera image for traces of cracks.

"Foreign matter adhesion" is foreign matter adhering to the equipment inside the cubicle. If foreign matter adheres, the heat dissipation of the equipment will be hindered and the temperature of the equipment will rise slightly. The presence or absence of foreign matter adhesion can be confirmed by analyzing whether the camera image shows deposits or imprints different from those in the normal state.

"Fusing" is the fusing that occurs in the cubicle equipment. Fusing occurs when the temperature rises locally due to overheating or the like, and the sheath or the like of the cable melts from the center point of overheating and the wire breaks. The presence or absence of fusing can be confirmed by analyzing whether there is any trace of disconnection after the melted portion or melting in the cable portion by the camera image.

"Rusting" means that rusting occurs in cubicle equipment. As a case where rust occurs, it is conceivable that the cubicle leaks and infiltrates into the cubicle, or water droplets are generated due to dew condensation. When rusting occurs, leakage current tends to flow out from that portion, so the voltage inside the cubicle drops. The presence or absence of rust can be confirmed by analyzing whether rust or imprints of rust are reflected on the outer wall of the equipment or the metal part inside.

"Leakage" is a state in which oil such as insulating oil used for equipment in the cubicle is leaking. For example, if the insulating oil in the transformer leaks out, the transformer effect, insulation effect, and heat dissipation effect in the transformer will not be achieved normally, and abnormalities such as overheating, overcurrent, and overvoltage will occur. The presence or absence of oil leakage can be confirmed by analyzing the image of the memory of the oil storage meter and analyzing whether there are any oil pools or traces of oil around the oil storage tank.

The "oil amount" is the remaining amount of oil such as insulating oil used for the equipment in the cubicle. For example, if the insulating oil in the transformer leaks out or decreases as a result of long-term volatilization, the transformer effect, insulation effect, and heat dissipation effect in the transformer will not be achieved normally, such as overheating, overcurrent, and overvoltage. An abnormality occurs. The amount of oil can be confirmed by performing an image analysis of the memory of the oil storage meter.

The "mounting state" is the mounting state of the equipment in the cubicle. The mounting state can be confirmed by image analysis to see if the fixed material is displaced from the normal position.

"Vibration" means that the equipment in the cubicle vibrates. For example, it is mainly caused by slight vibrations in the iron core and windings of a transformer. Since micro-vibration of transformers and equipment occurs continuously, it is difficult to make a clear judgment from the recorded image, but vibration is performed by setting a point and performing an analysis focusing on the part where the point is moving. It is possible to confirm the presence or absence of vibration and the degree of vibration.

"Operation / switching switch abnormality" means a state in which the operation / switching switch does not operate normally. It is possible to confirm whether or not the operation / switching switch is operating normally by acquiring the operation / switching switch from the camera image and performing comparative analysis with the state of the correct position.

The "state of the sign / protection fence" indicates whether the state of the sign placed in the cubicle is normal, or whether it corresponds to damage, stain, or loss, and the state of the protection fence is , Indicates whether the condition of the protective fence of the equipment and devices installed in the cubicle is normal, or whether it corresponds to damage, stain, or loss.

The "separation distance from other objects" is the distance between the equipment arranged in the cubicle and the equipment, or the distance between the wall of the cubicle and the equipment arranged in the cubicle. In order to release heat properly, it is necessary to arrange the equipment in the cubicle while maintaining a certain sense of distance. If the separation distance is insufficient, heat will be trapped due to insufficient convection and radiation in the cubicle, resulting in an increase in temperature. From the measurement result of the temperature sensor, it is possible to confirm whether or not the distance from other objects is normal.

"Disengagement" means a state in which a fixing tool such as a screw used for equipment in a cubicle is loosened or disengaged. By comparing and analyzing the camera image with the state of the correct position, it is possible to confirm whether or not the fixture of the equipment is loosened and the number of protrusions is increased, so that it is possible to confirm whether or not the fixture is detached.

The "wind and rain inundation hole" is a state in which a hole through which wind and rain enter is opened in the cubicle that houses various equipment. If the wind and rain inundation holes are open, the sound of wind and water will be generated in the cubicle. Further, due to the influence of the outside air, the temperature change in the cubicle becomes larger than that in the case where there is no inundation hole for wind and rain. By comparing and analyzing the camera image with the normal state, it is possible to confirm whether or not there is a hole in the container cubicle. Alternatively, it is possible to confirm the presence or absence of inundation holes in the wind and rain by analyzing whether or not the state in which rainwater has accumulated or has been transferred into the cubicle is reflected in the photograph.

The "small animal entry hole" means a state in which a hole made for small animals to enter or a hole through which small animals can enter is opened in the cubicle container containing various equipment of the cubicle. When small animals invade, they may bite off cables, rust due to moisture such as urine, or short-circuit. By comparing and analyzing the camera image with the normal state, it is possible to confirm whether or not the entry hole of the small animal is open in the cubicle. Alternatively, if the camera image is analyzed and the appearance of the small animal is reflected, if the excrement of the small animal is confirmed, or if the trace of the small animal biting is found on the cable etc., the small animal has invaded. From this, it can be confirmed that there is an entry hole for small animals.

The "operation of the ventilation port / ventilation fan" is the operation of the ventilation port and the ventilation fan. If the ventilation port is in a normal state, it is possible to check the outside of the cubicle from the ventilation port at regular intervals. Therefore, by comparing and analyzing the camera images, whether or not the ventilation port is in a normal state. Can be confirmed. If the ventilation fan is operating properly, it can be confirmed that the blades are rotating and moving at a constant speed, so by comparing and analyzing the video and video, it is confirmed whether the ventilation fan is operating normally. be able to.

"Locked and key damage" means that the cubicle door is unlocked and the key is damaged. If the cubicle door is unlocked or the key is damaged, the cubicle door, which should not be opened except when the person in charge goes to the site for inspection, may be inadvertently opened. .. If a person who is not a professional inspector invades the cubicle, he / she may inadvertently handle and destroy precision equipment, or touch equipment with high-voltage current flowing, causing a serious accident such as electric shock or injury. There is a risk. By comparing and analyzing the locked state of the key provided in the cubicle and the camera image, it is possible to confirm whether or not the key is locked and the key is damaged.

"Loose switch fuse" is mainly the looseness of the switch of the disconnector connected to the circuit breaker and the switchboard and the looseness of the fuse housed in the AC load switch. If the switch is loose, subtle changes such as the switch touching or not may occur irregularly, and irregular fluctuations can be confirmed in the values of the ammeter and voltmeter. Further, when the fuse is loose, the fuse is not stable, so that slight vibration can be confirmed. Therefore, the contact part of the switch is photographed with a camera image to analyze whether it is in contact, and the fuse part is photographed with a camera image to see if the fuse is loosened and the temperature rise part is increased compared to the normal state. It is possible to confirm whether or not the fuse is loosened by comparative analysis. Alternatively, the determination may be made by acquiring the measured value portion of the ammeter or the voltmeter from the camera image and acquiring the measured value of the ammeter or the voltmeter from the camera image.

"Oil leakage and oil storage from the fuel system" refers to the amount of oil leakage and oil storage from the fuel system that is stored mainly for use in the prime mover, starting device, and accessory device. If there is an oil leak, the amount of oil stored will decrease, so it is possible to confirm whether or not the oil has leaked by comparing the positions of the oil levels over time with a video camera. Similarly, it is possible to confirm whether or not the required amount of oil is stored by comparing the positions of the oil levels with respect to the amount of oil stored.

"Starting / stopping of an engine" mainly means starting / stopping a prime mover, a starting device, and an accessory device.

"Rotation" refers to the rotation of a motor that is mainly used in generators, exciters, and installation devices. During normal rotation, it rotates at a constant speed, so by analyzing the video and video of the rotating part and checking whether the rotation at a constant speed is disturbed, whether or not the rotation is performed normally. Can be confirmed.

The "precipitate" is mainly an electrolytic solution stored in the main body of the storage battery or a precipitate that is sunk in a tank that stores water. The presence or absence of the precipitate can be confirmed by analyzing whether or not the shadow of the precipitate is reflected in the camera image of the electrolytic solution or the water tank.

The "liquid level" is mainly the liquid level of the electrolytic solution stored in the main body of the storage battery and the water stored in the tank. When there is a device adjacent to a portion having a liquid level, the slight vibration generated by the operation of the device is transmitted to the liquid level, and the liquid level also vibrates slightly. By checking the vibration of the liquid level, it is possible to determine whether or not there is an abnormality in the adjacent device. The vibration of the liquid level can be confirmed by a vibration meter.

"Hue" refers to the hue of equipment, equipment, parts, stockpiles, fuels, insulating oil, etc. in a cubicle. This is information used to determine what these states are based on the hue. For example, it is known that the insulating oil of a transformer turns brown as it is oxidized and its insulating performance deteriorates. Information on the hue of the insulating oil is obtained from a transparent glass window provided on the side surface of the transformer. Can be obtained. In order to obtain the hue of the insulating oil of the transformer more accurately, windows facing each other on the side surfaces of the transformer are provided, and lighting is supplied from one window, and the lighting is provided in the other window. It is advisable to configure it so that the hue is acquired with the background. In addition, the performance of metals such as disconnectors, switches, circuit breakers, etc. that make up terminals and current paths deteriorate when discolored due to rust, etc., so hue information is also important for these.

"Pole plate curvature" is a state in which the electrode plate in the storage battery is curved. If the plates of both poles are curved and come into contact with each other, it may cause a short circuit. Therefore, if the plates are curved, it is necessary to correct the plates at an early stage. By confirming the shape of the electrode plate from the camera image, it is possible to confirm the presence or absence of bending of the electrode plate.

"Isolation plate" means whether or not the isolation plate, which is an insulating material, is properly isolated. By comparing and analyzing the camera image with the isolation plate placed in the correct position, it is possible to confirm whether or not the isolation plate is properly isolated.

"Loose / damaged terminals" refers to a state in which the structure (screws, valves, etc.) of the equipment inside the cubicle is loosely fitted, causing play, and damage to the equipment in the cubicle. If looseness occurs, it is possible to confirm the looseness of the terminal if the protruding length of the terminal is increasing by comparing and analyzing the camera image with the terminal fixed in the correct position. can. Alternatively, if the terminal is loose, slight vibration is generated, so if the position changes slightly by analyzing the video movie, it is vibrating, so check that the terminal is loose. can do.
If the damage has occurred, the cable may be damaged. This is a case where the outer skin of the cable is deteriorated and the central copper wire is exposed due to being bitten off by a small animal such as a mouse that has invaded the cubicle. The presence or absence of damage can be confirmed by analyzing whether or not there is any evidence of damage to the cubicle equipment using camera images.

The "operating state of the charging device" is whether the charging device is operating normally. When the charging device is operating normally, the voltage value of the storage battery gradually increases, so that the operating state of the charging device can be confirmed by analyzing the video and video of the voltmeter monitor.

The "liquid amount" is the amount of oil stored or the amount of water stored. The amount of liquid can be confirmed by comparing the position of the liquid level with a video camera over time.

<Embodiment 13 Hardware Configuration>
The hardware configuration of the cubicle security inspection system including the measured value reporting device of the thirteenth embodiment is basically the same as the hardware configuration of the tenth embodiment. Therefore, the description thereof will be omitted in this embodiment.

<Process 13 Flow of processing>
The processing flow of the cubicle security inspection system including the measured value reporting device of the thirteenth embodiment is basically the same as the processing flow of the tenth embodiment.

<Embodiment 14: Mainly corresponding to claim 14>
<Outline of Embodiment 14>
The invention in the present embodiment uses a template registered in advance for creating the report according to any one of the eighth embodiment, the ninth embodiment, the eighth embodiment or the tenth embodiment and the eleventh embodiment. It is a cubicle automatic security inspection system equipped with a measured value reporting device, which is characterized by being used.

<Structure of the 14th embodiment>
FIG. 40 is a functional block diagram showing an example of the configuration of the measured value reporting device according to the fourteenth embodiment. As shown in FIG. 40, a report history information acquisition unit (4001), a measurement value-related information generation unit (4002), a template-based measurement value-related information report output means (4003), and a measurement value-related information report output unit (4004). It has a measurement value system report template holding unit (4005), a measurement value related information type acquisition unit (4006), and a measurement value system report template acquisition unit (4007). In the present embodiment, the description of the configuration common to any one of the eighth embodiment, the ninth embodiment, and the twelfth embodiment will be omitted, and only the characteristic configuration in the present embodiment will be described.

<Explanation of Embodiment 14 Configuration>
<Explanation of Configuration of Embodiment 14: Measurement Value System Report Model Holding Unit>
The "measurement value system report template holding unit" holds a plurality of report templates prepared according to the type of measurement value-related information to be reported, which are report templates and include advice information in some cases. .. The template can include a template that contains advice information. The advice information is, for example, "Why don't you replace the parts soon?""It seems that small animals invade a lot. "How about?""The equipment is conspicuously dirty. Please clean the equipment."
There are multiple templates held by the measured value report template holder according to the target and format for creating the report, and an appropriate template is selected and used from among them.

<Explanation of Configuration of Embodiment 14: Measurement Value Related Information Type Acquisition Unit>
The “measured value-related information type acquisition unit” acquires the measured value-related information type, which is the type of the generated measurement-related information. Since the measured value system report template described above is prepared according to the type of measured value, the type of measured value system report cannot be selected unless the type of measured value is specified. As the type of measured value, for example, the measured value for a transformer, the measured value for a storage battery, the measured value for a cable, and the like can be considered to distinguish the types of measured values by classification for each facility. Alternatively, it is conceivable to distinguish the types of measured values by classifying each unit into a temperature sensor, a sound collecting sensor, an ammeter, and a voltmeter.
The selection of the type of the measured value is automatically selected by using the sensor identification information, the cubicle identification information, and the measurement target identification information associated with the acquired measured value.

<Explanation of the configuration of the 14th embodiment: Measurement value system report template acquisition unit>
The "measurement value system report template acquisition unit" acquires a report template according to the acquired measurement value-related information type. A plurality of measurement value system report templates may be selectively configured for one measurement value type. In that case, the system may be configured to randomly determine which format to select from multiple measurement value report templates, or the purpose of the report (regular report, found to be abnormal). Rules to be issued afterwards, monthly or daily reports, internal and external, departmental, etc.-(in the case of design items set in the system in advance, and in the case of user selection and setting) It may be configured to select according to (possible), or it may be configured so that the user can select and select a favorite template each time.

In the selection of the template, it is conceivable to configure the selection according to whether there is advice or not. When using a template with an advice column, the measurement value related information report will be generated by automatically generating the advice in the report.

<Explanation of the configuration of Embodiment 14: Model-based measured value-related information report output means>
The "measurement value-related information report output means using a template" outputs a measurement value-related information report to be output using the acquired report template and the generated measurement value-related information. The output method is a visible format such as monitor display, mail output, and printout. The output trigger may be configured to require an instruction from the user, or may be configured so that the system automatically outputs the measured value-related information report after it is generated.

<Embodiment 14 Hardware Configuration>
FIG. 41 is a diagram showing an example of the most basic hardware configuration of the measured value reporting device of the fourteenth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "report history information acquisition program", "measurement value related information generation program", "measurement value related information report output program", the acquired report template, and the generated measurement value related information are displayed. "Measurement value related information report output substep" that outputs the measurement value related information report to be output using, multiple reports prepared according to the type of measurement value related information to be reported, which is the template of the report. "Measurement value system report template holding program" that holds a template that contains advice information in some cases, and "Measurement value related information type" that acquires the measurement value related information type that is the type of generated measurement value related information. "Acquisition program" and "Measurement value system report template acquisition program" to acquire the report template according to the acquired measurement value related information type are held, and these programs are based on the execution command of a series of programs. Is read into the main memory and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate measured value-related information. As the data, as in the program, report history information, measured value related information, measured value related information type, measured value system report template, various setting information such as communication (not shown) are held in the non-volatile memory, and are mainly used. It is loaded into memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Process 14 Process Flow>
FIG. 42 is a diagram showing an example of the processing flow of the measured value reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. Of the measurement-related information generated to perform the measurement-related information generation step to generate the measurement-related information, which is information about the measurement of each cubicle, and to select the held measurement-related report template. Execute the measurement value related information type acquisition step to acquire the type, and select the measurement system report template according to the acquired measurement value related information type. Execute the measurement value system report template selection step to generate the measurement value related. Output the measured value related information report that is a report of information Execute the measured value related information report output step, and output the measured value related information report using the report template acquired at the time of executing the measured value related information report output step. Execute the template utilization measurement value related information report output substep.
Since the system is constantly inspected for security 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be resumed.

<Embodiment 15: Mainly corresponding to claim 15>
<Outline of Embodiment 15>
The invention in the present embodiment is characterized by utilizing a template registered in advance in creating the report according to any one of the eleventh embodiment and the fourteenth embodiment, which are subordinate to the tenth embodiment or the tenth embodiment. It is a cubicle automatic security inspection system with an internal image reporting device.

<Structure of the 15th embodiment>
FIG. 43 is a functional block diagram showing an example of the configuration of the internal image reporting device according to the fifteenth embodiment. As shown in FIG. 43, a report history information acquisition unit (4301), an internal image-related information generation unit (4302), an internal image system report template holding unit (4303), an internal image-related information report output unit (4304), and a template. It has an internal image-related information report output means (4305), an internal image-related information type acquisition unit (4306), and an internal image system report template acquisition unit (4307). In the present embodiment, the description of the configuration common to any one of the embodiment 11 or the embodiment 11 subordinate to the embodiment 10 or the embodiment 10 is omitted, and only the characteristic configuration in the present embodiment will be described. do.

<Explanation of Embodiment 15 Configuration>
<Explanation of the configuration of the 15th embodiment: Internal image system report template holding unit>
The "internal image system report template holder" is a report template that holds multiple report templates prepared according to the type of internal image-related information to be reported, including advice information in some cases. .. The template can include a template that contains advice information. The advice information is, for example, "Why don't you replace the parts soon?""It seems that small animals invade a lot. "How about?""The equipment is conspicuously dirty. Please clean the equipment."
There are multiple templates held by the internal image report template holder, depending on the target and format for creating the report, and an appropriate template is selected and used from among them.

<Explanation of Configuration 15: Internal Image Related Information Type Acquisition Unit>
The "internal image-related information type acquisition unit" acquires the internal image-related information type, which is the type of the generated internal image-related information. Since the internal image system report template described above is prepared according to the type of the internal image, the type of the internal image system report cannot be selected unless the type of the internal image is specified. As the type of internal image, for example, an image of a high-pressure load switch, an image of a transformer, an image of a molded case circuit breaker, and the like can be considered to distinguish the types of cubicle internal images by classification for each facility.
The selection of the type of the internal image is automatically selected by using the camera / video identification information, the cubicle identification information, and the measurement target identification information associated with the acquired internal image.

<Explanation of the configuration of the 15th embodiment: Internal image system report template acquisition unit>
The "internal image system report template acquisition unit" acquires a report template according to the acquired internal image-related information type. A plurality of internal image system report templates may be configured to be selectable for one internal image type. In that case, the system may be configured to randomly determine which format to select from multiple internal image report templates, or the purpose of the report (regular report, found to be abnormal). Rules to be issued afterwards, monthly or daily reports, internal and external, departmental, etc.-(in the case of design items set in the system in advance, and in the case of user selection and setting) It may be configured to be selected according to (possible), or it may be configured so that the user can select and select a favorite template each time.

In the selection of the template, it is conceivable to configure the selection according to whether there is advice or not. When using a template with an advice column, the internal image related information report will be generated by automatically generating the advice in the report.

<Explanation of the configuration of the 15th embodiment: Internal image-related information report output means using a template>
The "internal image-related information report output means using a template" outputs an internal image-related information report to be output using the acquired report template and the generated internal image-related information. The output method is a visible format such as monitor display, mail output, and printout. The output trigger may be configured to require an instruction from the user, or may be configured so that the system automatically outputs the internal image-related information report after it is generated.

<Embodiment 15 Hardware Configuration>
FIG. 44 is a diagram showing an example of the most basic hardware configuration of the internal image reporting device of the fifteenth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "history information acquisition program for reports", "internal image related information generation program", "internal image related information report output program", the acquired report template, and the generated internal image related information are displayed. "Internal image related information report output substep using template" to output the internal image related information report to be output by using, multiple reports prepared according to the type of internal image related information to be reported, which is the template of the report. "Internal image system report template holding program" that holds a template that contains advice information in some cases, and "Internal image related information type" that acquires the internal image related information type that is the type of generated internal image related information. The "acquisition program" and the "internal image system report template acquisition program" that acquires the report template according to the acquired internal image-related information type are held, and these programs are based on the execution instructions of a series of programs. Is read into the main memory and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate internal image-related information. As data, history information for reports, internal image-related information, internal image-related information types, internal image system report templates, various setting information such as communication (not shown), etc. are held in the non-volatile memory as in the program. It is loaded into memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Flow of embodiment 15 processing>
FIG. 45 is a diagram showing an example of the processing flow of the internal image reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. Of the measurement-related information generated to select the retained internal image-based report template, perform the internal image-related information generation step to generate the internal image-related information, which is information about the internal image of each cubicle. Internal image related information to acquire the type Execute the type acquisition step and select the measurement system report template according to the acquired internal image related information type. Execute the internal image system report template selection step to generate the internal image related. Output the internal image related information report that is an information report Execute the internal image related information report output step, and output the internal image related information report using the report template acquired at the time of executing the internal image related information report output step. Execute the template use internal image related information report output substep.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 16: Mainly corresponding to claim 16>
<Outline of Embodiment 16>
The invention of Embodiment 16 relates to a cubicle in addition to the measured value reporting apparatus according to any one of Embodiment 10, Embodiment 11 dependent on Embodiment 8, Embodiment 9, Embodiment 8 or Embodiment 9. It is an invention relating to an automatic cubicle security inspection system having a measured value reporting device, which comprises adding information about changes in laws and regulations and news to a measured value report.

<Structure of the 16th embodiment: Measured value reporting device>
FIG. 46 is a diagram showing an example of the most basic configuration of the measured value reporting device. As shown in the figure, the measured value reporting device of the 16th embodiment includes a history information acquisition unit (4601) for reporting, a measured value related information generation unit (4602), a measured value related information report output unit (4603), and a cubicle-related unit. It has an information acquisition unit A (4604) and a cubicle-related information addition means A (4605). In the present embodiment, the description of the common configuration with any one of the eighth embodiment, the ninth embodiment, the eighth embodiment, or the tenth embodiment and the eleventh embodiment, which are subordinate to the ninth embodiment, is omitted, and the present embodiment is characterized. I will explain the typical configuration.

<Explanation of Embodiment 16 Configuration>
<Explanation of the configuration of the 16th embodiment: cubicle-related information acquisition unit A>
The "cubicle-related information acquisition unit A" acquires cubicle-related information, which is news and changes in laws and regulations related to cubicles, via a network. Cubicle-related laws and regulations change on a regular basis, so stakeholders need to keep track of information. However, it is wasteful to devote personnel to such information monitoring work. By the function of the cubicle-related information acquisition department A, information and news on changes in laws and regulations are provided along with regular reports, so that users can take appropriate measures without actively paying attention. Become.
The first cubicle-related information is information related to a person who uses the cubicle. The information provided may be configured to emphasize information directly related to the user.

<Structure of the 16th Embodiment: Cubicles-related information addition means A>
The "cubicle-related information addition means A" includes the acquired cubicle-related information in the internal image-related information report. When the internal image-related report uses the measured value system report template, the measured value system report template is configured to include the one to which the first cubicle-related information can be added.
Including the acquired cubicle-related information in the internal image-related information report means that one corner of the report can be used to provide a space for adding the first cubicle-related information, for example, in the header or footer. Conceivable. Alternatively, the number of reports may be increased by one, and the information related to the first cubicle may be added to the added magazine. When related laws and regulations change, we will add information related to the first cubicle by adding the number of reports so that we can describe both before and after the change, and repeatedly remind us that the law will be changed soon. In such a case, a configuration such as using a gap space such as a header or a footer may be used.

<Embodiment 16 Hardware Configuration>
FIG. 47 is a diagram showing an example of the most basic hardware configuration of the measured value reporting device of the 16th embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "report history information acquisition program", "measured value related information generation program", "measured value related information report output program", and "measured value related information report" include the acquired cubicle related information. "First cubicle-related information addition subprogram", changes in laws and regulations related to cubicles, "first cubicle-related information acquisition program" to acquire news cubicle-related information via the network, and a series These programs are read into the main memory based on the execution instruction of the program of, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate measured value-related information. As the data, as in the program, report history information, measured value related information, measured value related information type, measured value system report template, various setting information such as communication (not shown) are held in the non-volatile memory, and are mainly used. It is loaded into memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Process 16 Process Flow>
FIG. 48 is a diagram showing an example of the processing flow of the measured value reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. Perform measurement-related information generation steps to generate measurement-related information, which is information about each cubicle's measurements, change regulations related to cubicles, and get news cubicle-related information over the network. Executes the first cubicle-related information acquisition step to output the measured value-related information report, which is a report of the generated measured-value-related information. Performs the measured-value-related information report output step and outputs the measured-value-related information report. At the time of step execution, the cubicle-related information addition means A sub-step for including the acquired cubicle-related information in the measured value-related information report is executed.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 17: Mainly corresponding to claim 17>
<Outline of Embodiment 17>
The invention of embodiment 17 relates to a cubicle in addition to the internal image reporting apparatus according to any one of embodiments 14 to 16 subordinate to embodiment 10, embodiment 11, embodiment 10 or embodiment 11. It is an invention relating to a cubicle automatic security inspection system having an internal image report device, which is characterized by adding information about changes in laws and regulations and news to an internal image report.

<Structure of the 17th embodiment: Internal image reporting device>
FIG. 49 is a diagram showing an example of the most basic configuration of the internal image reporting device. As shown in the figure, the internal image reporting device of the seventeenth embodiment includes a report history information acquisition unit (4901), an internal image-related information generation unit (4902), an internal image-related information report output unit (4903), and a cubicle-related unit. It has an information acquisition unit B (4904) and a cubicle-related information addition means B (4905). In the present embodiment, the description of the common configuration with any of the embodiments 14 to 16 subordinate to the tenth embodiment, the eleventh embodiment, the tenth embodiment, and the eleventh embodiment is omitted, and the description is characteristic of the present embodiment. The configuration will be explained.

<Explanation of Embodiment 17 Configuration>
<Explanation of the configuration of the 17th embodiment: cubicle-related information acquisition unit B>
The "cubicle-related information acquisition unit B" acquires cubicle-related information such as changes in laws and regulations related to cubicles and news via a network. Cubicle-related laws and regulations change on a regular basis, so stakeholders need to keep track of information. However, it is wasteful to devote personnel to such information monitoring work. By the function of the cubicle-related information acquisition department B, information and news on changes in laws and regulations are provided along with regular reports, so that users can take appropriate measures without actively paying attention. Become.
The second cubicle-related information is information related to a person who uses the cubicle. The information provided may be configured to emphasize information directly related to the user.

<Structure of the 17th embodiment: means for adding cubicle-related information B>
The "cubicle-related information addition means B" includes the acquired cubicle-related information in the internal image-related information report. When the internal image-related report uses the internal image-based report template, the internal image-based report template is configured to include the one to which the second cubicle-related information can be added.
The idea of including the acquired cubicle-related information in the internal image-related information report is to use one corner of the report and configure it so that, for example, a space for adding the earth cubicle-related information is provided in the header or footer. Be done. Alternatively, the number of reports may be increased by one, and the second cubicle-related information may be added to the added magazine. When related laws and regulations change, we will add information related to the second cubicle by adding the number of reports so that we can describe both before and after the change, and repeatedly remind us that the law will be changed soon. In such a case, a configuration such as using a gap space such as a header or a footer may be used.

<Embodiment 17 Hardware Configuration>
FIG. 50 is a diagram showing an example of the most basic hardware configuration of the internal image reporting device of the seventeenth embodiment. As shown in the figure, the present invention can basically be configured by a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "history information acquisition program for reports", "internal image-related information generation program", "internal image-related information report output program", and "internal image-related information report" include the acquired cubicle-related information. "Second cubicle-related information addition subprogram", changes in laws and regulations related to cubicles, "second cubicle-related information acquisition program" to acquire news cubicle-related information via the network, and a series of These programs are read into the main memory based on the execution instruction of the program of, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and constantly acquire report history information and generate internal image-related information. As data, history information for reports, internal image-related information, internal image-related information types, internal image system report templates, various setting information such as communication (not shown), etc. are held in the non-volatile memory as in the program. It is loaded into memory, referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Flow of embodiment 17 processing>
FIG. 51 is a diagram showing an example of the processing flow of the internal image reporting device in the present embodiment. As shown in the figure, the report history information acquisition step for acquiring the report history information acquired for the report, which is the history information for a predetermined period, is executed, and based on the acquired report history information. Perform internal image-related information generation steps to generate internal image-related information that is information about the internal image of each cubicle, change regulations related to cubicles, and get news cubicle-related information via the network. Executes the second cubicle-related information acquisition step to output the internal image-related information report that is the generated internal image-related information report. Executes the internal image-related information report output step and outputs the internal image-related information report. At the time of step execution, the cubicle-related information addition means B sub-step for including the acquired cubicle-related information in the internal image-related information report is executed.
Since the automatic security inspection system constantly conducts security inspections 24 hours a day, in most cases, after the above various steps are completed, the system will not be terminated and the information acquisition by each unit will be returned again. ..

<Embodiment 18: Mainly corresponding to claim 18>
<Outline of Embodiment 18>
The invention in the present embodiment is the alarm output device according to any one of the first to eleventh embodiments and the fourteenth to seventeenth embodiments.

<Structure of the 18th embodiment>
Since each configuration, function, hardware, and operation method of the alarm output device according to the present embodiment have already been described in the first to eleventh embodiments and the fourteenth to the seventeenth embodiments, the present embodiment has already been described. The description is omitted in the form.

<Embodiment 19: Mainly corresponding to claim 19>
<Outline of Embodiment 19>
The invention in this embodiment is the cubicle device according to any one of the first to eleventh embodiments and the fourteenth to seventeenth embodiments.

<Structure of Embodiment 19>
Each configuration, function, hardware, and operation method of the cubicle device according to the present embodiment have already been described in the first to eleventh embodiments and the fourteenth to the seventeenth embodiments. Then, the explanation is omitted.

<Embodiment 20: Mainly corresponding to claim 20>
<Outline of Embodiment 20>
The invention in this embodiment is an invention relating to an operation method of a cubicle automatic security inspection system.

<Structure of the 20th embodiment>
FIG. 9 shows an example of the processing flow of the cubicle automatic security inspection system of the first embodiment, and at the same time, shows an example of the operation method of the cubicle automatic security inspection system of the present embodiment. As shown in the figure, the cubicle automatic security inspection system in this embodiment operates by the following operation method.
The cubicle device can be configured such that the sound unit executes the sound information output step after the sound collection step, and the odor detection unit executes the odor information output step after acquiring the odor detection information. can do. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the alarm output condition is applicable, the alarm output step is continued, and if the alarm output is necessary, the alarm is output. After the alarm is output, a step to confirm whether to shut down the system is executed, but since the automatic security check system constantly checks the safety for 24 hours, it may return to the start without shutting down. Mostly.

<Explanation of the configuration of Embodiment 20>
Since the operation specifically performed in each step shown above is common to the description of each part described in the description of the configuration of the first embodiment, the description thereof will be omitted.

<Embodiment 21: Mainly corresponding to claim 21>
<Outline of Embodiment 21>
The invention in this embodiment is an operation method of a cubicle automatic security inspection system having a function of updating an alarm output condition for determining whether to output an alarm.

<Structure of the 21st embodiment>
FIG. 12 shows an example of the processing flow of the cubicle automatic security inspection system according to the twenty-first embodiment, and at the same time shows an example of the operation method of the cubicle automatic security inspection system according to the present embodiment. As shown in the figure, the cubicle automatic security inspection system in this embodiment operates by the following operation method.
The cubicle device can be configured such that the sound unit executes the sound information output step after the sound collection step, and the odor detection unit executes the odor information output step after acquiring the odor detection information. can do. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the match with the alarm condition is found, the step to output the alarm is executed. After the execution of the alarm output step, the event information acquisition presence / absence judgment step for determining whether or not the event information is acquired is executed, and in the case of the determination result that the acquisition is present, the information indicating the event actually occurring in the cubicle is executed. The event information acquisition step for acquiring the event information is executed. An alarm condition update presence / absence determination step is executed, which determines whether or not the alarm condition needs to be updated based on the event information acquired in the event information step and the history information leading up to the occurrence of the event. If the judgment result in the alarm condition update presence / absence judgment step is the judgment result that the alarm condition needs to be updated, the alarm condition update step for updating the alarm condition is executed. After the alarm condition update step, a step to determine whether to shut down the system is executed, but since the automatic security check system constantly checks the safety 24 hours a day, the system does not shut down in most cases. In addition, after the above-mentioned various steps are completed, the information acquisition by each unit will be returned again. In addition, the alarm advance notice output rule is updated from the alarm history which is the history of outputting the advance notice alarm and the alarm history held in the history information holding unit.

Since the operation specifically performed in each step shown above is common to the description of each part described in the description of the configuration of the second embodiment, the description thereof will be omitted.

<Embodiment 22: Mainly corresponding to claim 22>
<Outline of Embodiment 22>
The invention in this embodiment is a program of a cubicle automatic security inspection system having a function of updating an alarm output condition for determining whether to output an alarm.

<Structure of Embodiment 22>
7 and 8 show an example of the hardware configuration of the cubicle automatic security inspection system of the first embodiment, and at the same time, show an example of the program configuration of the cubicle automatic security inspection system of the present embodiment. FIG. 7 is an example of a program constituting the cubicle device. FIG. 8 is an example of a cubicle device.

<Structure of the 22nd Embodiment Cubicle device>
As shown in FIG. 7, the cubicle device of the cubicle automatic security inspection system in the present embodiment is configured by the following program. As shown in the figure, it can basically be composed of a programmable controller, its sequencer program, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, a "sound collection program" for collecting sounds, a "sound information output program" for outputting the collected sound information to an alarm output device, and a "odor detection" for detecting odors. "Program", "Odor information output program" to output the detected odor information to the alarm output device, "Temperature sensor measurement program" to measure the temperature, "Temperature sensor measurement program" to output the measured temperature information to the alarm output device "Temperature information output program", "Internal image acquisition program" to acquire the image inside the cubicle, "Internal image information output program" to output the acquired internal image to the alarm output device, to output vibration information "Vibration acquisition program", "Vibration information output program" to output the acquired vibration information to the alarm output device, "Dust amount measurement program" to measure the amount of dust in the air as a measured value placed inside. , "Dust amount information output program" to output the measured dust amount information via the network, "Electrical value measurement program" to measure various electric related values in the cubicle as measured values, Measured An "electrical-related value information output program" for outputting electrical-related value information of electrical-related values via a network is held, and these programs are read into the main memory based on the execution instructions of a series of programs. Then, these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As for the data, sound information, odor information, temperature information, internal image information, vibration information, dust amount information, electrical-related value information, cubicle identification information, various setting information such as communication (not shown) are non-volatile as in the program. It is held in the sex memory, loaded in the main memory, referenced and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other.

<Structure of the 22nd embodiment Alarm output device>
As shown in FIG. 8, the alarm output device of the cubicle automatic security inspection system in this embodiment is configured by the following program. As shown in the figure, it can be basically composed of a general-purpose computer program and various devices. The operation of a computer basically takes the form of loading a program recorded in a non-volatile memory into the main memory and executing processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, the "cubicle information acquisition program" for acquiring the information acquired from each detection unit output from the cubicle, and the information acquired by each unit included in the acquired cubicle information is retained as a history. "History information retention program" for, "Alarm condition retention program" for retaining alarm conditions to distinguish whether to output alarms, "Alarm output program" for outputting alarms when alarm conditions are met , And are retained, these programs are read into the main memory based on the execution instructions of a series of programs, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, various setting information such as communication (not shown), etc. are held in the non-volatile memory and loaded into the main memory as in the case of the program, and a series of programs are used. It is referred to and used at the time of execution. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other.

<Explanation of Embodiment 22>
Since the processes specifically performed in each program shown in the above are the same as the description of each part described in the description of the configuration of the first embodiment, the description thereof will be omitted.

<Explanation of Configuration 22 Example of Program Processing Procedure>
FIG. 9 is also a diagram showing an example of the processing flow of the program of the cubicle automatic security inspection system of the twenty-second embodiment. As shown in the figure, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then the odor information output step. Can be configured to run. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the alarm output condition is applicable, the alarm output step is continued, and if the alarm output is necessary, the alarm is output. After the alarm is output, a step to confirm whether to shut down the system is executed, but since the automatic security check system constantly checks the safety for 24 hours, it may return to the start without shutting down. Mostly.

<Embodiment 23: Mainly corresponding to claim 23>
<Outline of Embodiment 23>
The invention in the present embodiment is a program configuration of a cubicle automatic security inspection system having a function of updating an alarm output condition for determining whether to output an alarm.

<Structure of the 23rd embodiment>
7 and 11 show an example of the hardware configuration of the cubicle automatic security inspection system of the second embodiment, and at the same time, show an example of the program configuration of the cubicle automatic security inspection system of the present embodiment. FIG. 7 is an example of a program constituting the cubicle device. FIG. 11 is an example of a cubicle device.

<Structure of the 23rd embodiment Cubicle device>
As shown in FIG. 7, the cubicle device of the cubicle automatic security inspection system in the present embodiment is configured by the following program. As shown in the figure, it can basically be composed of a programmable controller, its sequencer program, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, a "sound collection program" for collecting sounds, a "sound information output program" for outputting the collected sound information to an alarm output device, and a "odor detection" for detecting odors. "Program", "Odor information output program" to output the detected odor information to the alarm output device, "Temperature sensor measurement program" to measure the temperature, "Temperature sensor measurement program" to output the measured temperature information to the alarm output device "Temperature information output program", "Internal image acquisition program" to acquire the image inside the cubicle, "Internal image information output program" to output the acquired internal image to the alarm output device, to output vibration information "Vibration acquisition program", "Vibration information output program" to output the acquired vibration information to the alarm output device, "Dust amount measurement program" to measure the amount of dust in the air as a measured value placed inside. , "Dust amount information output program" to output the measured dust amount information via the network, "Electrical value measurement program" to measure various electric related values in the cubicle as measured values, Measured A "potential-related value information output program" for outputting electrical-related value information of electrical-related values via a network is held, and these programs are read into the main memory based on the execution instructions of a series of programs. Then, these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As for the data, sound information, odor information, temperature information, internal image information, vibration information, dust amount information, electrical-related value information, cubicle identification information, various setting information such as communication (not shown), etc. are non-volatile as in the program. It is held in the sex memory, loaded in the main memory, referenced and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other.

<Structure of the 23rd embodiment Alarm output device>
As shown in FIG. 11, the alarm output device of the cubicle automatic security inspection system in this embodiment is configured by the following program.
As shown in the figure, "cubicle information acquisition program", "history information retention program", "alarm condition retention program", "alarm output program", information indicating the event that actually occurred in the cubicle based on the output alarm. An "event information acquisition program" that acquires event information, and an "alarm condition update program" that updates alarm conditions based on the acquired event information and history information leading up to the occurrence of the event are retained. (The description of the programs common to the programs constituting the invention of the program of the embodiment 22 is omitted in the present embodiment.), And these programs are stored in the main memory based on the execution instructions of the series of programs. It is read and these programs are executed based on the operation start command. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As data, cubicle information, cubicle identification information, alarm conditions, alarm output information, event information, history information, various setting information such as communication (not shown) are held in the non-volatile memory as in the program, and are stored in the main memory. It is loaded and referenced and used when executing a series of programs. In this computer, a non-volatile memory, a main memory, a CPU, and an interface (for example, a display, a keyboard, communication, etc.) are connected to a bus line so that they can communicate with each other. The program having the same function as that of claim 22 will be omitted, and only the program characteristic of the present embodiment will be described.

<Explanation of the configuration of Embodiment 23>
Since the processes specifically performed in each program shown in the above are the same as the description of each part described in the description of the configuration of the second embodiment, the description thereof will be omitted.

<Explanation of the 23rd embodiment An example of the processing procedure of the program>
FIG. 12 is also a flow chart showing an example of the processing flow of the program of the automatic security inspection system according to the 22nd embodiment. As shown in FIG. 12, the cubicle device can be configured such that the sound unit executes the post-sound information output step of the sound collection step, and the odor detection unit acquires the odor detection information and then outputs the odor information. It can be configured to perform steps. The temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The internal image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the match with the alarm condition is found, the step to output the alarm is executed. After the execution of the alarm output step, the event information acquisition presence / absence judgment step for determining whether or not the event information is acquired is executed, and in the case of the determination result that the acquisition is present, the information indicating the event actually occurring in the cubicle is executed. The event information acquisition step for acquiring the event information is executed. An alarm condition update presence / absence determination step is executed, which determines whether or not the alarm condition needs to be updated based on the event information acquired in the event information step and the history information leading up to the occurrence of the event. If the judgment result in the alarm condition update presence / absence judgment step is the judgment result that the alarm condition needs to be updated, the alarm condition update step for updating the alarm condition is executed. After the alarm condition update step, a step to determine whether to shut down the system is executed, but since the automatic security check system constantly checks the safety 24 hours a day, the system does not shut down in most cases. In addition, after the above-mentioned various steps are completed, the information acquisition by each unit will be returned again. In addition, the alarm advance notice output rule is updated from the alarm history which is the history of outputting the advance notice alarm and the alarm history held in the history information holding unit.

<Embodiment 24: Mainly relating to claim 24>
<Outline of Embodiment 24>
In this embodiment, two or more combinations of the units of the first embodiment, the fifth embodiment, the 25th embodiment described later, and the 26th embodiment are independently requested to be acquired from the cubicle or the like.
For each unit, each unit described in the first embodiment, the external image unit described in the fifth embodiment, the high-voltage lead-in cable ground fault degree unit of the 25th and 26th embodiments described later, and the abnormality detection induced value unit. It is a cubicle automatic security inspection unit set consisting of any two or more sets.
<Structure of Embodiment 24>
The units constituting the cubicle automatic security inspection unit set of the present embodiment are not limited to be provided in the cubicle as shown in FIG. As shown in the figure, the cubicle device (0400) in the present embodiment includes a sound unit including a sound collecting unit (0401) and a sound information output unit (0402), an odor detecting unit (0403), and an odor information output unit (0403). It consists of an odor unit consisting of 0404), a temperature unit consisting of a temperature measuring unit (0405) and a temperature information output unit (0406), an internal image information acquisition unit (0407), and an internal image information output unit (0408). An internal image unit, a vibration unit consisting of a vibration acquisition unit (0409) and a vibration information output unit (0410), a dust unit consisting of a dust amount measurement unit (0411) and a dust amount information output unit (0412), and electricity-related values. An electrical unit including a measuring unit (0413) and an electrical value information output unit (0414), an external image unit according to the fifth embodiment, and a high-voltage lead-in cable ground fault degree unit of the 25th and 26th embodiments described later. Anomaly detection induced value It is a combination of any two or more units, and the functions of each unit are as described in the first and fifth embodiments, the 25th embodiment and the 26th embodiment described later, and the overlapping description will be given. Omit. The purpose of these units is to output each information to the alarm output device already described so that the alarm output device outputs an alarm or does not output an alarm.
<Outline of Embodiment 25 and Embodiment 26>
"Ground fault" refers to a situation in which a leakage current flows in a part such as the ground that is not the path through which the current originally flows. This leakage current is called ground fault current. As the insulation deterioration progresses over time of equipment, this ground fault current tends to increase gradually. Therefore, by constantly monitoring this micro ground fault current, the sign of an accident can be grasped and managed. The ground fault current including the micro ground fault of the high voltage power receiving and transforming equipment is measured and monitored by the micro ground fault unit on the switch side, and that of the high voltage CV cable alone is measured and monitored by the micro ground fault unit on the cable side. In this embodiment, a security check is carried out using information on a minute ground fault phenomenon (referred to as a minute ground fault).
FIG. 62 shows a place where two types of ground fault currents are detected. For distribution to power receiving equipment, a demarcation point 6205 is set for the high-voltage power lines installed in factories, etc., and immediately after that, pole-mounted air switches (also referred to as "high-voltage air switches" and "PAS" are used below. The same.) 6206 is installed to detect a ground fault in the region of 6202 in FIG. 62. This detection is detected by the current induced by the imbalance of the three-phase alternating current. As an example, when the magnitude of this induced current exceeds 0.2 amperes, the control device 6208 that detects it opens the high-voltage current path of the pole-mounted air switch and stops receiving high-voltage current. At this time, since the current path is opened at the moment when the magnitude of the induced current reaches 0.2 amperes, the power reception to the factory equipment 6207 is suddenly stopped, which greatly hinders the operation of the factory 6207. In the present embodiment, the change in the magnitude of the induced current is observed by the detector 6209, and how long the current path should be opened by utilizing the past data accumulation or the like. Whether it is open or not is calculated by the abnormality detection induced value unit 6204, transmitted to the alarm output device as information about the abnormality detection induced value, and used for the alarm in the alarm output device. In other words, it is possible to minimize the impact on the operation of factories and the like by carrying out a planned power outage by an alarm, repairing a part where a ground fault has occurred, or replacing it with a new one. It should be noted that this anomaly detection induced value degree information can also be used to determine whether or not to output an alarm independently without combining it with information of other units, and what kind of alarm should be output.
Further, by comparing the phase of the current flowing through the shield of the high-voltage power line in FIG. 62 with the phase of the high-voltage current of the high-voltage line, it is possible to detect a fine ground fault of the drop line 6201 drawn into the power receiving equipment. As shown in the cross-sectional view on the left side of FIG. 72, in a three-phase alternating current that is originally perfectly balanced, the electric fields generated outside cancel each other out and become zero. However, as shown in the figure on the right side of FIG. 72, a part of the three phases is slightly grounded to the shield 7207 or the like via the dielectric breakdown part and the insulation deterioration part 7206, so that the balance of the three phases is lost and the induced current is induced in the shield. Along with the flow, the shield and a part of the three-phase AC wire are connected in series via the dielectric breakdown part, although the resistance is high. As shown in FIG. 64, the current i flowing through the shield is the current i in which the two types of vector sums of the induced current ic and the two types of currents connected in series (current flowing through the high resistance portion of the insulation deteriorated portion) iR flow through the shield. It becomes the actual situation. By obtaining the difference (δ or 90 degrees −δ) between the phase of the current i and the phase of the high voltage current (phase voltage E), which is the actual state, it is possible to calculate how much the microground fault has progressed.
<Embodiment 25>
<Outline of Embodiment 25>
In this embodiment, in addition to the configurations of the first to eleventh embodiments, the fourteenth to the seventeenth embodiments, and the other embodiment 2 described later, the degree of ground fault of the high-voltage lead-in cable 6201 of FIG. 62 is further measured. It is a cubicle automatic safety inspection system having a high-voltage lead-in cable ground fault degree unit, which is configured to output ground fault degree information which is information indicating the measured ground fault degree.

<Structure 25 of Embodiment>
In this embodiment, in addition to the first to eleventh embodiments and the fourteenth to the seventeenth embodiments, a ground fault degree measuring unit for measuring the degree of ground fault of the high-voltage lead-in cable and the measured ground fault degree are provided. It provides a cubicle automatic safety inspection system having a ground fault degree information output unit for outputting ground fault degree information, which is information indicating the above, and a high-voltage lead-in cable ground fault degree unit having.

<< Embodiment 25 functional configuration >>
FIG. 56 is a functional block diagram showing an example of the configuration of the cubicle automatic security inspection system according to the present embodiment. As shown in the figure, the cubicle external device (5600) in the present embodiment is installed in the vicinity of the high-voltage power line. There are two types of high-voltage power lines, one that is placed in the air, one that travels through utility poles, and one that is placed on the ground. Each unit listed below is for detecting an abnormality in the high-voltage power line and outputting the information to the alarm output device, and can be arranged in the high-voltage line wiring tube in which the high-voltage line is placed. This conduit is made of metal such as stainless steel or concrete, and a high-voltage electric wire with a normal coating is placed inside with a margin. Therefore, there is a margin inside the pipe, and the sound reverberates inside, and the odor, temperature, dust, etc. stay inside the pipe, so that the detection accuracy is high. It is not necessary for all the units to have a detection function portion inside the pipe, and for example, an electrical unit may be outside the pipe. The functional parts that are effective when placed in the pipe are, for example, "sound collecting part", "odor detection part", "temperature measuring part", "image acquisition part", "vibration acquisition part", "dust amount measuring part", and "vibration acquisition part", which will be described later. Is. The "sound information output unit", "odor information output unit", "temperature information output unit", "image information output unit", "vibration information output unit", and "dust amount information output unit" are located outside the pipe even if they are inside the pipe. It doesn't matter if there is one. An external sound unit consisting of a sound collecting unit (5601) and a sound information output unit (5602), an external odor unit consisting of an odor detecting unit (5603) and an odor information output unit (5604), and a temperature measuring unit (5605). An external temperature unit consisting of a temperature information output unit (5606), an external image unit consisting of an internal image information acquisition unit (5607) and an internal image information output unit (5608), a vibration acquisition unit (5609), and vibration information. External vibration unit consisting of output unit (5610), dust amount measurement unit (5611), external dust unit consisting of dust amount information output unit (5612), electricity-related value measurement unit (5613), electricity-related value information output unit It is configured to have at least two or more units of an external electrical-related unit consisting of (5614), a ground fault degree measuring unit (5615), and a high-voltage lead-in cable ground fault degree unit consisting of a ground fault degree information output unit (5616). Will be done.

In addition, in order to predict an abnormality in the part of the high-voltage cable outside the cubicle, it is placed near the high-voltage line outside the cubicle, and sound or / and ultrasonic waves (hereinafter, “sound or / and ultrasonic waves” are combined as measured values). An external sound unit having a sound collecting unit for collecting "sound") and a sound information output unit for outputting the sound information of the collected sound via a network.
An external odor unit having an odor detection unit located near a high-voltage line outside the cubicle and detecting an odor as a measured value, and an odor information output unit that outputs the odor information of the detected odor via a network.
An external temperature unit having a temperature measurement unit located near a high-voltage line outside the cubicle and measuring temperature as a measured value, and a temperature information output unit that outputs temperature information of the measured temperature via a network.
An external image acquisition unit that is placed near the high-voltage line outside the cubicle and acquires an external image that is an external image, and an internal image information output unit that outputs external image information based on the acquired external image via a network. External image unit,
An external vibration unit having a vibration acquisition unit that is placed near a high-voltage line outside the cubicle and acquires vibration as a measured value, and a vibration information output unit that outputs the vibration information of the acquired vibration via a network.
An external dust unit having a dust amount measuring unit that is located near a high-voltage line outside the cubicle and measures the amount of dust in the air as a measured value, and a dust amount information output unit that outputs the measured dust amount information via a network. ,
Electricity-related value measurement unit that is located near the high-voltage line outside the cubicle and measures various electricity-related values as measured values, and electricity-related value information output that outputs the measured electricity-related value information via the network. And the external electrical unit, which has
It is necessary to have at least two units with. These are transmitted to the alarm output device from the first embodiment to the eleventh embodiment and from the 14th embodiment to the 25th embodiment, and are subjected to the same processing to be used for the output of the alarm. It should be noted that the calculation for alarm output may be performed together with the cubicle information output from each unit provided inside the cubicle of the present embodiment.
The above is the cubicle automatic security inspection system of this embodiment. Even if each unit placed outside these cubicles and each unit placed inside the cubicle described above cooperate to transmit information on an abnormality or a precursor of an abnormality to an alarm output device. good. That is, it is configured to calculate whether or not the alarm output device outputs an alarm by combining one or more of the cubicle information from the inside of the cubicle and one or more of the information from each of the above units arranged outside the cubicle. May be done.

The "ground fault degree measuring unit" has a function of measuring the degree of ground fault of the high-voltage lead-in cable. The "ground fault degree information output unit" has a function of outputting ground fault degree information, which is information indicating the measured degree of ground fault.

"Ground fault degree information" is a concept indicating the degree of insulation or the degree of short circuit by covering the high-voltage electric wire of the high-voltage cable. For example, in a high-voltage line of three-phase alternating current, as shown in FIG. 72, high-voltage alternating current flows through three cables 7203a, 7203b, and 7203c inside the cable with a phase difference of 120 degrees. Then, on the outside thereof, there is a shield 7207 made of metal, and the three high-voltage lines are completely covered by the metal shield. There is an insulating layer 7204 between the three high-voltage lines and the shield, and the insulation works perfectly in the perfect state, so that a short circuit between the shield and the high-voltage line does not occur. However, as shown in the cross-sectional view of the three-phase AC line on the right side of FIG. 72, the insulating layer deteriorates due to long-term use or use exceeding the rating, and although it is not a complete short circuit, the insulation between the shield and the high-voltage line. The degree deteriorates. The ground fault degree information has information on the degree of deterioration of the degree of insulation. When the degree of insulation deteriorates, the balance of the three-phase alternating current is lost, and the alternating current induces an electric field in the shield. That is, an induced current flows. As shown in the vector diagram of FIG. 64, this induced current component ic lags 90 degrees from the phase of the high voltage current. Further, since a part of the high voltage current leaks to the shield due to the deteriorated portion of the insulating layer (deteriorated portion 7206 in FIG. 72), this current is in phase with the high voltage current, and the high voltage wire and the shield have a direct current component (FIG. 64). It is coupled at the medium phase voltage E).
The "ground fault degree measuring unit" is configured to acquire information on the degree of ground fault, which is information on the degree of deterioration of the degree of insulation. This ground fault degree information can be obtained by looking at the phase difference (δ or 90-δ) between the current i generated in the shield portion and the high voltage current or voltage (phase voltage E) of the high voltage cable portion. Can be configured to calculate. However, it is generally difficult to obtain the phase of the high-voltage line because the device becomes large, so in this embodiment, the phase of the high-voltage cable is taken from the phase of the low-voltage current that is drawn into the cubicle and stepped down by the transformer. Is configured to ask for. In various equipment (transformers, etc.) used to reduce high voltage to low voltage, a phase difference occurs with the original current as the voltage drops, but this value can be calculated in advance by knowing the connection status of various equipment. Therefore, if the phase of the low voltage current can be known, the phase of the high voltage can be known. First, the high voltage phase is secured as one piece of information.
Next, the phase of the shielded current of the high-voltage cable is obtained. Since the current generated in the shield is the ground current, the phase can be obtained by directly measuring it.
By the way, the current generated in the shield is completely 0 when the insulation is perfect. That is, the high-voltage line and the shield are in a completely insulated state, and in that case, the phase shift of 90 degrees induces three phases, but the three phases are out of phase by 120 degrees, so that they cancel each other out. The result is 0. However, when the insulation deteriorates, the resistance leakage current flows directly from the high-voltage cable into the shield through the dielectric breakdown part and the insulation deterioration part, although it is very weak. This inflow is performed through the insulating layer, so to speak, a high-voltage cable and a shield are connected with a high insulation resistance with a high resistance component. In this most advanced and completely lost insulation situation, a short circuit occurs and the high voltage current and the current flowing through the shield are almost in phase. That is, the phase difference is 0 degrees. The degree of deterioration of insulation can be calculated based on how close the phase of the current flowing through the shield is to the phase of the high-voltage current when the insulation is incomplete between the phase difference of 0 degrees and the phase difference of 90 degrees. can. This phase difference (90-δ) is about a ground fault, and the phase difference (90-δ) = 90 degrees is a completely isolated state, that is, the ground fault degree is 0, and the phase difference (90-δ) = 0 degrees is a completely short-circuited state. That is, the degree of ground fault is 100. The degree of ground fault is expressed by how close the value is to the phase difference of 90 degrees.
The "ground fault degree information" is information indicating the degree of the ground fault and does not necessarily have to be expressed by a phase difference, and may be 0 or more and N (N is a positive value) or less, and a rating (complete) indicating the degree of the ground fault. Insulation A, good state B, caution state C, caution state D, short-circuit state E) may be used. This is calculated by the high-voltage lead-in cable ground fault unit 6203 and transmitted to the alarm output device, and is used to determine whether the alarm output device outputs an alarm or not. The ground fault degree information may be used in the alarm output device in combination with the information of other units, or may be used independently in the alarm output device.

<Embodiment 25 hardware configuration: cubicle device and / and cubicle-related facility>
FIG. 58 is a diagram showing an example of the most basic hardware configuration of the cubicle device or the cubicle-related facility in the present embodiment. It is a figure which shows an example of the hardware configuration of a sensing system and a computer system. As shown in the figure, the present invention can basically be configured by a programmable controller, a sequencer program thereof, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "Sound collection program", "Sound information output program", "Odor detection program", "Odor information output program", "Temperature sensor measurement program", "Temperature information output program", "Internal image""Acquisitionprogram","Internal image information output program", "Vibration acquisition program", "Vibration information output program", "Dust amount measurement program", "Dust amount information output program", "Electrical value measurement program", "Electricity" A "related value information output program", a "ground fault degree measurement program" that measures the degree of ground fault, and a "ground fault degree information output program" that outputs ground fault degree information are held, and a series of program execution instructions are held. Based on, these programs are read into the main memory, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As for the data, various settings such as sound information, odor information, temperature information, internal image information, vibration information, dust information, electrical-related value information, ground fault degree information, cubicle identification information, and communication (not shown) are set as in the program. Information and the like are held in non-volatile memory, loaded into main memory, and referenced and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other. The description of the program having a common function with any one of the first to fourth embodiments is omitted, and only the configuration characteristic of the present embodiment is described.

<Embodiment 25 Hardware Configuration: Alarm Output Device>
Since the most basic hardware configuration of the alarm output device of the 25th embodiment is the same as the hardware configuration of the 1st embodiment shown in FIG. 8, the description in the present embodiment will be omitted.

<Flow of Embodiment 25>
Since the cubicle automatic security system of the present embodiment can perform a security check for 24 hours, the process flow shown in FIG. 60 is constantly repeated. As shown in FIG. 60, the cubicle device can be configured such that the external sound unit executes the post-sound information output step of the sound collection step, and the external odor detection unit acquires the odor detection information and then odors. It can be configured to perform an information output step. The external temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The external image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. The high voltage lead-in cable ground fault degree unit can be configured to perform a ground fault degree information output step after the ground fault degree measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the alarm output condition is applicable, the alarm output step is continued, and if the alarm output is necessary, the alarm is output. After the alarm is output, a step to confirm whether to shut down the system is executed, but since the automatic security check system constantly checks the safety for 24 hours, it may return to the start without shutting down. Mostly.

<Embodiment 26>
<Outline of Embodiment 26>
In this embodiment, in addition to the configuration of any one of the first to eleventh embodiments, the fourteenth to the seventeenth embodiment, the 25th embodiment, and the other second embodiment described later, a high-voltage air switch is further provided. To measure the degree of anomaly detection induced value (referred to as induced current value and / and induced voltage value; the same shall apply hereinafter), and output anomaly detection induced value degree information which is information indicating the measured abnormality detection induced value degree. It is a cubicle automatic safety inspection system that further has a high-voltage lead-in cable ground fault unit.

<Structure 26 of the embodiment>
In this embodiment, in addition to the configuration of any one of the first to eleventh embodiments, the fourteenth to the seventeenth embodiments, and the twenty-five embodiments, the anomaly detection induced value (induced current value or the induced current value) of the high-voltage air switch is further provided. / And means the induced voltage value. The same shall apply hereinafter.) Abnormality detection induced value degree measurement unit and abnormality detection that outputs the measured abnormality detection induced value degree information. It is intended to provide a cubicle automatic safety inspection system further having a high-voltage lead-in cable ground fault degree unit having an induced value degree information output unit.

<Explanation of Embodiment 26 Configuration>
Next, FIG. 57 is a functional block diagram showing an example of the configuration of the cubicle automatic security inspection system according to the present embodiment. As shown in the figure, the cubicle device (5700) in the present embodiment includes a sound unit including a sound collecting unit (5701) and a sound information output unit (5702), an odor detecting unit (5703), and an odor information output unit (5703). It consists of an odor unit consisting of 5704), a temperature unit consisting of a temperature measuring unit (5705) and a temperature information output unit (5706), an internal image information acquisition unit (5707), and an internal image information output unit (5708). An internal image unit, a vibration unit consisting of a vibration acquisition unit (5709) and a vibration information output unit (5710), a dust unit consisting of a dust amount measurement unit (5711) and a dust amount information output unit (5712), and electricity-related values. An electrical-related unit consisting of a measurement unit (5713) and an electrical-related value information output unit (5714), an abnormality detection induced value unit consisting of an abnormality detection induced value degree measurement unit (5715), and an abnormality detection induced value degree information output unit (5716). Of these, it is configured to have at least two or more units.

In addition, in order to predict an abnormality in the part of the high-voltage cable outside the cubicle, it is placed near the high-voltage line outside the cubicle, and sound or / and ultrasonic waves (hereinafter, “sound or / and ultrasonic waves” are combined as measured values). An external sound unit having a sound collecting unit for collecting "sound") and a sound information output unit for outputting the sound information of the collected sound via a network.
An external odor unit having an odor detection unit located near a high-voltage line outside the cubicle and detecting an odor as a measured value, and an odor information output unit that outputs the odor information of the detected odor via a network.
A temperature unit having a temperature measurement unit located near a high-voltage line outside the cubicle and measuring temperature as a measured value, and a temperature information output unit that outputs temperature information of the measured temperature via a network.
An external image acquisition unit that is placed near the high-voltage line outside the cubicle and acquires an external image that is an external image, and an internal image information output unit that outputs external image information based on the acquired external image via a network. External image unit,
A vibration unit having a vibration acquisition unit that is placed near a high-voltage line outside the cubicle and acquires vibration as a measured value, and a vibration information output unit that outputs the vibration information of the acquired vibration via a network.
A dust unit having a dust amount measuring unit located near a high-voltage line outside the cubicle and measuring the amount of dust in the air as a measured value, and a dust amount information output unit that outputs the measured dust amount information via a network.
Electricity-related value measurement unit that is located near the high-voltage line outside the cubicle and measures various electricity-related values as measured values, and electricity-related value information output that outputs the measured electricity-related value information via the network. It is necessary to have at least two or more units of a unit and an electrical related unit having the unit. These are transmitted to the alarm output device from the first embodiment to the eleventh embodiment and from the 14th embodiment to the 25th embodiment, and are subjected to the same processing to be used for the output of the alarm. It should be noted that the calculation for alarm output may be performed together with the cubicle information output from each unit provided inside the cubicle of the present embodiment.
The above is the cubicle automatic security inspection system of this embodiment.

The "abnormality detection induced value degree measuring unit" has a function of measuring the degree of anomaly detection induced value (referred to as an induced current value and / and an induced voltage value; the same shall apply hereinafter) of a high-voltage air switch. The "abnormality detection induced value degree information output unit" has a function of outputting anomaly detection induced value degree information which is information indicating the measured abnormality detection induced value degree.

The "abnormality detection induced value" means that in the case of three-phase alternating current, the current value of each phase varies due to a slight ground fault among the high-voltage currents flowing with a phase difference of 120 degrees, respectively. The balance of the current flowing through the high-voltage cable is lost, and a phenomenon occurs in which an electromagnetic field is generated around the three high-voltage cables. Generally, this imbalance is caused by a high-pressure cave or a microground fault in high-pressure equipment. In other words, if the current values flowing through the three cables are exactly the same, the electromagnetic fields generated from each cable are mutually erased and no electromagnetic field is formed around the three cables, but electromagnetic fields are caused by the imbalance. A world arises. When the zero-phase current transformer (ZCT) is placed at this position, a current induced on the secondary side of the zero-phase current transformer (ZCT) flows by the generated electromagnetic field. This current is referred to as an abnormality detection induced current according to the present embodiment, and the value thereof is referred to as an abnormality detection induced value.
"Abnormality detection induced value degree" is a value indicating the degree of the magnitude of this anomaly detection induced value, and generally, the value is large according to the degree to which a slight ground fault or the like occurs due to insulation deterioration of each cable. Become. The pole-mounted air switch is provided at the demarcation point of responsibility and is configured to shut off high voltage when the anomaly detection induced value due to the imbalance as described above becomes, for example, 0.2 amperes. However, in the present embodiment, it is possible to calculate how much a microground fault has occurred, in other words, how much insulation deterioration has occurred, by measuring the current value up to 0.2 amperes. can. That is, when the anomaly detection induced value is 0 amperes, there is no insulation deterioration, and conversely, the closer to 0.2 amps, the worse the insulation deterioration, and the current is cut off, that is, a power failure occurs. By observing the change over time in this anomaly detection induced value, it is possible to estimate and predict how long the pole-mounted air switch will operate, and it can be used as a sign monitoring device.

<Embodiment 26 Hardware Configuration: Cubicle Device and / and Cubicle-Related Facility>
FIG. 59 is a diagram showing an example of the most basic hardware configuration of the cubicle device or the cubicle-related facility in the present embodiment. It is a figure which shows an example of the hardware configuration of a sensing system and a computer system. As shown in the figure, the present invention can basically be configured by a programmable controller, a sequencer program thereof, a general-purpose computer, a computer program, and various devices (various sensors). The operation of the controller and the computer basically takes the form of loading the program recorded in the non-volatile memory into the main memory and executing the processing in the main memory, the CPU, and various devices. Communication with the device is done via an interface connected to the bus line. The interface may be a display interface, a keyboard, a communication buffer, or the like. As shown in this figure, "Sound collection program", "Sound information output program", "Odor detection program", "Odor information output program", "Temperature sensor measurement program", "Temperature information output program", "Internal image""Acquisitionprogram","Internal image information output program", "Vibration acquisition program", "Vibration information output program", "Dust amount measurement program", "Dust amount information output program", "Electrical value measurement program", "Electricity" The "related value information output program", the "abnormality detection induced value degree measurement program" that measures the abnormality detection induced value degree, and the "abnormality detection induced value degree information output program" that outputs the abnormality detection induced value degree information are retained. These programs are read into the main memory based on the execution instruction of a series of programs, and these programs are executed based on the operation start instruction. It is preferable that these programs are continuously resident in the main memory except during maintenance, and that monitoring and safety inspection inside and outside the cubicle are always continued. As with the program, various data such as sound information, odor information, temperature information, internal image information, vibration information, dust information, electrical-related value information, abnormality detection induced value degree information, cubicle identification information, and communication not shown are shown. The setting information of is held in the non-volatile memory, loaded in the main memory, and referred to and used when executing a series of programs. This computer is a non-volatile memory, main memory, CPU, interface (for example, an interface such as IEEE1394, and as a sensor interface, a sound collecting microphone, an odor sensor, a temperature sensor, a camera, a video camera, a vibration sensor, a dust sensor, and a current meter. , Voltage meter, communication, etc.) are connected to the bus line so that they can communicate with each other. The description of the program having a common function with any one of the first to fourth embodiments is omitted, and only the configuration characteristic of the present embodiment is described.

<Embodiment 26 Hardware Configuration: Alarm Output Device>
Since the most basic hardware configuration of the alarm output device of the 26th embodiment is the same as the hardware configuration of the 1st embodiment shown in FIG. 8, the description in the present embodiment will be omitted.

<Process 26 Process Flow>
Since the cubicle automatic security system of the present embodiment can perform a security check for 24 hours, the process flow shown in FIG. 61 is constantly repeated. As shown in FIG. 60, the cubicle device can be configured such that the external sound unit executes the post-sound information output step of the sound collection step, and the external odor detection unit acquires the odor detection information and then odors. It can be configured to perform an information output step. The external temperature unit can be configured to perform a temperature information output step after the temperature measurement step. The external image unit can be configured to perform an internal image information output step after the internal image acquisition step. The vibration unit can be configured to perform a vibration information output step after the vibration acquisition step. The dust unit can be configured to perform a dust amount information output step after the dust amount measurement step. The electrical-related unit can be configured to perform an electrical-related value information output step after the electrical-related value measurement step. The anomaly detection induced value unit can be configured to execute the anomaly detection induced value degree information output step after the anomaly detection induced value degree measurement step. In the cubicle automatic security inspection system, each unit is configured to have at least two or more, and the acquisition step and the output step are paired. After outputting the information acquired by the unit, the cubicle information acquisition step by the alarm output device is executed. The history information retention step of associating the acquired cubicle information with the cubicle, accumulating and retaining the record is executed. Based on the combination of cubicle information of different origins that make up the accumulated history information, the alarm output condition applicable determination step for determining whether or not the alarm output condition is applicable is executed. If the determination result does not correspond to the alarm output condition, the process returns to the process of executing the cubicle information acquisition step again. If the alarm output condition is applicable, the alarm output step is continued, and if the alarm output is necessary, the alarm is output. After the alarm is output, a step to confirm whether to shut down the system is executed, but since the automatic security check system constantly checks the safety for 24 hours, it may return to the start without shutting down. Mostly.

<Effect of combination: Mainly corresponding to embodiment 25 and embodiment>
In the following, the contents of the high-voltage lead-in cable ground fault degree unit and the abnormality detection induced value unit, which are features not explained in the first embodiment, will be described. It mainly relates to the 25th embodiment and the 26th embodiment.

<Explanation of each equipment>
The inspection targets of the lead-in equipment include (1) division switch, (2) lead-in wire and support, and (3) cable.
A "classified switch" is a switch installed at the demarcation point of responsibility between an electric power company (electric power company, etc.) and a consumer's high-voltage power receiving / transforming equipment. The pole-mounted air load switch will be used in a fictitious retractable system and will be installed on the utility pole of the consumer. In addition, the load switch for the underground line will be used for the underground lead-in method and will be installed in the high-voltage cabinet. Both are used for opening and closing high-voltage paths.
"Drop line" means an overhead line and underground cable used to draw high voltage from an electric power company (electric power company, etc.) to a consumer. "Support" means an insulator that secures a drop wire.
"Cable" means an electric wire used to connect a section switch to cubicle equipment (high voltage power receiving / transforming equipment).

Inspection targets for power receiving equipment include (4) breakers or high-voltage cutout switches, (5) power fuses, (6) circuit breakers or high-voltage load switches, (7) buses, and (8) instrument transformers. There are (9) transformers, (10) lightning arresters, (11) phase-advancing capacitors or series reactors.
A "disconnector" is used to open and close the electric circuit without opening and closing the load current, and is used to open the equipment and cables on the load side from the electric circuit during inspections and accidents. A "high voltage cutout switch" is a switch that is made of a material with high dielectric strength and has a mechanism that allows a fuse to be installed inside the switch.
A "power fuse" is one that blows the fuse element and cuts off the circuit when an overcurrent or short-circuit current flows.
A "circuit breaker" has the ability to input and disconnect a short-circuit current several to several tens of times the rated current in addition to opening and closing the load current in a steady state, and is used for circuit protection. A "high-voltage load switch" is a device that can be used in a high-voltage AC electric circuit to open / close and energize the current under normal conditions, input an abnormal current due to a short circuit, and energize for a specified time.
"Busbar" means an electric wire that is the main circuit for distributing electric power in cubicle equipment.
An "instrument transformer" is an instrument transformer and an instrument transformer.
A "transformer" is a transformer that steps down the voltage drawn in at high voltage to a usable voltage for low-voltage equipment. For example, the high voltage of 6600V from the electric power company will be changed to 110V used for outlets.
A "lightning arrester" is a device that prevents the high voltage of lightning generated on transmission and distribution lines and antennas installed outdoors. The circuit is protected by intentionally providing it in a portion of the circuit where insulation is weak and allowing a high voltage to escape to the ground. (Outdoor) Some are installed inside the drop line and inside the cubicle (indoor).
The "phase-advancing capacitor" is a capacitor inserted to improve the power factor in an AC circuit, and the "series reactor" is inserted to suppress the harmonics and inrush current of the phase-advancing capacitor.

The inspection targets of the switchboard include (12) the instrument of the switchboard, (13) the control circuit, (14) the electric wire, and (15) the support.
"Instrument of switchboard" is an instrument that measures the value of the power receiving system such as a voltmeter, ammeter, power factor meter, wattmeter, etc., and an instrument that measures the value of power distribution after transformation. be.

Inspection targets for grounding work include (16) grounding wires and protective pipes.
The "ground wire" is a wire that connects the housing of an electrical device, the neutral point of a circuit, a relay, etc. to a reference potential point. A "protective tube" is a resin or metal tube that protects the ground wire.

The inspection targets of the structure include (17) a power receiving room building and (18) a metal outer box of a cubicle type power receiving / transforming facility.

The inspection targets of the distribution equipment include (19) distribution line, (20) molded case circuit breaker, (21) earth-leakage circuit breaker, (22) knife switch, and (23) distribution board.
"Distribution line," is a line connected from the distribution board to the distribution board.
A "molded case circuit breaker" is used for circuit protection because it has the ability to open and close the load current in a steady state and to input and disconnect a short-circuit current that is several to several tens of times the rated current.
An "earth-leakage circuit breaker" is a circuit breaker that has the function of detecting leakage current due to leakage and automatically cutting off the circuit. The earth-leakage circuit breaker is installed in the circuit for the purpose of preventing electric shock due to a ground fault. Most products have an overcurrent circuit breaker.
"Knife switch" is made by inserting a plate (knife) -shaped electrode (blade) made of copper alloy etc. into an electrode (blade holder) also made of copper alloy etc. to obtain continuity. It is a switch.
A "distribution board" is a box that contains a leakage breaker (leakage breaker) and a molded case circuit breaker (safety breaker) necessary for the safe use of electricity.

Regular / emergency power generation equipment includes (24) prime mover, (25) starting device, (26) accessory device, (27) generator, (28) exciter, (29) grounding device, (30) circuit breaker, etc. There are (31) switches, (32) switchboards, and (33) control devices.
A "motor" is a machine that produces power by converting energy in the natural world into mechanical work such as rotational motion and reciprocating motion. It refers to a "heat / energy engine" that uses the thermal energy of fuel, and is also simply called an internal combustion engine (engine).
A "starter" is an electric motor (motor) for starting an internal combustion engine (engine) used in a generator or the like. In addition, air starting is rare as a starting method.
A "generator" is a machine (electric power device) that obtains electrical energy (electric power) from mechanical energy (work) by using the law of electromagnetic induction. In addition, solar power generation equipment is also included.
The "excitation device" uses an alternator and excites it by converting it to direct current with a rectifier or the like.
A "grounding device" is a collection of grounding wires.

The inspection targets of the storage battery equipment include (34) the storage battery main body and (35) an accessory device.
The "storage battery body" is a battery that can be charged and used many times, not just once.
The "accessory device" is a rectifier for charging, a molded case circuit breaker, a thermometer, a hydrometer, and the like.

The inspection targets of the load equipment include (36) wiring, (37) wiring equipment, (38) grounding device, and (39) low-voltage equipment.
"Wiring equipment" is an outlet, switch, etc. connected to the wiring.
"Low voltage equipment" is an electrical product used at 600V or less.

≪Inspection contents≫
In the following, the inspection details will be explained for each inspection target location.

<Abnormality detection of section switch>
The "classified switch" is inspected for abnormal noise, odor, overheating, discoloration, damage, and stains. The section switch here exists in a place adjacent to the cubicle device to the extent that the cubicle device can detect, for example, an abnormal noise or an odor.

≪Sound information and anomaly detection induced value information≫
By combining sound information and information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "abnormal noise" in the compartmentalized switch, that is, the sound that does not occur when the switch is normal. If the insulation deteriorates over time and there is insulation deterioration or functional deterioration, a weak discharge may occur and ultrasonic waves or the like may be generated.

≪Odor information, temperature information and anomaly detection induced value information≫
By combining odor information, temperature information, and anomaly detection induced value information, it is possible to more accurately grasp the "unpleasant odor" in the compartmentalized switch, that is, the odor that does not occur when the switch is normal. If the cable connection part overheats due to burning of the internal circuit due to lightning, overload, poor contact, etc., or if the insulation of each device is deteriorated or short-circuited due to poor contact of each connection part, a strange odor is generated.

≪Temperature information and anomaly detection induced value information≫
By combining temperature information and information on the degree of anomaly detection induction, it is more accurate to indicate that insulation deterioration of the insulation at the connection part has occurred when overheating occurs due to "overheating" in the compartmentalized switch, that is, poor contact. Can be grasped.

≪Temperature information, image information and anomaly detection induced value information≫
By combining temperature information, image information, and anomaly detection induced value information, if overheating occurs due to "discoloration" in the compartmentalized switch, that is, poor contact, etc., the insulation of the insulation at the connection is deteriorated. You can grasp that more accurately. Discoloration of metal parts and painted parts occurs due to overheating.

≪Image information, image information and anomaly detection induced value information≫
It is the "damage" in the compartmentalized switch, that is, the trauma caused in the compartmentalized switch by combining the image information, the image information, and the degree information of the anomaly detection induced value. It is possible to more accurately grasp that something has collided or that it has occurred due to poor construction. At the same time, it is possible to more accurately grasp that "dirt", that is, contamination caused by bird droppings or impurities contained in rainwater.

<Drop line and support>
In "Drop lines and supports", check the distance from other objects and the condition of signs and protective fences.

≪Image information and anomaly detection induced value information≫
By combining the image information and the information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "separation distance from other objects" in the drop wire and the support, that is, the separation distance between the equipment and the electric wire. Accidents such as ground faults occur when contact with other objects due to bird damage, slackening of electric wires, growth of trees, etc., so it is necessary to keep a certain distance when arranging the equipment. At the same time, the "state of the sign / protection fence", that is, the state of the protection fence of equipment or equipment, which corresponds to the normal state of the sign, or damage, stain, or loss, is the state of the protection fence. It is possible to more accurately grasp whether it is normal or whether it corresponds to damage, stain, or loss.

<Cable>
In "Cable", check the damage of the cable head and the shielding layer, the corrosion of the cable head and the shielding layer, the sign, the separation distance from other objects, and the grounding condition of the shielding layer. First, as a premise, the "cable head" here is a terminal part that is processed from the part where the high-voltage cable is connected to a switch or the like. The shielding layer is the shielded part of the high voltage cable.

≪Image information and ground fault degree information≫
By combining the image information and the ground fault degree information, it is possible to more accurately grasp the "damage to the cable head and the shielding layer" in the cable, that is, the damage caused to the cable head and the shielding layer. The damage is caused by the collision of objects and poor construction.

≪Image information and ground fault degree information≫
By combining the image information and the ground fault degree information, it is possible to more accurately grasp the "corrosion of the cable head and the shielding layer" in the cable. The corrosion occurs due to smoke damage, salt damage, aging deterioration, etc.

≪Image information and ground fault degree information≫
By combining the image information and the ground fault degree information, it is possible to more accurately grasp the "separation distance from other objects" in the cable, that is, the separation distance between the high-voltage cable and other objects. If the high-voltage cable comes into contact with something else, an accident such as a ground fault will occur, so it is necessary to keep a certain distance when arranging the equipment.

The image information is also useful for knowing whether the "sign", that is, the display state such as high voltage danger is normal, or whether it corresponds to damage, stain, or loss.

≪Image information and ground fault degree information≫
By combining the image information and the ground fault degree information, it is possible to more accurately grasp the "grounding state of the shielding layer" in the cable, that is, whether or not the shielding layer is properly grounded. It may not be properly grounded due to poor construction.

<Disconnector or high voltage cutout switch>
The "disconnector or high-voltage cutout switch" checks the contact state between the receiver and the blade, deformation, abnormal noise, odor, overheating, discoloration, looseness, cracks, stains, and foreign matter adhesion.

≪Sound information, temperature information, image information and anomaly detection induced value information≫
By combining sound information, temperature information, image information, and abnormality detection induced value information, the "contact state between the disconnector and the blade" in the disconnector or high-voltage cutout switch, that is, the blade of the disconnector is normally inserted into the blade receiver. It is possible to grasp more accurately whether or not it is. If it is not inserted correctly, an abnormality may occur due to poor contact.

≪Sound information, temperature information, image information and anomaly detection induced value information≫
By combining sound information, temperature information, image information, and anomaly detection induced value information, "deformation" in the disconnector or high-voltage cutout switch, that is, work defects, construction defects, and objects during blade insertion and opening operations can be detected. It is possible to more accurately grasp that the blade and the blade holder are deformed when they collide.

≪Sound information and anomaly detection induced value information≫
By combining sound information and information on the degree of anomaly detection induction, it is the "abnormal noise" in the disconnector or high-voltage cutout switch, that is, the sound that does not occur when the disconnector is normal. When the insulating material deteriorates over time and its function deteriorates, a weak electric discharge occurs, and it is possible to more accurately grasp that ultrasonic waves or the like are generated.

≪Odor information, temperature information and anomaly detection induced value information≫
By combining odor information, temperature information, and anomaly detection induced value information, it is possible to more accurately understand that "offensive odor" in the disconnector or high-voltage cutout switch, that is, the odor that does not occur when the disconnector is normal, is generated. can do. Due to overload or poor contact

≪Temperature information and anomaly detection induced value information≫
By combining temperature information and information on the degree of anomaly detection induction, it is possible to more accurately grasp "overheating" in a disconnector or high-voltage cutout switch. It may occur due to poor contact between the receiver and the blade, poor connection at the cable connection, etc.

≪Temperature information, image information and anomaly detection induced value information≫
By combining temperature information, image information, and anomaly detection induced value information, metal parts and painted parts due to "discoloration" in the disconnector or high-voltage cutout switch, that is, poor contact between the receiver and blade, poor connection of the cable connection, etc. It is possible to more accurately grasp what is occurring in.

≪Sound information, image information, vibration information, and anomaly detection induced value information≫
By combining sound information, image information, vibration information, and abnormality detection induced value information, the "looseness" of the disconnector or high-voltage cutout switch, that is, the loosening of the connection terminal and fixing screw, can be detected more accurately. Can be grasped. It may occur due to vibration or poor construction.

≪Sound information, vibration information and anomaly detection induced value information≫
By combining sound information, vibration information, and anomaly detection induced value degree information, it is possible to more accurately grasp the "crack" in the disconnector or high-voltage cutout switch, that is, the insulating part of the disconnector is cracked. .. It may occur due to insulation deterioration, bumping of objects, and poor construction.

≪Vibration information, dust amount information and anomaly detection induced value information≫
By combining vibration information, dust amount information, and abnormality detection induced value information, it is possible to more accurately grasp the "dirt" of the disconnector or high-voltage cutout switch, that is, the state where the disconnector is contaminated with dust or the like. ..

≪Vibration information and anomaly detection induced value information≫
By combining vibration information and information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "foreign matter adhesion" in the disconnector or high-voltage cutout switch, that is, the state in which foreign matter such as dust adheres to the disconnector.

<Power fuse>
For "power fuses", check for discoloration, damage, and overheating.

≪Temperature information, image information and anomaly detection induced value information≫
By combining temperature information, image information, and information on the degree of anomaly detection induced value, "discoloration" in the power fuse, that is, poor contact between the fuse and the fuse receiving side, poor connection of the cable connection, etc., causes the metal part, resin part, and the resin part. It is possible to more accurately grasp what is occurring in the painted part.

≪Image information and anomaly detection induced value information≫
By combining the image information and the information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "damage" in the power fuse, that is, the damage caused to the fuse and the insulator. Due to a collision of things and poor construction.

≪Temperature information and anomaly detection induced value information≫
By combining temperature information and information on the degree of anomaly detection induction, it is possible to more accurately grasp "overheating" in power fuses. It may occur due to poor contact between the fuse and the fuse receiving side, poor connection at the cable connection, etc.

<Circuit breaker or high pressure load switch>
In the "circuit breaker or high-pressure load switch", check for abnormal noise, odor, overheating, discoloration, damage, display / lighting, and the number of operations.

≪Sound information and anomaly detection induced value information≫
By combining sound information and information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "abnormal noise" in the circuit breaker or high-voltage load switch, that is, the sound that does not occur when the circuit breaker or high-voltage load switch is normal. can. If the insulating material deteriorates over time and its function deteriorates, a weak electric discharge may occur and ultrasonic waves or the like may be generated.

≪Odor information, temperature information and anomaly detection induced value information≫
By combining odor information, temperature information, and abnormality detection induced value degree information, it is possible to more accurately grasp the "offensive odor" in a circuit breaker or high-pressure load switch, that is, the odor that does not occur when the circuit breaker or high-pressure load switch is normal. be able to. It occurs when the cable connection part overheats due to overload or poor contact, when the contact is poor at each connection part, when the insulation of the insulation of each device deteriorates or when a short circuit occurs.

≪Temperature information and anomaly detection induced value information≫
By combining the temperature information and the information on the degree of anomaly detection induction, it is possible to more accurately grasp the "overheating" in the circuit breaker or high-pressure load switch. It may occur due to poor contact between the receiver and the blade, poor connection at the cable connection, etc.

≪Temperature information, image information and anomaly detection induced value information≫
By combining temperature information, image information, and abnormality detection induced value information, metal parts and resins are caused by "discoloration" in circuit breakers or high-pressure load switches, that is, poor contact between the receiver and blade, poor connection of cable connections, etc. It is possible to more accurately grasp what is occurring in the part and the painted part.

≪Image information and anomaly detection induced value information≫
By combining the image information and the information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "damage" in the circuit breaker or the high-voltage load switch, that is, the damage caused to the insulator or the like. Due to a collision of things and poor construction.

Using image information, the "number of operations", that is, the numerical value obtained by counting the number of times the circuit breaker is opened and closed, is measured. Since there is a risk that it will not open or close, it is possible to understand the risk of failure in relation to its life.

<Bus line>
Check for abnormal noise, odor, and overheating on the "bus".

≪Sound information and anomaly detection induced value information≫
By combining the sound information and the information on the degree of anomaly detection induction, it is possible to more accurately grasp the "abnormal noise" in the bus, that is, the sound that does not occur when the bus is normal. If the coating of the bus is deteriorated over time and there is a deterioration in function, a weak discharge occurs, so ultrasonic waves or the like may be generated.

≪Odor information, temperature information and anomaly detection induced value information≫
By combining odor information, temperature information, and anomaly detection induced value information, it is possible to more accurately grasp the "offensive odor" on the generatrix, that is, the odor that does not occur when the generatrix is normal. It occurs when the bus connection part overheats due to overload or poor contact, or when the insulation of the insulator deteriorates or a short circuit occurs.

≪Temperature information and anomaly detection induced value information≫
By combining the temperature information and the information on the degree of anomaly detection induction, it is possible to more accurately grasp the "overheating" in the bus. It may occur due to poor connection at the bus connection.

<Instrument transformer>
The "instrument transformer" inspects external damage, corrosion, rust, looseness, and stains.

≪Image information and anomaly detection induced value information≫
By combining image information and information on the degree of anomaly detection induction, "corrosion" in instrument transformers, that is, the insulating resin part and connection terminal part that protects the measurement part are corroded due to moisture, smoke damage, salt damage, aging deterioration, etc. You can get a more accurate picture of what you are doing. In addition, it is possible to more accurately grasp the "rusting" in the instrument transformer, that is, the state where rust is generated from the metal part such as the connection terminal part. The causes of rust are moisture, salt damage, and deterioration over time. In addition, it is possible to more accurately grasp "dirt" in the instrument transformer, that is, that the instrument transformer is contaminated with dust or the like.

≪Sound information, image information, vibration information, and anomaly detection induced value information≫
By combining sound information, image information, vibration information, and anomaly detection induced value information, it is possible to more accurately know the "looseness", that is, the loosening of the connection terminal part and the fixing screw part. The causes of looseness are vibration and poor construction.

It should be noted that, using the image information, it is the "external damage" in the instrument transformer, that is, the trauma caused in the instrument transformer. It is possible to more accurately grasp that something has collided or that it has occurred due to poor construction.

<Transformer>
In the "transformer", check the outside of the main body, damage, stain, deformation (swelling), looseness, rust, corrosion, vibration, abnormal noise, temperature, oil leakage, oil amount, and the condition of accessories.

≪Image information and anomaly detection induced value information≫
By combining the image information and the information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "damage" in the transformer, that is, the transformer is contaminated by dust or the like. In addition, it is possible to more accurately grasp the "deformation (swelling)" in the transformer, that is, the deformation caused by the expansion caused by the inflow of abnormal voltage or harmonics into the transformer. In addition, it is possible to more accurately grasp the "rusting" in the transformer, that is, the state where rust is generated from the metal part such as the connection terminal part. The causes of rust are moisture, salt damage, and deterioration over time.

≪Sound information, image information, vibration information, and anomaly detection induced value information≫
By combining sound information, image information, vibration information, and anomaly detection induced value information, it is possible to more accurately grasp the "looseness" of the transformer, that is, the loosening of the connection terminal part and the fixing screw part. .. The causes of looseness are vibration and poor construction.

≪Sound information, image information and anomaly detection induced value information≫
By combining sound information, image information, and information on the degree of anomaly detection induced value, it is possible to determine that "corrosion" in the transformer, that is, metal parts and insulating resin parts are corroded due to moisture, smoke damage, salt damage, aging deterioration, etc. It can be grasped accurately.

≪Sound information and vibration information≫
Although not directly related to this embodiment, by combining sound information and vibration information, it is possible to more accurately grasp the "vibration" in the transformer, that is, the vibration generated when the transformer is energized. Vibration may increase due to deterioration over time or abnormalities inside the transformer.

≪Sound information, image information and vibration information≫
Although not directly related to this embodiment, by combining sound information, image information, and vibration information, "abnormal noise" in the transformer, that is, sound generated by aging deterioration or abnormality inside the transformer when the transformer is energized can be produced. It can be grasped more accurately.

≪Temperature information and electricity related information≫
Although not directly related to this embodiment, by combining temperature information and electricity-related information, the "temperature" in the transformer, that is, the heat radiation temperature generated when the transformer is energized, is overheated due to an internal abnormality or overload and is abnormal. It is possible to more accurately grasp that the temperature has reached a certain level.

≪Odor information and image information≫
Although not directly related to this embodiment, by combining odor information and image information, "oil leakage" in the transformer, that is, cooling insulating oil injected into the oil-filled transformer is leaking. You can grasp that more accurately. Insulating oil may expand due to overload and leak from the upper lid, or may leak due to aging deterioration of the packing part of the lid, improper tightening of the drain part at the lower part, or aging deterioration of the sealing material. In addition, the "oil amount", that is, the amount of cooling insulating oil injected into the oil-filled transformer can be accurately grasped. If it is low, it is abnormal.

The state of the accessory device of the transformer, that is, the operating state and the mounting state of the thermometer, the oil amount meter, etc. of the transformer can be grasped from the image information. If there is an abnormality in the operating state or mounting state of the accessory device, it is possible that accurate readings cannot be measured.

<Lightning arrester>
In the "lightning arrester", check for external damage, cracks, and looseness.

≪Sound information, image information and anomaly detection induced value information≫
By combining sound information, image information, and information on the degree of anomaly detection induced value, it is possible to more accurately grasp the "crack" in the arrester, that is, the crack in the insulator part of the arrester. The causes are the collision of objects, poor construction, and the effects of large currents caused by lightning.

≪Sound information, image information and vibration information≫
Although not directly related to this embodiment, by combining sound information, image information, and vibration information, it is possible to more accurately grasp the "looseness" of the arrester, that is, the loosening of the connection terminal portion and the fixing screw portion. be able to. The causes of looseness are vibration and poor construction.

It should be noted that the image information may be used to more accurately grasp the "external damage" of the arrester, that is, the injury caused to the arrester. The causes of the damage are the collision of things and poor construction.

<Phase advance capacitor or series reactor>
For "phase-advancing capacitors or series reactors", check for damage, deformation (swelling), stains, abnormal noise, vibration temperature, oil leakage, and offensive odors.

≪Image information and anomaly detection induced value information≫
By combining the image information and the anomaly detection induced value degree information, it is possible to more accurately grasp the "damage" in the phase-advancing capacitor or the series reactor, that is, the damage caused in the phase-advancing capacitor or the series reactor. The causes of the damage are the collision of things and poor construction. In addition, it is possible to more accurately grasp that "dirt", that is, the phase-advancing capacitor and the series reactor are contaminated by dust and the like.

≪Odor information and anomaly detection induced value information≫
By combining these, it is possible to more accurately grasp the "offensive odor" in the phase-advancing capacitor or series reactor, that is, the offensive odor generated by aging deterioration, internal abnormalities, inflow of harmonics, and the like.

≪Sound information and vibration information≫
Although not directly related to this embodiment, by combining sound information and vibration information, it is generated by "abnormal noise" in the phase-advancing capacitor or series reactor, that is, abnormalities such as aging deterioration, internal abnormalities, and inflow of harmonics. It is possible to more accurately grasp the existence and degree of abnormal noise. In addition, it is possible to more accurately grasp the existence and degree of "vibration", that is, vibration generated by aged deterioration, internal abnormality, inflow of harmonics, and the like.

By using the image information, it can be seen that the "deformation (swelling)" in the phase-advancing capacitor or series reactor, that is, the deformation caused by the expansion caused by the inflow of abnormal voltage or harmonics into the phase-advancing capacitor or series reactor. It can be grasped accurately.

<Replenishment of the effects of the invention>
Although the following description is not directly related to the present embodiment, it supplements the effect obtained by gathering each information.

<Power receiving and distribution board>
The "receiver / switchboard" checks for abnormalities in the instrument, display tags / indicators, and switching switches, and measures the load voltage and load current.

≪Image information and electrical related information≫
Although not directly related to this embodiment, by combining image information and electrical information, it is more accurate to indicate "instrument abnormality" in the receiving / distribution board, that is, the instrument shows a value outside the appropriate measurement range. Can be grasped. The instrument indicates a value that deviates from the proper measurement range. An abnormality may occur due to an abnormality in the instrument itself, an abnormality in the instrument transformer connected to the instrument, or a blown fuse in the instrument circuit. In addition, "measurement of load voltage and load current", that is, it is possible to more accurately confirm whether the measured value indicated by the switchboard is within the appropriate measurement range.

By using the image information, the "display tag" or "indicator abnormality" of the switchboard, that is, the display tag that displays the dangerous place or the item to be instructed in appropriate wording is not installed correctly. Or, it is possible to more accurately grasp whether the light is erroneously turned on or not turned on. In addition, it is possible to accurately grasp the "abnormality of the switching switch" of the switchboard, that is, the state in which the switching switch does not operate normally. If it is not operating normally, it is possible that normal power distribution cannot be performed.

<Electric wires and supports>
For "electric wires and supports", check the distance from other objects, signs, and the condition of protective fences.

By using the image information, it is possible to accurately grasp the "separation distance from other objects" in the wire and the support, that is, the separation distance between the equipment installed in the receiving / distribution board, the electric wire, and the electric wires. .. If an electric wire comes into contact with something else, an accident such as a ground fault will occur, so it is necessary to keep a certain distance when arranging the equipment. In addition, it is possible to accurately grasp the "state of the sign / protection fence" on the switchboard, that is, whether the sign placed in the switchboard is normal, or whether it is damaged, soiled, or lost. can do. The "state of the protective fence" indicates whether the state of the protective fence of the equipment and devices provided in the receiving / distribution board is normal, or whether it corresponds to damage, stain, or loss.

<Grounding wire, protective tube, etc.>
In "ground wire, protective tube, etc.", (1) damage / disconnection, looseness, detachment of the ground wire, (2) damage, corrosion, rust, stain on the outside of the protective tube, (3) leakage to the class B ground wire Check the current.

≪Sound information, image information and vibration information≫
Although not directly related to this embodiment, by combining sound information, image information, and vibration information, "looseness" in the ground wire, protective tube, etc., that is, the state where the connection terminal portion, fixing screw portion, etc. are loosened can be further improved. It can be grasped accurately. The causes of looseness are vibration and poor construction. In addition, it is possible to more accurately grasp the "disengagement", that is, the state in which the connection terminal portion and the fixing screw portion are detached. The cause of the detachment is vibration or poor construction.

By using the image information, it is useful to accurately grasp the "damage" and "disconnection" in the ground wire, that is, the trauma caused in the ground wire. The outer skin of the cable deteriorates and the copper wire is exposed or abnormal due to the collision of an object, due to improper construction, or being bitten off by a small animal such as a mouse that has invaded the cubicle. This is the case when the electric wire is burnt and broken due to the electric current.
It also helps to accurately grasp "damage" in the protective tube, that is, the injury that has occurred outside the protective tube. The causes of damage are bumps and poor construction.
It also helps to accurately grasp the "corrosion" of the protective tube, that is, the state in which the protective tube is corroded. Causes of corrosion include moisture, smoke damage, salt damage, and aging.
In addition, it is useful for accurately grasping "rusting" in a protective tube or the like, that is, a state in which rust is generated from a metal protective tube. The causes of rust are moisture, salt damage, and deterioration over time.
In addition, it is useful for accurately grasping "dirt" in the protective pipe, that is, that the protective pipe is contaminated with dust or soil.

In relation to the "leakage current flowing through the class B grounding wire (grounded to prevent contact between the high voltage side and the low voltage side)", the grounding wire connected to the transformer low voltage load side circuit (grounding suitable for class B) By measuring the current flowing through the method) and using the electrical information, it is possible to measure the leakage of the low voltage circuit. Since leakage current flows through the Class B ground wire, this measured value can be said to be leakage in the load-side circuit.

<Power receiving room building>
In the "power receiving room building" and "metal outer box of cubicle type power receiving and transforming equipment", check for inundation holes of wind and rain, entry holes for small animals, operation of ventilation openings and ventilation fans, locking and damage to keys.

By using the image information, it is useful to accurately grasp the "inundation hole of wind and rain", that is, the state where the hole through which wind and rain enter is opened in the cubicle containing various equipment of the cubicle. If the wind and rain inundation holes are open, the sound of wind and water will be generated in the cubicle.
In addition, it is necessary to accurately grasp the state of the "small animal entry hole", that is, the hole made for small animals to enter or the hole that small animals can enter into the cubicle container that houses various equipment of the cubicle. Useful. When small animals invade, they may bite off cables, rust due to moisture such as urine, or short-circuit.
In addition, it is useful for accurately grasping the "operation of the ventilation port / ventilation fan", that is, the abnormality of the operation of the ventilation port and the ventilation fan.
It also helps to accurately identify "locking and key breakage", that is, the cubicle door is unlocked and the key is broken.

<Embodiment 27: Mainly relating to claim 27>
It is a system based on the cubicle automatic security inspection system according to any one of the above, in addition to the configurations of the first embodiment to the ninth embodiment, the 25th embodiment, the 26th embodiment, and the other second embodiment described later. External image history information acquisition for reports that acquires external image history information for reports that is external image information acquired by the external image unit according to claim 5 among the history information for a predetermined period. The external image-related information generation unit that generates external image-related information based on the external image information taken at predetermined intervals based on the acquired external image history information for reports, and the generated external image-related information. A cubicle automatic security check system further equipped with an external image-related information report output unit that outputs an external image-related information report, which is a report, and an external image report device having.

<Embodiment 28: Mainly relating to claim 28>
The external image information is provided in the appearance of the cubicle, the state of the site where the cubicle stands, the state of the drop wire to the cubicle, the state of the electric wire led out by the cubicle, the appearance of the telephone pole that introduces a high-voltage current into the cubicle, and the telephone pole. Detects the appearance of the air switch on the pole, the state of the insulator provided on the telephone pole, the appearance of the control device that controls the opening operation of the air switch on the pole, and the degree of ground fault of the high-voltage current drop line. The cubicle automatic security inspection system according to any one of the 27th embodiment, which is information on any one or more of the appearance of the high-voltage lead-in cable ground fault degree measuring device, and the other 2nd embodiment, which will be described later.

<Embodiment 29: Mainly relating to claim 29>
Generated with an external image-based report template holder that holds multiple report templates that are report templates and are prepared according to the type of external image-related information to be reported, and in some cases include advice information. The external image-related information type acquisition unit that acquires the external image-related information type, which is the type of external image-related information, and the external image-based report template acquisition unit that acquires the report template according to the acquired external image-related information type. The external image-related information report output unit of the external image report device has, and outputs an external image-related information report to be output using the acquired report template and the generated external image-related information. The cubicle automatic security check system according to embodiment 27 or 28, which has an image-related information report output means.

<Embodiment 30: Mainly relating to claim 30>
It has a cubicle-related information acquisition unit C that acquires cubicle-related information that is news and changes in laws and regulations related to cubicles via a network, and the external image-related information report output unit of the external image reporting device is an external image. The cubicle security inspection system according to any one of the 27th to 29th embodiments, which has the cubicle-related information addition means C for including the cubicle-related information acquired in the related information report.

<Other Embodiment 1>
A sound collecting unit that collects sound and / and ultrasonic waves (hereinafter, "sound and / and ultrasonic waves" are collectively referred to as "sound") as measured values, and
A sound information output unit that outputs the sound information of the collected sound via the network,
Sound unit,
An odor detector that detects odors as measured values,
An odor information output unit that outputs the odor information of the detected odor via the network,
Odor unit,
A temperature measurement unit that measures temperature as a measured value,
A temperature information output unit that outputs temperature information of the measured temperature via a network,
With temperature unit,
The image acquisition unit that acquires images and
An image unit having an image information output unit that outputs the image information of the acquired image via a network.
A vibration acquisition unit that acquires vibration as a measured value,
A vibration information output unit that outputs the vibration information of the acquired vibration via the network,
Vibration unit,
A dust amount measuring unit that measures the amount of dust in the air as a measured value,
A dust amount information output unit that outputs the measured dust amount information via the network,
With dust unit,
An electricity-related value measurement unit that measures various electricity-related values related to cubicles as measured values,
An electric-related unit having an electric-related value information output unit that outputs electric-related value information of measured electric-related values via a network, and an electric-related unit.
A current-voltage acquisition unit that is externally arranged to acquire the current and / and voltage of the lead-in wire to the cubicle, and a current-voltage information output unit that outputs current-voltage information that is information on the acquired current and / and voltage via a network. With current voltage unit,
An external image acquisition unit that is placed outside and acquires an external image that is an external image of the cubicle,
An external image unit having an external image information output unit that outputs external image information that is acquired external image information via a network. A ground fault degree measuring unit that measures the degree of ground fault of a high-voltage lead-in cable, and a ground fault degree measuring unit that was measured. High-voltage lead-in cable ground fault degree unit, which has a ground fault degree information output unit that outputs ground fault degree information, which is information indicating the degree of ground fault.
Anomaly detection induced value degree measuring unit that measures the degree of anomaly detection induced value (induced current value and / and induced voltage value; the same shall apply hereinafter) of the high-voltage air switch, and the measured anomaly detection induced value degree. Anomaly detection induced value unit, which has an anomaly detection induced value degree information output unit that outputs anomaly detection induced value degree information, which is information to be shown.
A ground fault degree measuring unit that measures the degree of ground fault of the high-voltage lead-in cable,
A ground fault degree information output unit that outputs ground fault degree information, which is information indicating the measured ground fault degree, and
High voltage lead-in cable ground fault degree unit,
Anomaly detection induced value degree measuring unit that measures the degree of anomaly detection induced value (induced current value and / and induced voltage value; the same shall apply hereinafter) of the high-voltage air switch.
Anomaly detection induced value degree information output unit that outputs anomaly detection induced value degree information, which is information indicating the measured anomaly detection induced value degree, and
Multiple cubicle-related facilities (power receiving and transforming including lead-in facilities / equipment) having at least two or more units of anomaly detection induced value units (the above units are arranged so as to be able to detect information on high-voltage power lines outside the cubicle). Includes any one or more of equipment, power storage equipment, power generation equipment, distribution equipment, and load equipment. The same shall apply hereinafter.)
The cubicle information acquisition department that acquires cubicle information, which is information from each cubicle-related facility via the network, and
A history information holding unit that holds the acquired cubicle information as history information associated with the cubicle,
An alarm condition holding unit that holds an alarm condition, which is cubicle information constituting the held history information and is a condition for outputting an alarm based on a combination of cubicle information having different origins.
An alarm output unit that outputs an alarm when a combination of cubicle information of different origins, which is cubicle information constituting the retained history information, meets the retained alarm condition.
With an alarm output device,
Cubicle automatic security inspection system consisting of.
Is also useful. Here, the configuration of each unit and the configuration of the alarm output device are the same as those in the first embodiment, and thus the description thereof will be omitted. Since the configurations specific to the 25th and 26th embodiments are the same, the description thereof will be omitted. Further, since the hardware configuration of the cubicle-related facility is the same as the hardware configuration of the cubicle device and the like of each of the above-described embodiments, the description thereof will be omitted.
<Other Embodiment 2>
A sound collecting unit that collects sound and / and ultrasonic waves (hereinafter, "sound and / and ultrasonic waves" are collectively referred to as "sound") as measured values, and
A sound information output unit that outputs the sound information of the collected sound via the network,
Sound unit,
An odor detector that detects odors as measured values,
An odor information output unit that outputs the odor information of the detected odor via the network,
Odor unit,
A temperature measurement unit that measures temperature as a measured value,
A temperature information output unit that outputs temperature information of the measured temperature via a network,
With temperature unit,
The image acquisition unit that acquires images and
An image unit having an image information output unit that outputs the image information of the acquired image via a network.
A vibration acquisition unit that acquires vibration as a measured value,
A vibration information output unit that outputs the vibration information of the acquired vibration via the network,
Vibration unit,
A dust amount measuring unit that measures the amount of dust in the air as a measured value,
A dust amount information output unit that outputs the measured dust amount information via the network,
With dust unit,
An electricity-related value measurement unit that measures various electricity-related values related to cubicles as measured values,
An electric-related unit having an electric-related value information output unit that outputs electric-related value information of measured electric-related values via a network, and an electric-related unit.
A current-voltage acquisition unit that is externally arranged to acquire the current and / and voltage of the lead-in wire to the cubicle, and a current-voltage information output unit that outputs current-voltage information that is information on the acquired current and / and voltage via a network. With current voltage unit,
An external image acquisition unit that is placed outside and acquires an external image that is an external image of the cubicle,
At least two or more units of an external image unit having an external image information output unit that outputs external image information that is acquired external image information via a network (the above unit can detect information on a high-voltage electric wire outside the cubicle). Multiple cubicle-related facilities (including one or more of power receiving and transforming equipment including lead-in facilities and equipment, power storage equipment, power generation equipment, power distribution equipment, and load equipment. The same shall apply hereinafter).
The cubicle information acquisition department that acquires cubicle information, which is information from each cubicle-related facility via the network, and
A history information holding unit that holds the acquired cubicle information as history information associated with the cubicle,
An alarm condition holding unit that holds an alarm condition, which is cubicle information constituting the held history information and is a condition for outputting an alarm based on a combination of cubicle information having different origins.
An alarm output unit that outputs an alarm when a combination of cubicle information of different origins, which is cubicle information constituting the retained history information, meets the retained alarm condition.
With an alarm output device,
Cubicle automatic security inspection system consisting of.
Is also useful. Here, the configuration of each unit and the configuration of the alarm output device are the same as those in the first embodiment, and thus the description thereof will be omitted. Further, since the hardware configuration of the cubicle-related facility is the same as the hardware configuration of the cubicle device and the like of each of the above-described embodiments, the description thereof will be omitted.

Claims (25)

A sound collecting unit that is arranged inside and collects sound or / and ultrasonic waves (hereinafter, "sound or / and ultrasonic waves" are collectively referred to as "sound") as measured values.
A sound information output unit that outputs the sound information of the collected sound via the network,
Sound unit,
An odor detector that is located inside and detects odors as a measured value,
An odor information output unit that outputs the odor information of the detected odor via the network,
Odor unit,
A temperature measurement unit that is located inside and measures the temperature as a measurement value,
A temperature information output unit that outputs temperature information of the measured temperature via a network,
With temperature unit,
An internal image acquisition unit that is placed inside and acquires an internal image that is an internal image,
An internal image unit having an internal image information output unit that outputs the internal image information of the acquired internal image via a network.
A vibration acquisition unit that is placed inside and acquires vibration as a measured value,
A vibration information output unit that outputs the vibration information of the acquired vibration via the network,
Vibration unit,
A dust amount measuring unit that is placed inside and measures the amount of dust in the air as a measured value,
A dust amount information output unit that outputs the measured dust amount information via the network,
With dust unit,
An electricity-related value measurement unit that measures various electricity-related values in the cubicle as measured values,
An electricity-related value information output unit that outputs the electricity-related value information of the measured electricity-related value via the network, and
Electrical unit,
Of these, a plurality of cubicle devices having at least two or more units (including two or more of power receiving / transforming equipment including lead-in facilities / equipment, power storage equipment, power generation equipment, power distribution equipment, and load equipment; the same shall apply hereinafter).
The cubicle information acquisition unit that acquires cubicle information, which is information from the cubicle device via the network, and
A history information holding unit that holds the acquired cubicle information as history information associated with the cubicle,
It is a cubicle information that constitutes the retained history information, and constitutes an alarm condition holding unit that holds an alarm condition, which is a condition for outputting an alarm based on a combination of cubicle information of different origins, and a held history information. An alarm output unit that outputs an alarm when the alarm conditions that hold the combination of cubicle information of different origins are met.
With an alarm output device,
When any one of the plurality of cubicle devices has an internal image unit,
The internal image history information acquisition unit for reports that acquires the internal image history information for reports that is the internal image information acquired by the internal image unit among the history information for a predetermined period, and the internal image history information acquisition unit for reports.
An internal image-related information generation unit that generates internal image-related information based on internal image information taken at predetermined intervals of each cubicle based on the acquired internal image history information for reports.
The internal image-related information report output section that outputs the internal image-related information report, which is the generated internal image-related information report, and the internal image-related information report output section.
A cubicle automatic security inspection system consisting of an internal image reporting device. The event information acquisition unit that acquires event information, which is information indicating the event that actually occurred in the cubicle in relation to the output alarm,
An alarm condition updater that updates alarm conditions based on the acquired event information, history information of cubicle information up to the occurrence of the event, and
The cubicle automatic security inspection system according to claim 1. The alarm output device is
The history information acquisition unit that acquires the history information held by the history information storage unit, and the history information acquisition unit.
An alarm notice output rule holding unit that holds an alarm notice output rule that outputs an alarm notice based on the acquired history information,
An alarm history information acquisition unit that acquires alarm history information, which is the output alarm and the history information leading to the alarm, and the alarm history information acquisition unit.
An alarm warning output rule updater that updates the alarm warning output rule that is held based on the acquired alarm history information,
An alarm notice output unit that outputs an alarm notice based on the acquired history information and the retained alarm notice output rule,
The cubicle automatic security inspection system according to claim 1 or 2, further comprising. The alarm output device is
An analysis rule holder that holds analysis rules that holds analysis rules for analyzing the safety of cubicles based on the history information that is held, and an analysis rule holder that holds analysis rules.
The cubicle automatic security according to any one of claims 1 to 3, further comprising a safety level information output unit that outputs information on the safety level based on the held history information and the held analysis rule. Inspection system. The cubicle device is
A current-voltage acquisition unit that is located externally and acquires the current and / or voltage of the lead-in wire to the cubicle.
A current-voltage unit having a current-voltage information output unit that outputs current-voltage information that is acquired current / / and voltage information via a network.
An external image acquisition unit that is placed outside and acquires an external image that is an external image of the cubicle,
An external image unit having an external image information output unit that outputs external image information that is acquired external image information via a network.
The cubicle automatic security inspection system according to any one of claims 1 to 4, further comprising any one of the units. The alarm output device is
The equipment replacement maintenance timing judgment rule holding unit that holds the equipment replacement maintenance timing judgment rule, which is a rule that determines the replacement maintenance timing of each equipment of each cubicle device based on the information held in the history information holding unit, and the equipment replacement maintenance timing judgment rule holding unit .
The equipment replacement / maintenance timing calculation unit that calculates the equipment replacement / maintenance timing, which is the replacement / maintenance timing of each equipment of each cubicle device, based on the retained history information and the retained equipment replacement / maintenance timing judgment rule.
When the calculated equipment replacement maintenance timing is within the specified period, the equipment replacement notification unit that outputs to that effect and
The cubicle automatic security inspection system according to any one of claims 1 to 5. The alarm output device is
The unit replacement maintenance timing judgment rule holding unit that holds the unit replacement maintenance timing judgment rule, which is a rule that determines the replacement maintenance timing of each unit based on the information held in the history information holding unit ,
The unit replacement maintenance timing calculation unit that calculates the unit replacement maintenance timing based on the retained history information and the retained unit replacement maintenance timing judgment rule,
A unit replacement notification unit that outputs when the calculated unit replacement maintenance timing is within the specified period, and
The cubicle automatic security inspection system according to any one of claims 1 to 6, further comprising. A report history information acquisition unit that acquires report history information that is the history information for a predetermined period and is acquired for a report.
Based on the acquired report history information, the measurement value related information generation unit that generates the measurement value related information that is the information about the measurement value of each cubicle, and the measurement value related information generation unit.
A measurement value-related information report output unit that outputs a measurement value-related information report, which is a report of the generated measurement value-related information,
The cubicle automatic security inspection system according to any one of claims 1 to 7, further comprising a measured value reporting device. The measurement value-related information generation unit of the measurement value report device is one of the time transition graph of the measurement value for a predetermined period, the maximum value of the measurement value, the minimum value of the measurement value, the average value of the measurement value, and the standard deviation of the measurement value. The cubicle automatic safety inspection system according to claim 8, which has a means for generating a time transition graph or the like for generating one or more pieces of information. The alarm output history information by cause, which is the information related to the alarm output history from the alarm output unit and the alarm condition that caused the alarm output, is the report cause-specific alarm output acquired for the report. Report to acquire history information Alarm output by cause History information acquisition unit,
The alarm-related information report generator that generates the alarm-related information report, which is the information for the alarm-related report based on the acquired report cause-specific alarm output history information,
An alarm-related information report output section that outputs the generated alarm-related information report, and
The cubicle automatic security inspection system according to any one of claims 1 to 9, further comprising an alarm-related information reporting device. The measured value-related information, which is information related to the measured value, includes abnormal noise, offensive odor, overheating, discoloration, damage, stain, corrosion, looseness, cracks, foreign matter adhesion, fusing, rusting, oil leakage, oil amount, mounting condition, and acoustics. , Vibration, operation / switching switch abnormality, sign / protection fence condition, separation distance from other objects, detachment of equipment parts, wind and rain inundation holes, small animal entry holes, ventilation port / ventilation fan operation, lock and key The measured value reporting device according to claim 8, which is information on any one or more of damage and loosening of a switch / fuse. The internal image information includes discoloration, damage, stain, corrosion, looseness, cracks, foreign matter adhesion, fusing, rusting, oil leakage, oil amount, mounting state, vibration, operation / switching switch abnormality, sign / protection fence state. , Separation distance from other objects, disconnection of equipment parts, inundation holes for wind and rain, entry holes for small animals, operation of ventilation openings / fans, damage to locks and keys, loosening of switches / fuses, any one or more. The internal image reporting device according to any one of claims 1 to 11. A measurement value system report template holder that holds multiple report templates that are report templates and are prepared according to the type of measurement value-related information to be reported, and in some cases contains advice information.
The measured value related information type acquisition unit that acquires the measured value related information type, which is the type of the generated measured value related information,
It has a measurement value system report template acquisition unit that acquires a report template according to the type of acquired measurement value related information.
The measurement value related information report output section of the measurement value report device is
Claim 8, claim 9, claim 8 having a template-based measurement value-related information report output means for outputting a measurement value-related information report to be output using the acquired report template and the generated measurement value-related information. Alternatively, the cubicle automatic security inspection system according to any one of claims 10 to 12, which is subordinate to claim 9. An internal image-based report template holder that holds multiple report templates prepared according to the type of internal image-related information that should be reported, including advice information in some cases.
The internal image-related information type acquisition unit that acquires the internal image-related information type, which is the type of the generated internal image-related information,
It has an internal image system report template acquisition unit that acquires a report template according to the acquired internal image related information type.
The internal image related information report output section of the internal image report device is
Any one of claims 1 to 13 having a template-based internal image-related information report output means for outputting an internal image-related information report to be output using the acquired report template and the generated internal image-related information. Cubicle automatic security inspection system described in. It has a first cubicle-related information acquisition department that acquires cubicle-related information that is news, changes in laws and regulations related to cubicles, via the network.
The measured value-related information report output unit of the measured value reporting device has claim 8, claim 9, claim 8 or a cubicle-related information adding means A that includes the cubicle-related information acquired in the measured value-related information report. The cubicle security inspection system according to any one of claims 10 to 14, which is subordinate to claim 9. It has a first cubicle-related information acquisition department that acquires cubicle-related information that is news, changes in laws and regulations related to cubicles, via the network.
13. The cubicle security inspection system described. The alarm output device according to any one of claims 1 to 10 and 13 to 16. The cubicle device according to any one of claims 1 to 10 and 13 to 16. A sound unit, an odor unit, a temperature unit, an internal image unit, a vibration unit, and a dust unit for use in the cubicle safety inspection system according to any one of claims 1 to 10 and 13 to 16. , Electrical-related unit, high-voltage lead-in cable ground fault degree unit, abnormality detection induced value unit, at least two or more of which are installed in a cubicle device and claimed from claim 1 to claim 10 and claim 13. A unit set for transmitting cubicle information, which is a set of two or more units for the purpose of transmitting cubicle information to the alarm output device used in the cubicle security inspection system according to any one of item 16 .

In addition, a ground fault degree measuring unit that measures the degree of ground fault of the high-voltage lead-in cable,
A ground fault degree information output unit that outputs ground fault degree information, which is information indicating the measured degree of ground fault, and a ground fault degree information output unit.
The cubicle automatic security inspection system according to any one of claims 1 to 10 and 13 to 16, further comprising a high-voltage lead-in cable ground fault degree unit. Furthermore, an abnormality detection induced value degree measuring unit that measures the degree of anomaly detection induced value (induced current value and / and the same shall apply hereinafter) of the high-voltage air switch, and
Anomaly detection induced value degree information output unit that outputs anomaly detection induced value degree information, which is information indicating the measured anomaly detection induced value degree, and
The cubicle automatic security inspection system according to any one of claims 1 to 10, claims 13 to 16, and claim 20 further comprising an anomaly detection induced value unit. External image history information acquisition for reports that acquires external image history information for reports that is external image information acquired by the external image unit according to claim 5 among the history information for a predetermined period. Department and
An external image-related information generator that generates external image-related information based on external image information taken at predetermined intervals based on the acquired external image history information for reports.
The external image-related information report output section that outputs the external image-related information report, which is the generated external image-related information report, and the external image-related information report output unit.
5. The cubicle automatic security inspection system according to any one of claims 6 to 9, 20, and 21 according to claim 5, further comprising an external image reporting device. The external image information is provided in the appearance of the cubicle, the state of the site where the cubicle stands, the state of the drop wire to the cubicle, the state of the electric wire led out by the cubicle, the appearance of the telephone pole that introduces a high-voltage current into the cubicle, and the telephone pole. Detects the appearance of the air switch on the pole, the state of the insulator provided on the telephone pole, the appearance of the control device that controls the opening operation of the air switch on the pole, and the degree of ground fault of the high-voltage current drop line. The cubicle automatic security inspection system according to claim 22 , which is information on any one or more of the appearance of the high-voltage lead-in cable ground fault degree measuring device. An external image report template holder that holds multiple report templates that are report templates and are prepared according to the type of external image-related information to be reported, and in some cases contains advice information.
An external image-related information type acquisition unit that acquires an external image-related information type that is a type of generated external image-related information,
It has an external image system report template acquisition unit that acquires a report template according to the acquired external image related information type.
The external image related information report output section of the external image report device is
The cubicle according to claim 22 or 23 , which has a template-based external image-related information report output means for outputting an external image-related information report to be output using the acquired report template and the generated external image-related information. Automatic security check system. It has a first cubicle-related information acquisition department that acquires cubicle-related information that is news, changes in laws and regulations related to cubicles, via the network.
13 . The cubicle security inspection system described.

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