WO2021111652A1 - Digital electric multi-safety control system - Google Patents

Digital electric multi-safety control system Download PDF

Info

Publication number
WO2021111652A1
WO2021111652A1 PCT/JP2020/015987 JP2020015987W WO2021111652A1 WO 2021111652 A1 WO2021111652 A1 WO 2021111652A1 JP 2020015987 W JP2020015987 W JP 2020015987W WO 2021111652 A1 WO2021111652 A1 WO 2021111652A1
Authority
WO
WIPO (PCT)
Prior art keywords
temperature
power
electric circuit
electric
load
Prior art date
Application number
PCT/JP2020/015987
Other languages
French (fr)
Japanese (ja)
Inventor
三輪和夫
Original Assignee
株式会社テクノミライ
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from PCT/JP2019/046953 external-priority patent/WO2021111489A1/en
Application filed by 株式会社テクノミライ filed Critical 株式会社テクノミライ
Priority to JP2020541470A priority Critical patent/JP6762550B1/en
Publication of WO2021111652A1 publication Critical patent/WO2021111652A1/en

Links

Images

Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02BBOARDS, SUBSTATIONS OR SWITCHING ARRANGEMENTS FOR THE SUPPLY OR DISTRIBUTION OF ELECTRIC POWER
    • H02B3/00Apparatus specially adapted for the manufacture, assembly, or maintenance of boards or switchgear
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02HEMERGENCY PROTECTIVE CIRCUIT ARRANGEMENTS
    • H02H5/00Emergency protective circuit arrangements for automatic disconnection directly responsive to an undesired change from normal non-electric working conditions with or without subsequent reconnection
    • H02H5/04Emergency protective circuit arrangements for automatic disconnection directly responsive to an undesired change from normal non-electric working conditions with or without subsequent reconnection responsive to abnormal temperature
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02JCIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J13/00Circuit arrangements for providing remote indication of network conditions, e.g. an instantaneous record of the open or closed condition of each circuitbreaker in the network; Circuit arrangements for providing remote control of switching means in a power distribution network, e.g. switching in and out of current consumers by using a pulse code signal carried by the network
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02JCIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J3/00Circuit arrangements for ac mains or ac distribution networks

Definitions

  • electricity in which a power supply side electric circuit from the power supply side and a load side electric circuit toward the load are arranged in a housing, such as a distribution board, a distribution board, a lamp board, a power board, a control board, and a junction box.
  • the present invention relates to a system for preventing the occurrence of an electric accident leading to a fire or the like in an electric power device electrically connected via a device or the like.
  • a fire that comprises at least one thermal element capable of operating to detect and alert for elevated heat in an electrical cable and sends an alarm when the thermal element measures a temperature rise above a temperature threshold.
  • An electrical system including an alarm unit has been proposed (Patent Document 1).
  • a distribution board has been proposed that can detect the overheated state of a large number of screw connections with a single detector and shut off the electric circuit at the time of detection (Patent Document 3).
  • an electric device such as a distribution board, a distribution board, a light board, a power board, a control board, and a junction box, in which a power supply side electric circuit from the power source side and a load side electric path toward the load are provided in a housing.
  • a power supply side electric circuit from the power source side and a load side electric path toward the load are provided in a housing.
  • a digital electric multi-safety control system that controls the power supply to the load. Both the first electric power device and the second electric power device The temperature inside the housing is constantly detected, and the temperature information inside the housing, which is the information about the temperature inside the housing, is digitally informationed together with the information for identifying the first or second power device related to the housing.
  • the temperature of the load-side electric circuit is constantly detected, and the electric circuit temperature information which is the information about the temperature of the detected load-side electric circuit is output as digital information together with the information for identifying the first or second related to the housing.
  • Electric circuit temperature information acquisition means and The voltage value, current value, and resistance value are constantly detected by being connected to the load side electric circuit, and the voltage, current, and resistance value information which is information on the detected voltage value, current value, and resistance value of the load side electric circuit is stored in the housing. It is equipped with a means for acquiring electric circuit voltage / current / resistance value information that outputs digital information together with information that identifies the first or second power device related to the body.
  • the digital electric multi-safety control system is A housing temperature monitoring means that compares the temperature inside the housing acquired by the housing temperature information acquisition means with a preset housing temperature monitoring means.
  • a load-side electric circuit temperature monitoring means that compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit monitoring temperature.
  • Electric circuit voltage / current / resistance value monitoring that compares the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means with the preset load side electric circuit monitoring voltage / current / resistance value.
  • the first power cutoff means that outputs a power supply cutoff signal that cuts off the power supply to the side electric circuit
  • a second power cutoff means for outputting a power supply cutoff signal that cuts off the power supply to the load side electric circuit, and
  • the load side electric circuit voltage / current / resistance value monitoring means A third power cutoff means that outputs a power supply cutoff signal that cuts off the power supply from the power supply side electric circuit to the load side electric circuit via the electric device when the determination is made.
  • the first warning signal issuing means that outputs a temperature warning signal together with the information that identifies the second power device
  • the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit monitoring temperature, the first electric power device according to the housing.
  • a second warning signal issuing means that outputs a temperature warning signal together with information that identifies the second power device
  • the electric circuit voltage / current / resistance value monitoring means determines that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load side electric circuit monitoring voltage / current / resistance value.
  • a third alarm signal issuing means for outputting a voltage / current / resistance value alarm signal together with information for identifying the first power device or the second power device related to the housing.
  • the first or second electric power device related to the housing with respect to the person terminal and the person in charge terminal owned by the person in charge of managing the first or second electric power device.
  • a digital electric multi-safety control system including a power supply switching control means for outputting a power supply start signal to any one of the second power devices so as to supply power.
  • the leakage current of the load-side electric circuit is included in the voltage value, the current value, and the resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
  • the electric power [1] Digital electric multi-safety control system that outputs a supply cutoff signal.
  • Both the first electric power device and the second electric power device are provided with a circuit switch of a type different from that of the electric device in the load side electric circuit.
  • the power supply cutoff signal output from each of the first power cutoff means, the second power cutoff means, and the third power cutoff means of the digital electric multi-safety control system is the electric device or the circuit.
  • the digital electric multi-safety control system of [1] or [2] that is output to any of the switches.
  • the insulation resistance of the load-side electric circuit is included in the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
  • the digital electric multi-safety control system is Any one of the first power cutoff means, the second power cutoff means, and the third power cutoff means outputs the power supply cutoff signal to any of the first power supply devices. After that, the information on the insulation resistance measured by the electric circuit voltage / current / resistance value information acquisition means of the load side electric circuit from the first electric power device receiving the input of the electric power supply cutoff signal to the load is acquired.
  • an insulation resistance value information output means for outputting this as insulation resistance value information together with information for identifying the first electric power device is further provided to the administrator terminal and the person in charge terminal [1].
  • the insulation resistance value information output means outputs the insulation resistance value information acquired by the electric circuit voltage / current / resistance value information acquisition means after a predetermined time has elapsed after the power supply cutoff signal is output.
  • the housing temperature monitoring means further compares the temperature inside the housing acquired by the housing temperature information acquisition means with the preset temperature inside the housing, and further compares the temperature inside the housing with the preset temperature inside the housing.
  • the load-side electric circuit temperature monitoring means further compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit alarm temperature.
  • the first fire alarm information output means that outputs fire alarm information to the equipment
  • the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit alarm temperature, the above-mentioned electric power device is deployed.
  • a second fire alarm information output means that outputs fire alarm information to the fire alarm system, The digital electric multi-safety control system according to any one of [1] to [7].
  • a digital camera for photographing the electric power device is installed in the vicinity of the electric power device. After the first alarm signal issuing means outputs the temperature alarm signal, or after the second alarm signal issuing means outputs the temperature alarm signal, or after the third alarm signal issuing means outputs the temperature alarm signal, the third alarm signal issuing means said. After outputting the voltage / current / resistance value alarm signal, the digital camera takes a picture based on the image information request information acquired from the administrator terminal and / or the image information request information acquired from the person in charge terminal.
  • the digital electric multi-safety control system according to any one of [1] to [8], further comprising an image information output means for outputting image information of the power device in real time.
  • a temperature detecting means for photographing the circuit switch of one electric power device and the first electric power device to detect the temperature, and photographing the circuit switch of the second electric power device and the second electric power device to detect the temperature.
  • the digital electric multi-safety control system according to [3], further comprising a detection temperature information output means for transmitting to the administrator terminal and / or the person in charge terminal at a predetermined timing.
  • the digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to the control and management of elevators, water supply facilities and production lines of large-scale complex buildings, skyscrapers, terminal buildings and the like.
  • the digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to the control and management of information processing facilities, laboratories, medical institutions, and the like.
  • it is a system that operates normally and safely by automatically switching and converting the functions of constantly operating equipment such as information processing facilities, laboratories, and medical institutions.
  • the digital electric multi-safety control system (multi-DESCON system) of this embodiment is applied to the control and management of transportation means and the like.
  • each major part such as driving, braking, control, and starting of transportation means are controlled in real time, or if the temperature, current, voltage, and resistance value of the power supply control part are abnormal with respect to predetermined values, It is a system that instantly switches from regular use to multi-system and operates normally and safely.
  • the digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to temperature monitoring control of a distribution board, a distribution board, and a control board.
  • the normal temperature inside the panel is 32 ° C to 40 ° C, but the ignition cases of power switches, control remote switches, connectors, etc. are usually 220 ° C to 250 ° C, and the monitoring temperature of the wired wires is arbitrary. It can be set, for example, the monitoring control temperature can be set at 90 ° C to 130 ° C or higher, and the monitoring temperature inside the panel can be set arbitrarily. For example, when the monitoring control temperature is reached at 60 ° C to 80 ° C, the temperature sensor becomes abnormally high, or the current and voltage. , When an abnormal value outside the permissible range is detected from the predetermined value of the resistance value, the breaker of the corresponding board is automatically turned off to prevent the wiring, the corresponding control board from burning, destruction, and ignition.
  • the digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to alarm issuance and transmission of a distribution board, a distribution board, and a control board.
  • the wire temperature is 90 ° C to 130 ° C
  • the temperature inside the panel is 60 ° C to 80 ° C
  • an abnormal value outside the permissible range is detected from the predetermined values of current, voltage, and resistance
  • an alarm is issued and the wire is wired.
  • it is transmitted to a server, a terminal of the management department (personal computer), or a terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wireless network (for example, VPN), and the board is burnt. Prevents destruction and ignition.
  • the digital electric multi-safety control system of this embodiment is applied to the switching control of the lamp / power distribution board of the distribution board / distribution board / control board.
  • the spare lamp / power distribution board When the main breaker is turned off by monitoring and controlling the temperature, voltage, current, and resistance of the regular lamp / power distribution board, the spare lamp / power distribution board is instantly turned on. The power load on the lamp and the power supply to the control panel will be continued.
  • VPN sends an alarm to the server and the smartphone app of the person concerned about the abnormality of the board of the corresponding company name, store name, business office, factory, etc.
  • the current of the leakage current location that normally takes several weeks to one month, the current that the leakage breaker operates, or the current of the weak current that this breaker does not operate, such as the trunk line, wiring, distribution board, distribution board, control board, terminal equipment, etc.
  • Voltage, resistance value abnormality investigation is detected in an instant, and the application of the system of the present invention is downloaded to the server, the terminal of the management department (personal computer) in the wired or wireless network (for example, VPN). It is a monitoring and control system that transmits to a terminal (for example, a smartphone) used by a person.
  • a terminal for example, a smartphone
  • abnormal states such as overcurrent detection and current value decrease of each circuit are detected in real time, and when a predetermined value is exceeded, for example, a contact of a contactor connected to a three-phase motor.
  • a predetermined value for example, a contact of a contactor connected to a three-phase motor.
  • the power is turned off instantly, and in the multi-DESCON system, the power of the electric light / power distribution board is turned on and the temperature, current, and voltage within the permissible range. , The power of the system is supplied by the insulation resistance value, and the power supply to the terminal equipment and equipment is continued.
  • the voltage fluctuation of each circuit is detected in real time and a predetermined value is exceeded in the first power device, for example, in the case of 100V, when the voltage exceeds 6V above and below 101V, the voltage is 200V. In this case, when the voltage exceeds 20V above and below 202V, the power is instantly turned off, the power of the lamp / power distribution board of the multi-DESCON system consisting of the second power device is turned on, and the lamp power load / control board is turned on. Power supply will continue.
  • the rated voltage when the leakage current of each circuit is detected in real time and exceeds a predetermined value in one electric power device, for example, when it is difficult to install the iron base and the outer box of machinery and equipment, the rated voltage.
  • the power of the first power device is instantly turned off at 300 V or less, the sensitivity current is 15 mA, and 0.1 seconds or less, and the multi-DESCON system consisting of the second power device is allowed by turning on the power of the electric light / power distribution board.
  • the power of the system is supplied by the temperature, current, voltage, and insulation resistance value inside, and the power supply to the terminal equipment and equipment is continued to prevent electric shock disaster and electric leakage fire.
  • the high temperature, current, and voltage at the end are cut off, and an alarm is issued. Then, send and connect to a server, a terminal of the management department (personal computer), or a terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wired or wireless network (for example, VPN). Prevents equipment from burning, breaking, and catching fire.
  • the insulation resistance value such as 0.1 M ⁇ when the voltage to ground is 150 V and 0.4 M ⁇ when the voltage is 300 V or more is measured, and the corresponding system trunk diagram is used.
  • a server a terminal of the management department (personal computer) in a wired or wireless network (for example, VPN), and a terminal used by a person in charge (for example, a terminal in which the application of the system of the present invention is downloaded).
  • a terminal of the management department personal computer
  • a wired or wireless network for example, VPN
  • a terminal used by a person in charge for example, a terminal in which the application of the system of the present invention is downloaded.
  • Smartphone Smartphone
  • the digital electric multi-safety control system of the present invention is applied to control and management in the event of a large earthquake.
  • the digital electric multi-safety control system of the present invention has a function for dealing with temperature rise of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
  • the power supply is short-circuited and is in a normal energized state, for example, 32 ° C., gradually over time, for example, the sources of the short circuit are 32 ° C., 33 ° C., 34 ° C., 35 ° C.
  • the temperature sensor of the control board, distribution board, etc. will detect the temperature rise due to the relevant system trunk line and wiring, and the breaker will be shut off, resulting in an electric fire. Prevent accidents and send to servers, management department terminals (personal computers), and personnel-used terminals (eg smartphones) where the applications of the system of the invention are downloaded over a wired or wireless network (eg VPN) Notice.
  • a wired or wireless network eg VPN
  • the digital electric multi-safety control system of the present invention is equipped with a function for responding to a temperature rise at the time of energization / starting from a power failure or stop.
  • Shut off and send over a wired or wireless network eg VPN
  • a server e.g. a terminal in the management department (personal computer), or a terminal used by the person in charge (eg a smartphone) to which the application of the system of the present invention has been downloaded.
  • a wired or wireless network eg VPN
  • the digital electric multi-safety control system of the present invention can monitor the temperature rise of the distribution board, distribution board, control device board and trunk line, wiring, and terminal equipment.
  • the rise detection temperature zone is arbitrarily set to set 55 ° C.
  • the trunk line that has risen from 55 ° C to 56 ° C, 57 ° C, 58 ° C, etc. is detected, and the elapsed time that rises from the normal temperature 32 ° C to 55 ° C is used.
  • the server and management department can use a wired or wireless network (for example, VPN).
  • VPN personal computer
  • the system used by the person in charge for example, a smartphone
  • the application of the system of the present invention is downloaded, and the person concerned can take a safe response.
  • the digital electric multi-safety control system of the present invention can monitor the voltage of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
  • 100V is energized within the range of 101V, ⁇ 6V above and below, and 200V is energized within the range of 20V above and below 202V as an allowable value.
  • a voltage drop may occur due to a voltage drop or multiple branch distribution on the same trunk line or wiring.
  • it is dark and causes equipment failure.
  • power causes a decrease in the number of revolutions, a stop, a failure, and the like.
  • the server, management department terminal (personal computer), and system of the present invention can be used in a wired or wireless network (for example, VPN).
  • VPN a wired or wireless network
  • the input is collated and the power supply of the corresponding breaker is shut off to safely handle the equipment and devices.
  • the digital electric multi-safety control system of the present invention is a system for monitoring the current of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
  • the above-mentioned current value is protected by determining the operating time of the no-fuse breaker for preventing electric accidents at an overcurrent of, for example, 125% or 200% with respect to the rated current, which is 30 A or less or more.
  • the system detects, for example, 115% and 150% of the rated current according to the capacity of the board, trunk line, and wiring, and transmits the current to the PC monitor and smartphone of the person concerned, so that the person concerned can inspect and confirm in real time.
  • the system can operate the no-fuse breaker with the numerical value that can be set arbitrarily.
  • Leakage of current Leakage current which is a leakage current
  • a leakage breaker in applications such as switchboards, distribution boards, control boards and trunk lines, wiring and terminal equipment that are moist, electric water heaters, and heating. It has a breaking function, and the value of the leakage current has a function of, for example, 15 mA, 30 mA, 200 mA in 0.1 seconds. Since the leakage current breaker is a numerical value for a weak current, if it is installed on a distribution board of a damp terminal, a distribution board other than the control device board, a distribution board, etc. The power is turned off.
  • the installation is limited to a place with water and the leakage current of a weak current is overlooked. Therefore, it is applicable due to power failure due to a large earthquake, typhoon, heavy rain, incorrect wiring of distribution boards, distribution boards, control board, etc., poor insulation, loosening of equipment and appliances, gaps due to wear, dust, dust, etc.
  • the leakage current is a spark phenomenon such as a leakage current of a part or an electric short circuit due to an arc phenomenon, for example, 10 to 20 mA
  • the installed current measuring instrument will detect and input it, and the PC monitor and smartphone of the person concerned.
  • the system is a system that prevents electrical accidents by operating breakers on the switchboard, distribution board, and control board.
  • the digital electric multi-safety control system of the present invention is a monitoring system for the insulation resistance of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
  • the system of the present invention measures the voltage and current of the main line and wiring with the distribution board, distribution board, control device board, etc., and changes in voltage when the voltage and current exceed the values arbitrarily set as described above. If an overcurrent no-fuse breaker or leakage breaker is activated due to an electric short circuit, which is the main cause of an electric accident, and the power is turned off, the resistance value measuring device of the monitoring and control system will be used for the corresponding system. Insulation resistance value is transmitted to a server, a terminal of the management department (personal computer), or a terminal used by a person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wired or wireless network (for example, VPN). However, it is a system that allows related parties to perform inspections and safety measures in real time.
  • the digital electric multi-safety control system of the present invention is a monitoring system that automatically measures voltage, current, and resistance values at monthly and annual inspections and when necessary.
  • the system of the present invention completes the daily production and operation of power receiving and transforming equipment, distribution board, distribution board, control device panel, etc. and trunk lines, wiring, and terminal equipment for electrical safety work, or the work from the departure point to the arrival point. After that, weekly, monthly, and yearly periodic inspections, and also measure the voltage, current, and resistance values of the required system at the required time in real time and store it in the storage of the computer, wired or wireless network ( For example, it is transmitted to the server, the terminal of the management department (personal computer), or the terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by the VDC). It is a system that can accurately propel and respond to electric fire accidents such as electric current leakage, electric shock, and sparks in advance.
  • the digital electric multi-safety control system of the present invention is a system capable of inspecting and responding to power supply equipment that requires constant 24-hour operation in building facilities, production factories, laboratories, medical facilities, etc. in real time.
  • the system of the present invention operates electrical equipment such as building facilities, production factories, laboratories, medical facilities, and other means of transportation, motors, fans, electric lights, and communications 24 hours a day, and power supply equipment that needs to be used is the main electrical system.
  • Distribution board, distribution board, junction box, control board, etc. and trunk line, wiring, terminal equipment regular electrical equipment system, and the regular electrical equipment system are the panel, trunk line, wiring, terminal equipment insulation failure, dust adhesion, connection If a short circuit occurs due to loosening of equipment, the breaker shuts off due to a rise in the temperature inside the member or panel, or due to leakage current, stray current, overcurrent, etc., and the power is turned off, the system is switched to the spare system in real time.
  • the relevant building, production factory, laboratory, transportation means, motor, fan, electric light, communication and other electrical equipment will operate normally.
  • the temperature rise of the regular system, electrical troubles, etc. and preliminary switching are performed by the server, the terminal of the management department (personal computer), and the person in charge who has downloaded the application of the system of the present invention on a wired or wireless network (for example, VPN).
  • a terminal for example, a smartphone
  • the related parties can check and respond in real time.
  • the standby power supply system of the present invention includes building facilities such as buildings, production factories, laboratories, medical facilities, and more than one spare power supply required for transportation, motors, fans, electric lights, communications, etc., that is, for example, N ⁇ It is a system that can be installed up to (1 to 100) units (N is an integer).
  • a power supply side electric line from the power source side and a load side electric line toward the load are provided in the housing, such as a distribution board, a distribution board, a light board, a power board, a control board, and a junction box.
  • the block diagram explaining an example of the system configuration of one Embodiment of the digital electric multi-safety control system which concerns on this invention.
  • the flow diagram explaining an example of the operation outline of the digital electric multi-safety control system which concerns on this invention.
  • the block diagram in the 1st electric power apparatus explaining an example of the case where the digital electric multi-safety control system of this invention is adopted as an existing electric power apparatus.
  • FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device.
  • FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device.
  • FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device.
  • FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device.
  • FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted.
  • FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted.
  • FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted.
  • FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted.
  • FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted.
  • FIG. 2 In the system configuration shown in FIG. 2, a power device in which a power supply side electric circuit from the power supply side and a load side electric circuit toward a load are electrically connected via an electric device installed in a housing, and further.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 7 The load side electric circuit in the first electric power device of the illustrated form.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing.
  • FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided.
  • FIG. 16 In the system configuration of the digital electric multi-safety control system shown in FIG.
  • thermographic camera is arranged as an example of a temperature detecting means in the vicinity of a device.
  • the power supply side electric circuit 3 from the power source side and the load side electric circuit 4 toward the load are electrically connected via the electric device 2 provided in the housing 1.
  • the one or more first electric power devices 50a, the power supply side electric circuit 3 from the power source side, and the load side electric circuit 4 toward the load are electrically connected via the electric device 2 provided in the housing 1. It is a system that controls power supply to one or more said loads by one or more second power devices 50b connected to.
  • the first power device 50a and the second power device 50b include, for example, various power receiving and transforming equipment, a distribution board, a distribution board, a light board, a power board, a control board, a remote control device board, a distribution board, a distribution board, and the like.
  • An extension cord between the device and the device / equipment or a junction box for branch wiring connection of wiring is exemplified.
  • the electric device 2 is provided in the housing 1 constituting the first power device 50a and the second power device 50b described above, and has a power supply side electric circuit 3 from the power supply side and a load side electric circuit 4 toward the load. It is intended to establish an electrical connection with, and examples thereof include a main breaker and an earth leakage breaker.
  • the load to which the load-side electric line 4 is heading includes, for example, a prime mover, an elevator, an air conditioning facility, a ventilation facility, a lighting facility, a refrigerating / freezing case, a refrigerator / freezer, a measuring instrument, a computer device, a surveillance camera, a medical device, and a communication device.
  • Etc. which are electric power / electric devices / equipment that operate by receiving power supply, and are deployed and used inside and outside buildings, etc., such as electric power / electric devices / equipment, trains / cars / aircraft / ships, etc. Includes electric power, electrical equipment, equipment, communication equipment, etc. that are deployed and used in vehicles and means of transportation.
  • one is illustrated as the first power device 50a and one as the second power device 50b, but each is one to a plurality of units (for example, N ⁇ (1 to 100) units (N is an integer)). Etc. can be made into an embodiment in which the central monitoring and control device 52 is connected to receive control.
  • the first electric power device 50a and the second electric power device 50b each include a housing internal temperature information acquisition means 8, an electric circuit temperature information acquisition means 9, and an electric circuit voltage / current / resistance value information acquisition means 10. There is.
  • the housing internal temperature information acquisition means 8 constantly detects the internal temperature of the housing 1 constituting the first power device 50a and the second power device 50b described above, and provides information on the detected temperature inside the housing 1.
  • the temperature information inside the housing is output as digital information together with information for identifying the first and second power devices 50a and 50b related to the housing 1.
  • the electric circuit temperature information acquisition means 9 constantly detects the temperature of the load-side electric circuit 4, and uses the detected electric circuit temperature information related to the temperature of the load-side electric circuit 4 as the first and second electric circuit temperature information related to the housing 1. It outputs digital information together with information that identifies the power devices 50a and 50b.
  • the electric circuit voltage / current / resistance value information acquisition means 10 is connected to the load side electric circuit 4 and constantly detects the voltage value, the current value and the resistance value, and relates to the detected voltage value, the current value and the resistance value of the load side electric circuit 4.
  • the voltage / current / resistance value information which is information, is output as digital information together with the information for identifying the first and second power devices 50a and 50b related to the housing 1.
  • the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 include the leakage current of the load-side electric circuit 4 and the insulation resistance.
  • the digital electric multi-safety control system is a central monitoring control device that controls the power supply to one or more loads by the one or more first power devices 50a and the second power device 50b described above. It has 52.
  • the central monitoring control device 52 includes a housing internal temperature monitoring means 11, a load-side electric circuit temperature monitoring means 12, an electric circuit voltage / current / resistance value monitoring means 13, a first power cutoff means 14, and a second power cutoff. Means 15, a third power cutoff means 16, a first warning signal issuing means 17, a second warning signal issuing means 18, a third warning signal issuing means 19, and an alarm notification information output means 20. , Power supply switching means 21, insulation resistance value information output means 22, first fire alarm information output means 23, second fire alarm information output means 24, image information output means 25, and power recovery signal output. The means 26 and the detection temperature information output means 27 are included.
  • a fire alarm system device 40 is provided for the first and second electric power devices 50a and 50b, and as will be described later, the first fire alarm information output means 23 provided in the central monitoring control device 52, Information is provided from the first fire alarm information output means 24.
  • a digital camera 41 that shoots the first and second power devices 50a and 50b at all times or when a shooting start instruction input is received is provided. It has been deployed.
  • the housing temperature monitoring means 11 performs a process of comparing the temperature inside the housing acquired by the housing temperature information acquisition means 8 with a preset temperature inside the housing.
  • the housing temperature monitoring means 11 further performs a process of comparing the temperature inside the housing acquired by the housing temperature information acquisition means 8 with the preset temperature inside the housing.
  • the load-side electric circuit temperature monitoring means 12 performs a process of comparing the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 with a preset load-side electric circuit monitoring temperature.
  • the load-side electric circuit temperature monitoring means 12 further performs a process of comparing the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 with a preset load-side electric circuit alarm temperature.
  • the electric circuit voltage / current / resistance value monitoring means 13 includes the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 and the preset load-side electric circuit monitoring voltage / current / resistance value. Performs the process of comparing with.
  • the allowable voltage value, current value, and resistance value are set in advance according to the load to which the load side electric circuit 4 is connected.
  • the allowable voltage value, current value, and resistance value differ depending on whether the load is an air conditioner, a prime mover, a precision device such as a computer, a medical device, or the like. If this allowable value is exceeded, equipment damage or malfunction may occur. Therefore, the load-side electric circuit monitoring voltage, current, and resistance value are set in advance according to the load to which the load-side electric circuit 4 is connected, and comparison with these is performed.
  • the electric circuit voltage / current / resistance value information acquisition means 10 When the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 are leakage currents, for example, when the voltage reaches 10 mA, 20 mA, or the like, a preset load-side electric circuit monitoring voltage is obtained. -It is possible to determine that the current / resistance value has been exceeded.
  • the first power cutoff means 14 is an electric device 2 when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquisition means 8 exceeds the housing monitoring temperature.
  • a process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 is performed.
  • a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
  • the second power cutoff means 15 is an electric device when the load side electric circuit temperature monitoring means 12 determines that the temperature of the load side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 exceeds the load side electric circuit monitoring temperature.
  • a process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 via 2 is performed.
  • a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
  • the third power cutoff means 16 indicates that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 exceeds the load side electric circuit monitoring voltage / current / resistance value.
  • a process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 via the electric device 2 is performed.
  • a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
  • the voltage value, the current value, and the resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 include the leakage current of the load-side electric circuit 4, and the electric circuit voltage / current / resistance value.
  • the third power cutoff means 16 outputs the power supply cutoff signal. ..
  • the electric power supply side electric path from the power source side and the load side electric path toward the load, to which the digital electric multi-safety control system of this embodiment is deployed, are electrically provided via the electric device 2 provided in the housing 1.
  • the first electric device 50a and the second electric device 50b to which the first electric device 50a and the second electric device 50b are connected are the first electric device 50a and the second electric device 2 including the main breaker, the leakage breaker, and the like.
  • the above-mentioned power supply cutoff signals output from the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 are supplied to the electric device 2 including the main breaker, the leakage breaker, and the like, respectively. Will be done.
  • the power supply side electric circuit from the power supply side and the load side electric circuit toward the load, to which the digital electric multi-safety control system of this embodiment is deployed, are electrically provided via the electric device 2 provided in the housing 1.
  • the first power device 50a and the second power device 50b, which are connected to each other, have, as shown in FIGS. 15 to 25, in addition to the configurations shown in FIGS. It is also possible to form a form in which a circuit switch of a type different from that of the electric device 2 including an electric leakage breaker or the like is provided.
  • circuit switch for example, a circuit switch such as a magnet switch, a power relay, or a solid state relay can be adopted.
  • the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is the main breaker. It can be in the form of being output to either the electric device 2 composed of an earth leakage breaker or the like, or the circuit switch of a type different from that of the electric device 2.
  • the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is first described as the main breaker and the electric leakage. It is advantageous to supply the circuit switch (for example, a magnet switch, a power relay, a solid state relay, etc.) of a type different from that of the electric device 2 including a breaker or the like.
  • the circuit switch for example, a magnet switch, a power relay, a solid state relay, etc.
  • circuit switch is a main breaker, earth leakage breaker, etc.
  • recovery is performed after checking with the person in charge when recovering after shutting off, but circuit switches such as magnet switches, power relays, and solid state relays are remote. It can be restored by control.
  • the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 in which the information regarding the temperature inside the housing acquired by the power recovery signal output means 26 is lower than the monitoring temperature inside the housing.
  • the information on the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 is the information on the electric circuit monitoring voltage / current / resistance value on the load side.
  • the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is first described as a main breaker, a leakage breaker, or the like.
  • the circuit switch for example, a magnet switch, a power relay, a solid state relay, etc.
  • the person in charge recovers the power supply.
  • the above-mentioned power is subsequently generated from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16.
  • the supply cutoff signal can be output and supplied to the electric device 2 including the main breaker, the leakage breaker, and the like.
  • the first alarm signal issuing means 17 is used when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquiring means 8 exceeds the housing monitoring temperature. A process of outputting a temperature alarm signal is performed together with information for identifying the first power device 50a or the second power device 50b related to the body 1.
  • the second alarm signal issuing means 18 is said to be said.
  • a process of outputting a temperature alarm signal is performed together with information for identifying the first power device 50a or the second power device 50b related to the housing 1.
  • the third alarm signal issuing means 19 indicates that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquiring means 10 exceeds the load-side electric circuit monitoring voltage / current / resistance value.
  • the alarm notification information output means 20 outputs the temperature alarm signal output by the first alarm signal issuing means 17, the temperature alarm signal output by the second alarm signal issuing means 18, and the third alarm signal issuing means 19. Based on any of the voltage / current / resistance value warning signals, the first or second power devices 50a and 50b to which the temperature warning signal or the voltage / current / resistance value warning signal is output are managed.
  • the administrator terminal 31 can be configured by a personal computer or the like provided with image information display means such as a monitor.
  • the person-in-charge terminals 32a, 32b, 32c, and 32d can be configured by a mobile terminal such as a smartphone to which the application for system operation of the present invention is downloaded.
  • any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 refers to any of the first power device 50a.
  • the power supply cutoff signal is output, the power supply cutoff signal is input to the load receiving power from the first power device 50a that receives the power supply cutoff signal.
  • a power supply start signal is output to any of the second power devices 50b so as to switch to the first power device 50a to supply power.
  • the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal instantly becomes the second power device when the power supply from the first power device 50a is cut off. Since the power supply is switched from 50b, the operation can be continued.
  • any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is in any of the first power apparatus 50a.
  • the electric circuit voltage / current / resistance value information acquisition means 10 of the load side electric line 4 from the first power device 50a that receives the input of the power supply cutoff signal toward the load The measured information on the insulation resistance is acquired, and the insulation resistance value is applied to the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d together with the information for identifying the first power device 50a. Output as information.
  • the first fire alarm information output means 23 is the first when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquisition means 8 exceeds the housing alarm temperature. A process of outputting fire alarm information to the fire alarm system device 40 provided for the first power device 50a and the second power device 50b is performed.
  • the second fire alarm information output means 24 is used. A process of outputting fire alarm information to the fire alarm system device 40 provided for the first electric power device 50a and the second electric power device 50b is performed.
  • the fire alarm system 40 does not show the fire alarm system, but by establishing a system that automatically contacts related organizations such as the fire department, even if a fire breaks out, various related organizations such as the fire department It is possible to establish a system that enables prompt response by the institution.
  • the image information output means 25 is after the first warning signal issuing means 17 outputs the temperature warning signal, or after the second warning signal issuing means 18 outputs the temperature warning signal, or a third.
  • the alarm signal issuing means 19 outputs the voltage / current / resistance value alarm signal, the image information request information acquired from the administrator terminal 31 and / or the image information request acquired from the person in charge terminals 32a, 32b, 32c, 32d. Based on the information, a process of outputting the first power device 50a and the second power device 50b taken by the digital camera 41 in real time is performed.
  • the image information output means 25 further, even after the insulation resistance value information output means 22 outputs the above-mentioned insulation resistance value information, the image information request information acquired from the administrator terminal 31 and / or the person in charge terminal 32a, Based on the image information request information acquired from the 32b, 32c, and 32d, the process of outputting the first power device 50a and the second power device 50b taken by the digital camera 41 in real time is performed.
  • the temperature at which the first power device 50a and the first power device 50b are photographed and the temperature is detected in the vicinity of the first power device 50a and the first power device 50b, which are junction boxes for branch wiring connection of the above. It can be in the form in which the detection means is deployed.
  • a circuit switch for example, a circuit such as a magnet switch, a power relay, a solid state relay, etc.
  • a circuit switch different from the electric device 2 including the main breaker, the leakage breaker, etc. in the first power device 50a and the first power device 50b.
  • a temperature detecting means for detecting the temperature by photographing the circuit switch is provided in the vicinity of the switch).
  • a temperature detecting means for photographing the first electric power device 50a and detecting the temperature is provided in the vicinity of the first electric power device 50a, and the temperature detecting means is provided in the vicinity of the circuit switch of the first electric power device 50a.
  • a temperature detecting means for photographing a circuit switch and detecting the temperature is provided, and further, a temperature detecting means for photographing the second electric power device 50b and detecting the temperature is provided in the vicinity of the second electric power device 50b.
  • it is also possible to form a form in which a temperature detecting means for photographing the circuit switch and detecting the temperature is provided in the vicinity of the circuit switch of the second electric power device 50b.
  • FIG. 26 shows the circuit of the first power device 50a in the vicinity of the first power device 50a, as described above, in the system configuration of one embodiment of the digital electric multi-safety control system according to the present invention shown in FIG.
  • a thermographic camera is provided as an example of the temperature detecting means described above in the vicinity of a switch, the vicinity of the second power device 50b, the vicinity of the circuit switch of the second power device 50b, and the like will be described. To do.
  • thermographic camera is arranged at the place where the digital camera is arranged in the system configuration shown in FIG. 16, it is also possible to arrange both the digital camera and the thermographic camera.
  • thermographic camera In the embodiment of FIG. 26, an example is described in which a device for illuminating an object to be photographed by the thermographic camera is also attached in the vicinity of the thermographic camera.
  • various power receiving and transforming equipment, a distribution board, a distribution board, a light board, a power board, and a control Near the power device 1 such as an extension cord between a board, a remote control board, a distribution board or a distribution board, and a junction box for branch wiring connection of wiring, or a circuit switch (for example, a magnet switch, power).
  • a circuit switch for example, a magnet switch, power
  • a temperature detecting means for example, a thermographic camera, etc.
  • the detection temperature information output means 27 is a “image information and detection temperature information of the first power device 50a” captured in real time by the temperature detection means (for example, a thermographic camera, etc.). , “Image information and detection temperature information of the circuit switch of the first power device 50a”, “Image information and detection temperature information of the second power device 50b”, “Opening and closing of the circuit of the second power device 50b”. A process of transmitting any or a plurality of the combination of "image information of the device and detected temperature information" to the administrator terminal 31 and / or the person in charge terminals 32a to 32d at a predetermined timing is performed.
  • the temperature detection means for example, a thermographic camera, etc.
  • the first electric power device that the detection temperature information output means 27 shoots in real time toward the administrator terminal 31 and / or the person in charge terminals 32a to 32d by the temperature detection means (for example, a thermographic camera, etc.).
  • the temperature detection means for example, a thermographic camera, etc.
  • the alarm notification information output means 20 gives an alarm. This is the case when the process of outputting notification information is performed.
  • the alarm notification information output means 20 outputs the temperature alarm signal output by the first alarm signal issuing means 17, the temperature alarm signal output by the second alarm signal issuing means 18, and the third alarm signal issuing means 19.
  • the first or second power device 50a, 50b to which the temperature warning signal or the voltage / current / resistance value warning signal is output is The administrator terminal 31 used by the managing administrator and the person in charge terminals 32a, 32b owned by the person in charge of managing the first or second electric power devices 50a, 50b, This is when the 32c and 32d are processed to output the alarm notification information together with the information for identifying the first or second power devices 50a and 50b related to the housing 1.
  • the administrator terminal 31 provides a heat distribution image and detection temperature information of a circuit switch (for example, a circuit switch such as a magnet switch, a power relay, or a solid state relay) different from the electric device 2 composed of a breaker, a leakage breaker, and the like.
  • a circuit switch for example, a circuit switch such as a magnet switch, a power relay, or a solid state relay
  • the manager or the person in charge can grasp the temperature abnormality of the equipment and help prevent the equipment from burning or the occurrence of a fire accident in advance.
  • predetermined timing such as annual, monthly, weekly, daily, hourly, or the like.
  • thermographic camera for example, a thermographic camera, etc.
  • Heat distribution images and detected temperature information of the first and second power devices 50a and 50b which are extension cords between switchboards and distribution boards and devices / appliances, or junction boxes for branch wiring connections of wiring, main breakers, electric leakage
  • the heat distribution image and the detected temperature information of a circuit switch for example, a circuit switch such as a magnet switch, a power relay, a solid state relay, etc.
  • a circuit switch for example, a circuit switch such as a magnet switch, a power relay, a solid state relay, etc.
  • the administrator and the person in charge can acquire the information on the administrator terminal 31 and the person in charge terminals 32a to 32d, so that the equipment can be burnt out. It can be useful for preventing the occurrence of a fire accident.
  • the time when the detection temperature information request information is acquired from the administrator terminal 31 and / or the person in charge terminals 32a to 32d can be mentioned.
  • the manager or the person in charge voluntarily requests and manages the detected temperature information, or is in charge of the above-mentioned first and second power devices 50a and 50b, the heat distribution image information of the circuit switch, and the heat.
  • the detected temperature information displayed numerically in the distribution image it is possible to help prevent the equipment from being burnt or a fire accident from occurring.
  • Circuit switches for example, magnet switches, power relays, solid state relays, etc.
  • the normal temperature of the vessel is 32 ° C to 40 ° C.
  • the above-mentioned electric power device 1 and the circuit switch are prevented from being in a high temperature state deviating from the normal temperature state (32 ° C to 40 ° C), resulting in equipment burning or ignition accident.
  • the heat distribution image information displayed on the display screens of the administrator terminal 31 and the person in charge terminals 32a to 32d and the detection temperature information displayed numerically in the heat distribution image it is necessary to take measures for this. It becomes possible to grasp and deal with it.
  • the digital electric multi-safety control system described above as an example of configuration can be configured from a computer.
  • a CPU central processing unit
  • an operating system and various computers that control the various functions of the system of this embodiment according to the operating system, a predetermined computer program installed or downloaded, and the like.
  • ROM as a storage unit that stores programs, etc., and stores data necessary for the CPU to execute processing for each control, and stores data necessary for the CPU to execute processing, depending on the CPU. It is equipped with a RAM, a hard disk, an information input / output unit such as a communication interface, which is also used as a work area where information can be appropriately rewritten, and is connected by a necessary bus line.
  • the housing temperature information acquisition means 8 may be in the form of a panel temperature sensor 7 and deployed in the housing 1 of the first and second power devices 50a and 50b. it can.
  • the panel temperature sensor 7 is provided in the housing 1 of the first and second power devices 50a and 50b, and the panel temperature sensor 7 constantly detects the temperature inside the housing 1 and the detected temperature.
  • Information is output as digital information, this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is stored by a control unit (not shown). It will be recorded in the means (storage unit) and processed so as to be subjected to the processing operation by the temperature monitoring means 11 inside the housing.
  • the electric wire temperature information acquisition means 9 may be in the form of the electric wire temperature sensor 6 and may be arranged in the housing 1 of the first and second electric power devices 50a and 50b.
  • the electric wire temperature sensor 6 is provided in the housing 1 of the first and second electric power devices 50a and 50b, and the electric wire temperature sensor 6 constantly detects the temperature of the load side electric circuit 4 and digitally detects the detected temperature information. It is output as information, this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is acquired by a control unit (not shown) by an information storage means (storage) (storage) (not shown). It will be recorded in the section) and processed so as to be subjected to the processing operation by the load-side electric circuit temperature monitoring means 12.
  • the voltage value, the current value, and the resistance value are constantly detected by being connected to the load side electric circuit 4, and the voltage, current, and resistance value information which is information on the detected voltage value, current value, and resistance value of the load side electric circuit 4 is obtained.
  • the voltage / current / resistance measuring instrument 5 is used as the electric circuit voltage / current / resistance value information acquisition means 10 that outputs digital information together with the information that identifies the first and second power devices 50a and 50b related to the housing 1. It can be configured to be deployed in the housing 1 of the first and second power devices 50a and 50b.
  • a voltage / current / resistance measuring instrument 5 is provided in the housing 1 of the first and second power devices 50a and 50b, and this constantly detects the voltage value, current value, and resistance value of the load side electric path 4. ,
  • the detected voltage / current / resistance value information is output as digital information, and this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is not shown.
  • the control unit records the information in an information storage unit (storage unit) (not shown), and processes the voltage, current, and resistance value so that the unit 13 can perform the processing operation.
  • the above-mentioned internal temperature monitoring means 11 it is not necessary for the above-mentioned internal temperature monitoring means 11 to the power wind old signal output means 26 to be configured such that all of them are deployed in one device / device (for example, the central monitoring control device 52).
  • the first power device displayed as (1) regular DESCON distribution board / distribution board / control board, and (2) multi-DESCON distribution board / distribution board / control board.
  • a monitoring and control system consisting of a computer is provided in each of the two power devices, and the temperature monitoring means 11 inside the housing, the load side electric circuit temperature monitoring means 12, and the electric circuit voltage / current / resistance value monitoring means 13 that exert the above-mentioned functions.
  • the first power cutoff means 14, the second power cutoff means 15, the third power cutoff means 16, etc. are deployed in the monitoring control system, and the monitoring control system and the central monitoring in the first power device 50a are provided.
  • the monitoring control system in the control device 52 and the second power device 50b and the central monitoring control device 52 may be connected to each other via a wired or wireless network so that information can be communicated with each other.
  • the housing internal temperature information acquisition means 8 the electric circuit, which is arranged at a place away from the first and second electric power devices 50a and 50b and is arranged in the first and second electric power devices 50a and 50b. It is connected to the temperature information acquisition means 9, the electric circuit voltage / current / resistance value information acquisition means 10, etc. via a wired or wireless network, and has some or the remaining configurations among the other configurations described above. It is also possible to configure the server computer installed in the cloud to be included in one or more other devices / devices.
  • the above-mentioned information acquired by the above-mentioned housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 in real time is the first and second power devices 50a and 50b.
  • the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d Based on the information request information such as temperature acquired from the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d, the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d It is possible to output and display on the screen of.
  • power receiving and transforming equipment is equipped with vacuum circuit breakers, high-pressure load switches (fuse), high-pressure cutouts, etc., single-phase and three-phase power system lights, and power distribution boards are equipped with no-fuse breakers and earth leakage breakers.
  • vacuum circuit breakers high-pressure load switches (fuse), high-pressure cutouts, etc.
  • single-phase and three-phase power system lights and power distribution boards are equipped with no-fuse breakers and earth leakage breakers.
  • no-fuse breakers and earth leakage breakers Prevents electrical accidents.
  • fires have occurred due to insufficient tightening of screws due to aging deterioration or inconvenience of construction, loose connection terminals, gaps, incorrect wiring, dust, etc. and poor insulation of the insulation coating, and it seems that it is still insufficient.
  • breakers are generally not installed on extension cords between switchboards, distribution boards and equipment, and appliances, or junction boxes for branch wiring connections and subsequent extension cords, due to short circuits, etc. There are also cases of electric fire accidents
  • FIG. 2 is a block diagram illustrating an example of a system configuration of an embodiment of the digital electric multi-safety control system according to the present invention
  • FIG. 3 is an example of an operation outline of the digital electric multi-safety control system according to the present invention.
  • the flow diagram and FIG. 4 to be described are a distribution board, a distribution board, a control board, and a trunk line / wiring according to an embodiment of the digital electric multi-safety control system according to the present invention. It is a figure explaining an example of the relationship between a terminal device and an instrument.
  • a high-voltage power receiving / transforming facility equipped with a vacuum circuit breaker, a high-voltage load switch (fuse), and a high-voltage cutout receives 6600V from an electric power company.
  • the lamp is stepped down to 200V for single-phase three-wire and 200V for three-phase power with a transformer for electric light and power, and power is supplied via the main line for electric light and power.
  • Power is supplied to each equipment from each switchboard via a branch trunk line, a lamp, a remote device (IOTB, RIO) of the control panel wired to the power distribution board, and the like. Further, an extension cord or a branch wiring connection of wiring is performed from the distribution board or distribution board to the connected device via the junction box.
  • the normal temperature of power receiving and transforming equipment, inside panels such as switchboards and control panels, junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C.
  • Ignition cases of power switches, control remote switches, connectors, etc. are usually around 220 ° C to 250 ° C.
  • the load-side electric circuit monitoring temperature of the wired electric wire or the like can be set to, for example, 90 ° C. This is because the normal temperature of the above-mentioned power receiving / transforming equipment, switchboards, control panels, etc., junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C, and power switches and control remote switches. Since the ignition case of the connector or the like is usually about 220 ° C. to 250 ° C., it can be set in consideration of safety.
  • the monitoring temperature inside the panel or inside the housing such as the junction box can be set to, for example, 60 ° C.
  • the normal temperature of the above-mentioned power receiving / transforming equipment, switchboards, control panels, etc., junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C, and power switches and control remote switches. Since the ignition case of the connector or the like is usually about 220 ° C. to 250 ° C., it can be set in consideration of safety.
  • the above-mentioned power receiving / transforming equipment, inside the switchboard, control panel, etc., junction box, equipment, equipment, equipment, wiring, etc. have a normal temperature of about 32 ° C to 40 ° C, power switch, control remote switch, connector, etc. From the normal temperature of 220 ° C to 250 ° C in the case of ignition, considering the safety side, the above-mentioned load side electric circuit monitoring temperature is in the range of 90 ° C to 130 ° C, and the monitoring temperature inside the housing is in the range of 60 ° C to 80 ° C. Each can be set arbitrarily.
  • the temperature of the electric wire rises due to incorrect wiring, loosening of screws, gaps and dust in the connector connection, melting of the insulating coating material due to sparks due to aged deterioration, etc.
  • the temperature of the electric wire reaches the above-mentioned load side electric circuit monitoring temperature.
  • the digital release system inputs to the breaker of the power supply device by detecting the abnormally high temperature of the temperature sensor, and the breaker is automatically turned off to prevent the occurrence of burning, destruction, or ignition accident of the corresponding load side electric circuit. is there.
  • the digital release system inputs to the breaker of the power supply device by detecting the abnormally high temperature of the temperature sensor, the breaker is automatically turned off, and the corresponding power receiving / transforming equipment, switchboard and control It is a system that prevents the occurrence of burnout, destruction, and ignition accidents in the board, such as the board, and the junction box.
  • the voltage value, current value, and resistance value allowed for the load side electric circuit are set in advance according to the load to which the load side electric circuit is connected. For example, depending on the case where the load is an air conditioner, a prime mover, a precision device such as a computer, a medical device, etc., the voltage value allowed for the load side electric circuit connected to the load, respectively.
  • the current value and resistance value are different. If this allowable value is exceeded, damage to the above-mentioned equipment, which is the load to which the load-side electric circuit is connected, or malfunction may occur. Therefore, the load-side electric circuit monitoring voltage, current, and resistance value are set in advance for each load-side electric circuit according to the load to which the load-side electric circuit is connected.
  • the digital release system inputs to the breaker of the power supply device, the breaker is automatically turned off, and the above-mentioned load is applied. It is a system that prevents damage to the above-mentioned equipment, which is the load to which the side electric circuit is connected, and malfunction.
  • a breaker If a breaker is installed in the junction box of the branch wiring from the switchboard or distribution board, or in the connected equipment, and the extension cord wiring reaches the above-mentioned load-side circuit monitoring temperature, which is a short circuit or caution temperature, the breaker automatically turns on. It is a system that is turned off to prevent the occurrence of fire accidents. In addition, if the voltage, current, or resistance value of the load side electric circuit becomes an abnormal value outside the allowable range described above, the circuit breaker is automatically turned off, and the computer, precision equipment, medical equipment, etc. to which the load side electric circuit is connected, etc. It is a system that prevents the occurrence of damage and malfunction.
  • the above-mentioned temperature warning signal and voltage / current / resistance value warning signal are possessed by the PC monitor and the person in charge of management of the persons concerned, together with the information for identifying the power device requiring attention via the network such as VPN.
  • the system operation application of the present invention is displayed on the downloaded smartphone. This is a system that prevents burnout of panels and other fire accidents in advance, and prevents damage and malfunction of computers, precision equipment, medical equipment, etc. to which the load side electric circuit is connected.
  • the above-mentioned power switch, control remote switch, connector, etc. have a temperature range higher than the allowable range of the load-side electric circuit monitoring temperature of 90 ° C to 130 ° C and the allowable range of the monitoring temperature inside the housing of 60 ° C to 80 ° C. From the normal temperature of 220 ° C. to 250 ° C. in the case of ignition, it is possible to further set the load side electric circuit alarm temperature and the alarm temperature inside the housing in consideration of the safety side.
  • the load-side electric circuit alarm temperature can be set to 180 ° C.
  • the internal housing alarm temperature can be set to 150 ° C.
  • a fire alarm system which is a fire alarm system in a building or the like, is detected by an abnormally high temperature sensor. That is, it is a system connected to the fire alarm system equipment deployed for the above-mentioned electric power device that requires attention.
  • the temperature sensor detects an abnormally high temperature to notify the fire of the fire equipment in the building. It is a system that connects to equipment, that is, fire alarm equipment that is deployed for the above-mentioned electric power equipment that requires attention.
  • the above-mentioned load side electric circuit alarm temperature is 180 ° C to 200 ° C in consideration of safety.
  • the alarm temperature inside the housing can be arbitrarily set in the range of 150 ° C. to 200 ° C.
  • a digital camera is installed in or around the cubicle of the power receiving and transforming equipment, the main distribution board, the distribution board, and the temperature inside the above electric wire or panel is the temperature requiring attention, or the current, voltage, and resistance values are within the permissible range.
  • it can have a function to transmit the real-time image information acquired by the digital camera to the PC monitor or smartphone of the person concerned.
  • 5 to 9 show the configuration when the digital electric multi-safety control system of the present invention is deployed on an existing lamp board, power board, distribution board, distribution board, control board (remote control device board), junction box, or the like.
  • An example is described in the configuration of the power device corresponding to the first power device, and the configuration of the power device corresponding to the first power device in each figure corresponds to the second power device although not shown. The same applies to electric power devices that are used.
  • 16 to 20 show, in addition to the configurations shown in FIGS. 5 to 9, respectively, a circuit switch of a type different from that of the electric device 2 including a main breaker, an earth leakage breaker, etc.
  • a magnet switch is adopted as a circuit switch.
  • a magnet switch composed of an electromagnetic contactor and a thermal relay is adopted as the circuit switch.
  • the housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 are arranged in the place referred to as the “monitoring system” in each figure. .. Then, the above-mentioned digital electric multi-safety control system is applied to the "central monitoring control device” and “server” consisting of computers, which are connected to the “surveillance system” via a wired or wireless network so that information can be communicated. The other unit parts that make up will be deployed respectively.
  • 10 to 14 show the configuration of the light board, the power board, the distribution board, the distribution board, the control board (remote control device board), and the junction box in which the digital electric multi-safety control system of the present invention is adopted.
  • the configuration of the power device corresponding to the power device has been described, and the configuration of the power device corresponding to the first power device in each figure is the same for the power device corresponding to the second power device, although not shown. Applies to.
  • FIGS. 21, 22, 23, and 25 show, in addition to the configurations shown in FIGS. 10 to 14, respectively, a circuit switch of a type different from that of the electric device 2 including a main breaker, an earth leakage breaker, etc. in the load side electric circuit (for example, This describes the case where a magnet switch, a power relay, a solid state relay, etc.) are deployed.
  • a magnet switch is adopted as a circuit switch.
  • FIG. 24 as a circuit switch, a magnet switch composed of an electromagnetic contactor and a thermal relay is adopted as the circuit switch.
  • the housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 are arranged in the place referred to as the “monitoring system” in each figure. .. Then, the above-mentioned digital electric multi-safety control system is applied to the "central monitoring control device” and “server” consisting of computers, which are connected to the “surveillance system” via a wired or wireless network so that information can be communicated. The other unit parts that make up will be deployed respectively.
  • power is cut off from the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 in the predetermined cases described above.
  • a signal is output and the power supply from the power supply side electric circuit to the load side electric circuit is cut off.
  • any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is the first by the power supply switching control means 21.
  • the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal is A power supply start signal is output to any of the second power devices 50b so as to switch to the first power device 50a that receives the input of the power supply cutoff signal to supply power.
  • the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal instantly becomes the second power device when the power supply from the first power device 50a is cut off. Since the power supply is switched from 50b, the operation can be continued.
  • Loads that are cut off (motors, elevators, air conditioning equipment, ventilation equipment, lighting equipment, refrigeration / freezing cases, refrigerators / freezers, measuring instruments, computer equipment, surveillance cameras, medical equipment, etc.
  • the administrator terminal 31 used by the administrator who manages the electric power device and the person in charge of managing the electric power device, along with information that can identify the electric power, electric device, equipment, etc.
  • the notification is sent to the person in charge terminals 32a, 32b, 32c, and 32d that are owned.
  • the administrator and the person in charge can immediately take necessary measures when the above-mentioned load in which the power supply is cut off is a load that should be restored in an instant.
  • the digital electric multi-safety control system of the present invention is, for example, a building, a train, a ship, a car, an airplane, an elevator, a factory, a laboratory, a power plant, a substation, a computer power supply, a prime mover, air conditioning, ventilation, lighting, refrigeration / freezing. Cases, refrigerators / freezers, solar power generation, wind power generation, rockets, storage batteries, communication equipment, etc. and power supplies, transmission lines, trunk lines, wiring, connection equipment, measuring instruments, communication equipment, etc. It is a system that can handle equipment, equipment, appliances, etc.

Abstract

This digital electric multi-safety control system prevents the occurrence of electrical accidents that lead to, for example, the occurrence of fire in an electric power device that is electrically connected via, for example, an electric unit, such as a switchboard, a distribution board, a lighting panel, a power board, a control board, and a junction box, in which a power supply-side electrical path from the power supply side and a load-side electrical path leading to a load are disposed in the housing. The digital electric multi-safety control system further prevents the occurrence of accidents such as damage to various power/electric units or devices to which the load-side electrical path is connected. The digital electric multi-safety control system is provided with a power supply switching control means which, when a power supply shut-off signal is output to any of first power devices, outputs a power supply start signal to the any of the first power devices so as to supply power, in place of the first power device receiving the input of the power supply shut-off signal, to a load receiving the power supply from the first power device receiving the input of the power supply shut-off signal.

Description

デジタルエレクトリックマルチセフティコントロールシステムDigital Electric Multi-Safety Control System
 この発明は、配電盤、分電盤、電灯盤、動力盤、制御盤、ジャンクションボックスなどのように、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器などを介して電気的に接続されている電力装置において火災などに結びつく電気事故の発生を未然に防止するシステムに関する。 In the present invention, electricity in which a power supply side electric circuit from the power supply side and a load side electric circuit toward the load are arranged in a housing, such as a distribution board, a distribution board, a lamp board, a power board, a control board, and a junction box. The present invention relates to a system for preventing the occurrence of an electric accident leading to a fire or the like in an electric power device electrically connected via a device or the like.
 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器などを介して電気的に接続されている電力装置において火災などに結びつく電気事故の発生を未然に防止するシステムに関しては従来から種々の提案が行われている。 An electric accident that leads to a fire or the like occurs in a power device in which the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device installed in the housing. Various proposals have been made conventionally regarding the prevention system.
 例えば、電気ケーブルにおいて上昇した熱を検知および警報するように動作可能な少なくとも1つの熱素子を備えていて、前記熱素子が温度閾値よりも上の温度上昇を測定した場合に警報を送る、火災警報ユニットを含む電気システムが提案されている(特許文献1)。 For example, a fire that comprises at least one thermal element capable of operating to detect and alert for elevated heat in an electrical cable and sends an alarm when the thermal element measures a temperature rise above a temperature threshold. An electrical system including an alarm unit has been proposed (Patent Document 1).
 回路遮断器と電線が接続される端子の異常過熱を検出して、回路遮断器の焼損並びに該回路遮断器の周囲の造営材や周辺機器などへの延焼を防止する、異常過熱検出構造を有する回路遮断器が提案されている(特許文献2)。 It has an abnormal overheat detection structure that detects abnormal overheating of the terminal to which the circuit breaker and the electric wire are connected, and prevents the circuit breaker from burning and spreading to the construction materials and peripheral equipment around the circuit breaker. A circuit breaker has been proposed (Patent Document 2).
 多数のネジ接続部の過熱状態を単一の検出器で検出し、検出時に電路を遮断できる、過熱検出後に電路を遮断する分電盤が提案されている(特許文献3)。 A distribution board has been proposed that can detect the overheated state of a large number of screw connections with a single detector and shut off the electric circuit at the time of detection (Patent Document 3).
特許第5538414号公報Japanese Patent No. 5538414 特許第5808038号公報Japanese Patent No. 58008038 特許第5820652号公報Japanese Patent No. 5820652
 この発明は、配電盤、分電盤、電灯盤、動力盤、制御盤、ジャンクションボックスのように、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器などを介して電気的に接続されている電力装置において火災などに結びつく電気事故の発生を未然に防止し、更に、負荷側電路が接続されている種々の電力・電気機器・装置が損傷等する事故が発生することを未然に防止するシステムを提案することを目的にしている。 According to the present invention, an electric device such as a distribution board, a distribution board, a light board, a power board, a control board, and a junction box, in which a power supply side electric circuit from the power source side and a load side electric path toward the load are provided in a housing. Prevents the occurrence of electrical accidents that lead to fires in electric power devices that are electrically connected via such means, and further damages various electric power, electrical devices, and devices to which load-side electric lines are connected. The purpose is to propose a system that prevents accidents from occurring.
[1]
 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている1乃至複数の第一の電力装置と、
 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている1乃至複数の第二の電力装置とによる1乃至複数の前記負荷に対する電力供給を制御するデジタルエレクトリックマルチセフティコントロールシステムであって、
 前記第一の電力装置及び、前記第二の電力装置は、いずれも、
 前記筐体内の温度を常時検知し、検知した前記筐体内の前記温度に関する情報である筐体内温度情報を前記筐体に係る前記第一、あるいは第二の電力装置を特定する情報と共にデジタル情報で出力する筐体内温情報取得手段と、
 前記負荷側電路の温度を常時検知し、検知した前記負荷側電路の前記温度に関する情報である電路温度情報を前記筐体に係る前記第一、あるいは第二のを特定する情報と共にデジタル情報で出力する電路温度情報取得手段と、
 前記負荷側電路に接続されて電圧値、電流値及び抵抗値を常時検知し、検知した前記負荷側電路の電圧値、電流値及び抵抗値に関する情報である電圧・電流・抵抗値情報を前記筐体に係る前記第一、あるいは第二の電力装置を特定する情報と共にデジタル情報で出力する電路電圧・電流・抵抗値情報取得手段とを備えており、
 前記デジタルエレクトリックマルチセフティコントロールシステムは、
 前記筐体内温情報取得手段で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内監視温度とを比較する筐体内温度監視手段と、
 前記電路温度情報取得手段で取得した前記負荷側電路の前記温度と、あらかじめ設定されている負荷側電路監視温度とを比較する負荷側電路温度監視手段と、
 前記電路電圧・電流・抵抗値情報取得手段で取得した電路電圧・電流・抵抗値と、あらかじめ設定されている負荷側電路監視電圧・電流・抵抗値とを比較する電路電圧・電流・抵抗値監視手段と、
 前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内監視温度を越えたと前記筐体内温度監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第一の電力遮断手段と、
 前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路監視温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第二の電力遮断手段と、
 前記電路電圧・電流・抵抗値情報取得手段で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと前記負荷側電路電圧・電流・抵抗値監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第三の電力遮断手段と、
 前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内監視温度を越えたと前記筐体内温度監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、温度警報信号を出力する第一の警報信号発出手段と、
 前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路監視温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、温度警報信号を出力する第二の警報信号発出手段と、
 前記電路電圧・電流・抵抗値情報取得手段で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと前記電路電圧・電流・抵抗値監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、電圧・電流・抵抗値警報信号を出力する第三の警報信号発出手段と、
 前記第一の警報信号発出手段が出力した前記温度警報信号、前記第二の警報信号発出手段が出力した前記温度警報信号、前記第三の警報信号発出手段が出力した前記電圧・電流・抵抗値警報信号のいずれかに基づいて、前記温度警報信号あるいは前記電圧・電流・抵抗値警報信号が出力された前記第一又は前記第二の電力装置を管理している管理者が使用している管理者端末及び、前記第一又は前記第二の電力装置の管理を担当している担当者が所有している担当者端末に対して、前記筐体に係る前記第一又は前記第二の電力装置を特定する情報と共に、警報通知情報を出力する警報通知情報出力手段とを備えていると共に、
 前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段の中のいずれかが前記第一の電力装置の中のいずれかに対して前記電力供給遮断信号を出力した際に、前記電力供給遮断信号の入力を受ける前記第一の電力装置から電力供給を受けている前記負荷に対して、前記電力供給遮断信号の入力を受ける前記第一の電力装置に切り替わって電力供給を行うように、前記第二の電力装置の中のいずれかに対して電力供給開始信号を出力する電力供給切替制御手段
 を備えているデジタルエレクトリックマルチセフティコントロールシステム。
[1]
One or more first power devices in which the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing, and a plurality of first electric power devices.
One or more by one or more second power devices in which the power supply side electric circuit from the power source side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. A digital electric multi-safety control system that controls the power supply to the load.
Both the first electric power device and the second electric power device
The temperature inside the housing is constantly detected, and the temperature information inside the housing, which is the information about the temperature inside the housing, is digitally informationed together with the information for identifying the first or second power device related to the housing. A means of acquiring temperature information inside the housing to be output,
The temperature of the load-side electric circuit is constantly detected, and the electric circuit temperature information which is the information about the temperature of the detected load-side electric circuit is output as digital information together with the information for identifying the first or second related to the housing. Electric circuit temperature information acquisition means and
The voltage value, current value, and resistance value are constantly detected by being connected to the load side electric circuit, and the voltage, current, and resistance value information which is information on the detected voltage value, current value, and resistance value of the load side electric circuit is stored in the housing. It is equipped with a means for acquiring electric circuit voltage / current / resistance value information that outputs digital information together with information that identifies the first or second power device related to the body.
The digital electric multi-safety control system is
A housing temperature monitoring means that compares the temperature inside the housing acquired by the housing temperature information acquisition means with a preset housing temperature monitoring means.
A load-side electric circuit temperature monitoring means that compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit monitoring temperature.
Electric circuit voltage / current / resistance value monitoring that compares the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means with the preset load side electric circuit monitoring voltage / current / resistance value. Means and
When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the monitoring temperature in the housing, the load from the power supply side electric circuit via the electric device. The first power cutoff means that outputs a power supply cutoff signal that cuts off the power supply to the side electric circuit,
When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit monitoring temperature, the power supply-side electric circuit via the electric device is used. A second power cutoff means for outputting a power supply cutoff signal that cuts off the power supply to the load side electric circuit, and
When the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load side electric circuit monitoring voltage / current / resistance value, the load side electric circuit voltage / current / resistance value monitoring means A third power cutoff means that outputs a power supply cutoff signal that cuts off the power supply from the power supply side electric circuit to the load side electric circuit via the electric device when the determination is made.
When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the monitoring temperature in the housing, the first electric power device or the first power device related to the housing. The first warning signal issuing means that outputs a temperature warning signal together with the information that identifies the second power device,
When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit monitoring temperature, the first electric power device according to the housing. Alternatively, a second warning signal issuing means that outputs a temperature warning signal together with information that identifies the second power device, and
The electric circuit voltage / current / resistance value monitoring means determines that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load side electric circuit monitoring voltage / current / resistance value. At that time, a third alarm signal issuing means for outputting a voltage / current / resistance value alarm signal together with information for identifying the first power device or the second power device related to the housing.
The temperature alarm signal output by the first alarm signal issuing means, the temperature alarm signal output by the second alarm signal issuing means, and the voltage / current / resistance value output by the third alarm signal issuing means. Management used by the administrator who manages the first or second power device to which the temperature alarm signal or the voltage / current / resistance value alarm signal is output based on any of the alarm signals. The first or second electric power device related to the housing with respect to the person terminal and the person in charge terminal owned by the person in charge of managing the first or second electric power device. It is equipped with an alarm notification information output means that outputs alarm notification information together with information that identifies the power source.
Any one of the first power cutoff means, the second power cutoff means, and the third power cutoff means outputs the power supply cutoff signal to any of the first power supply devices. At that time, the load receiving the power supply from the first power device receiving the input of the power supply cutoff signal is switched to the first power device receiving the input of the power supply cutoff signal. A digital electric multi-safety control system including a power supply switching control means for outputting a power supply start signal to any one of the second power devices so as to supply power.
[2]
 前記電路電圧・電流・抵抗値情報取得手段が検知する前記電圧値、電流値及び抵抗値の中に前記負荷側電路の漏洩電流が含まれており、
 前記第三の電力遮断手段は、前記電路電圧・電流・抵抗値情報取得手段で取得した前記漏洩電流の値が前記負荷側電路監視電圧・電流・抵抗値を越えたと判定した際に、前記電力供給遮断信号を出力する
 [1]のデジタルエレクトリックマルチセフティコントロールシステム。
[2]
The leakage current of the load-side electric circuit is included in the voltage value, the current value, and the resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
When the third power cutoff means determines that the value of the leakage current acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load-side electric circuit monitoring voltage / current / resistance value, the electric power [1] Digital electric multi-safety control system that outputs a supply cutoff signal.
[3]
 前記第一の電力装置及び、前記第二の電力装置は、いずれも、前記負荷側電路に前記電気機器とは異なる種類の回路開閉器を備えており、
 前記デジタルエレクトリックマルチセフティコントロールシステムの前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段のそれぞれから出力される前記電力供給遮断信号は、前記電気機器又は前記回路開閉器のいずれかに対して出力される[1]又は[2]のデジタルエレクトリックマルチセフティコントロールシステム。
[3]
Both the first electric power device and the second electric power device are provided with a circuit switch of a type different from that of the electric device in the load side electric circuit.
The power supply cutoff signal output from each of the first power cutoff means, the second power cutoff means, and the third power cutoff means of the digital electric multi-safety control system is the electric device or the circuit. The digital electric multi-safety control system of [1] or [2] that is output to any of the switches.
[4]
 前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段のそれぞれから出力される前記電力供給遮断信号は前記回路開閉器に対して出力される[3]のデジタルエレクトリックセフティコントロールシステム。
[4]
The power supply cutoff signal output from each of the first power cutoff means, the second power cutoff means, and the third power cutoff means is output to the circuit switch [3]. Electric safety control system.
[5]
 前記電力供給遮断信号の入力を受けた前記回路開閉器に対して前記負荷側電路を介した前記負荷への電力供給を復旧させる電力復旧信号を出力する電力復旧信号出力部を備えている[4]のデジタルエレクトリックセフティコントロールシステム。
[5]
It is provided with a power recovery signal output unit that outputs a power recovery signal for restoring power supply to the load via the load side electric circuit to the circuit switch that has received the power supply cutoff signal [4]. ] Digital electric safety control system.
[6]
 前記電路電圧・電流・抵抗値情報取得手段が検知する前記電圧値、電流値及び抵抗値の中に前記負荷側電路の絶縁抵抗が含まれており、
 前記デジタルエレクトリックマルチセフティコントロールシステムは、
 前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段の中のいずれかが前記第一の電力装置の中のいずれかに対して前記電力供給遮断信号を出力した後に、前記電力供給遮断信号の入力を受ける前記第一の電力装置から前記負荷に向かう負荷側電路の前記電路電圧・電流・抵抗値情報取得手段によって測定された前記絶縁抵抗に関する情報を取得し、これを前記管理者端末及び、前記担当者端末に対して、前記第一の電力装置を特定する情報と共に、絶縁抵抗値情報として出力する絶縁抵抗値情報出力手段を更に備えている[1]乃至[5]のいずれかのデジタルエレクトリックマルチセフティコントロールシステム。
[6]
The insulation resistance of the load-side electric circuit is included in the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
The digital electric multi-safety control system is
Any one of the first power cutoff means, the second power cutoff means, and the third power cutoff means outputs the power supply cutoff signal to any of the first power supply devices. After that, the information on the insulation resistance measured by the electric circuit voltage / current / resistance value information acquisition means of the load side electric circuit from the first electric power device receiving the input of the electric power supply cutoff signal to the load is acquired. Further, an insulation resistance value information output means for outputting this as insulation resistance value information together with information for identifying the first electric power device is further provided to the administrator terminal and the person in charge terminal [1]. To the digital electric multi-safety control system according to any one of [5].
[7]
 前記絶縁抵抗値情報出力手段は、前記電力供給遮断信号が出力された後で所定の時間が経過した以降に前記電路電圧・電流・抵抗値情報取得手段が取得した前記絶縁抵抗値情報を出力する[6]のデジタルエレクトリックマルチセフティコントロールシステム。
[7]
The insulation resistance value information output means outputs the insulation resistance value information acquired by the electric circuit voltage / current / resistance value information acquisition means after a predetermined time has elapsed after the power supply cutoff signal is output. [6] Digital electric multi-safety control system.
[8]
 前記筐体内温度監視手段は、前記筐体内温情報取得手段で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内警報温度とを、更に、比較し、
 前記負荷側電路温度監視手段は、前記電路温度情報取得手段で取得した前記負荷側電路の前記温度と、あらかじめ設定されている負荷側電路警報温度とを、更に、比較し、
 前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内警報温度を越えたと前記筐体内温度監視手段が判定した際に、前記電力装置に対して配備されている火災報知設備機器に火災警報情報を出力する第一の火災警報情報出力手段と、
 前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路警報温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記電力装置に対して配備されている前記火災報知設備機器に火災警報情報を出力する第二の火災警報情報出力手段と、
 を更に備えている[1]乃至[7]のいずれかのデジタルエレクトリックマルチセフティコントロールシステム。
[8]
The housing temperature monitoring means further compares the temperature inside the housing acquired by the housing temperature information acquisition means with the preset temperature inside the housing, and further compares the temperature inside the housing with the preset temperature inside the housing.
The load-side electric circuit temperature monitoring means further compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit alarm temperature.
When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the alarm temperature in the housing, the fire alarm system provided for the power device is provided. The first fire alarm information output means that outputs fire alarm information to the equipment,
When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit alarm temperature, the above-mentioned electric power device is deployed. A second fire alarm information output means that outputs fire alarm information to the fire alarm system,
The digital electric multi-safety control system according to any one of [1] to [7].
[9]
 前記電力装置の近傍に前記電力装置を撮影するデジタルカメラが配備されており、
 前記第一の警報信号発出手段が前記温度警報信号を出力した後、または、前記第二の警報信号発出手段が前記温度警報信号を出力した後、あるいは、前記第三の警報信号発出手段が前記電圧・電流・抵抗値警報信号を出力した後、前記管理者端末から取得した画像情報要求情報及び/又は前記担当者端末から取得した画像情報要求情報に基づいて、前記デジタルカメラが撮影している前記電力装置の画像情報をリアルタイムで出力する画像情報出力手段
 を更に備えている[1]乃至[8]のいずれかのデジタルエレクトリックマルチセフティコントロールシステム。
[9]
A digital camera for photographing the electric power device is installed in the vicinity of the electric power device.
After the first alarm signal issuing means outputs the temperature alarm signal, or after the second alarm signal issuing means outputs the temperature alarm signal, or after the third alarm signal issuing means outputs the temperature alarm signal, the third alarm signal issuing means said. After outputting the voltage / current / resistance value alarm signal, the digital camera takes a picture based on the image information request information acquired from the administrator terminal and / or the image information request information acquired from the person in charge terminal. The digital electric multi-safety control system according to any one of [1] to [8], further comprising an image information output means for outputting image information of the power device in real time.
[10]
 前記第一の電力装置の近傍及び前記第二の電力装置の近傍にそれぞれ前記第一の電力装置を撮影し温度を検知する温度検知手段及び前記第二の電力装置を撮影し温度を検知する温度検知手段が配備されている、又は、
 前記第一の電力装置の前記回路開閉器の近傍及び前記第二の電力装置の前記回路開閉器の近傍に前記第一の電力装置の前記回路開閉器及び前記第二の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段が配備されている、又は、
 前記第一の電力装置の近傍と前記第一の電力装置の前記回路開閉器の近傍及び、前記第二の電力装置の近傍と前記第二の電力装置の前記回路開閉器の近傍とに前記第一の電力装置及び前記第一の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段と、前記第二の電力装置及び前記第二の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段とがそれぞれ配備されていて、
 前記温度検知手段がリアルタイムで撮影し検知している前記第一の電力装置の画像情報及び検知温度情報、前記第二の電力装置の画像情報及び検知温度情報、前記第一の電力装置の前記回路開閉器の画像情報及び検知温度情報、前記第二の電力装置の前記回路開閉器の画像情報及び検知温度情報の中の何れかまたは複数を、
 所定のタイミングで、前記管理者端末及び/又は前記担当者端末へ送出する検知温度情報出力手段
 を更に備えている[3]のデジタルエレクトリックマルチセフティコントロールシステム。
[10]
A temperature detecting means for photographing the first electric power device and detecting the temperature and a temperature for detecting the temperature by photographing the second electric power device in the vicinity of the first electric power device and the vicinity of the second electric power device, respectively. Detection means are deployed or
In the vicinity of the circuit switch of the first power device and in the vicinity of the circuit switch of the second power device, the circuit switch of the first power device and the circuit switch of the second power device are opened and closed. A temperature detection means that photographs the vessel and detects the temperature is installed, or
The first in the vicinity of the first power device, the vicinity of the circuit switch of the first power device, the vicinity of the second power device, and the vicinity of the circuit switch of the second power device. A temperature detecting means for photographing the circuit switch of one electric power device and the first electric power device to detect the temperature, and photographing the circuit switch of the second electric power device and the second electric power device to detect the temperature. There are temperature detection means to detect the power.
Image information and detection temperature information of the first power device, image information and detection temperature information of the second power device, and the circuit of the first power device, which the temperature detecting means captures and detects in real time. One or more of the image information and the detected temperature information of the switch, the image information of the circuit switch of the second electric power device, and the detected temperature information.
The digital electric multi-safety control system according to [3], further comprising a detection temperature information output means for transmitting to the administrator terminal and / or the person in charge terminal at a predetermined timing.
 本発明のデジタルエレクトリックマルチセフティコントロールシステム(マルチDESCONシステム)は、大規模複合ビル、超高層ビル、ターミナルビル等の昇降機、給水設備及び生産ラインの制御、管理に適用される。 The digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to the control and management of elevators, water supply facilities and production lines of large-scale complex buildings, skyscrapers, terminal buildings and the like.
 例えば、大規模複合ビル、超高層ビル、ターミナルビル等の常時稼動する昇降機、給水設備等と、また、工場の生産ラインの生産コントロール、電動機、光学測定器等の重要な配電盤、分電盤、制御盤と系統の幹線、配線が高温度または、電流、電圧、絶縁抵抗が所定の数値より、許容範囲外の異常数値を感知するとバイパス機器の予備系統に自動的に切換し、許容内の温度、電流、電圧、絶縁抵抗値で系統の電源を供給し、尚且つ、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信するシステムである。 For example, constantly operating elevators, water supply facilities, etc. in large-scale complex buildings, super high-rise buildings, terminal buildings, etc., and important switchboards, distribution boards, etc. for production control of factory production lines, electric motors, optical measuring instruments, etc. If the control board and the trunk line or wiring of the system are at a high temperature, or if the current, voltage, or insulation resistance detects an abnormal value that is out of the permissible range from the specified values, it automatically switches to the spare system of the bypass device, and the temperature is within the permissible range. , Current, voltage, insulation resistance value of the grid power supply, and the application of the system of the present invention is downloaded to the server, the terminal of the management department (personal computer) by the wired or wireless network (for example, VPN). It is a system that transmits to a terminal (for example, a smartphone) used by the person in charge.
 本発明のデジタルエレクトリックマルチセフティコントロールシステム(マルチDESCONシステム)は、情報処理施設、研究所、医療機関等の制御、管理に適用される。 The digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to the control and management of information processing facilities, laboratories, medical institutions, and the like.
 例えば、情報処理施設、研究所、医療機関等の常時稼動する設備の機能を自動的に切換え、コンバートする正常、尚且つ、安全に稼動するシステムである。 For example, it is a system that operates normally and safely by automatically switching and converting the functions of constantly operating equipment such as information processing facilities, laboratories, and medical institutions.
 この実施形態のデジタルエレクトリックマルチセフティコントロールシステム(マルチDESCONシステム)は、交通手段等の制御、管理に適用される。 The digital electric multi-safety control system (multi-DESCON system) of this embodiment is applied to the control and management of transportation means and the like.
 例えば、交通手段等の駆動、制動、制御、発進等の各主要部位の機能をリアルタイムにコントロール、または、電源制御部分の温度、電流、電圧、抵抗値の所定数値に対して異常であれば、常用からマルチシステムに瞬時に切換え、正常、尚且つ、安全に稼動するシステムである。 For example, if the functions of each major part such as driving, braking, control, and starting of transportation means are controlled in real time, or if the temperature, current, voltage, and resistance value of the power supply control part are abnormal with respect to predetermined values, It is a system that instantly switches from regular use to multi-system and operates normally and safely.
 本発明のデジタルエレクトリックマルチセフティコントロールシステム(マルチDESCONシステム)は、配電盤・分電盤・制御盤の温度監視制御に適用される。 The digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to temperature monitoring control of a distribution board, a distribution board, and a control board.
 例えば、盤内平常時の温度は32℃~40℃であるが、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例は通常220℃~250℃であり、配線されている電線の監視温度は任意設定可能、例えば90℃~130℃以上で監視制御温度に、盤内の監視温度は任意設定可能、例えば60℃~80℃で監視制御温度に達すると、温度センサーの異常高温または、電流、電圧、抵抗値の所定の数値より、許容範囲外の異常数値を感知すると該当盤のブレーカーが自動的にオフされ配線、該当制御盤の焼損、破壊防止、発火を防止する。 For example, the normal temperature inside the panel is 32 ° C to 40 ° C, but the ignition cases of power switches, control remote switches, connectors, etc. are usually 220 ° C to 250 ° C, and the monitoring temperature of the wired wires is arbitrary. It can be set, for example, the monitoring control temperature can be set at 90 ° C to 130 ° C or higher, and the monitoring temperature inside the panel can be set arbitrarily. For example, when the monitoring control temperature is reached at 60 ° C to 80 ° C, the temperature sensor becomes abnormally high, or the current and voltage. , When an abnormal value outside the permissible range is detected from the predetermined value of the resistance value, the breaker of the corresponding board is automatically turned off to prevent the wiring, the corresponding control board from burning, destruction, and ignition.
 本発明のデジタルエレクトリックマルチセフティコントロールシステム(マルチDESCONシステム)は、配電盤・分電盤・制御盤の警報発報、送信に適用される。 The digital electric multi-safety control system (multi-DESCON system) of the present invention is applied to alarm issuance and transmission of a distribution board, a distribution board, and a control board.
 前記の電線温度が90℃~130℃、盤内の温度が60℃~80℃、電流、電圧、抵抗値の所定の数値より、許容範囲外の異常数値を感知すると警報を発報し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、盤の焼損、破壊防止、発火を防止する。 When the wire temperature is 90 ° C to 130 ° C, the temperature inside the panel is 60 ° C to 80 ° C, and an abnormal value outside the permissible range is detected from the predetermined values of current, voltage, and resistance, an alarm is issued and the wire is wired. Alternatively, it is transmitted to a server, a terminal of the management department (personal computer), or a terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wireless network (for example, VPN), and the board is burnt. Prevents destruction and ignition.
 この実施形態のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤・分電盤・制御盤の電灯・動力分電盤切換制御に適用される。 The digital electric multi-safety control system of this embodiment is applied to the switching control of the lamp / power distribution board of the distribution board / distribution board / control board.
 常用の電灯・動力分電盤が上記、温度、電圧、電流、抵抗値の監視制御で主幹ブレーカーの電源がオフされた場合に瞬時に予備の電灯・動力分電盤の電源がオンして、電灯動力負荷・制御盤への電力供給が継続される。また、VPNでサーバー、関係者のスマホアプリに該当企業名、店舗名、事業所、工場等の盤の異常を警報を送信する。また、通常、数週間から1ヶ月程度要する漏洩電流箇所、漏電ブレーカが作動する電流または、当ブレーカが作動しない微弱電流の該当幹線、配線、配電盤、分電盤、制御盤、端末器具等の電流、電圧、抵抗値の異常の調査が一瞬で検知判明し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信する監視制御システムである。 When the main breaker is turned off by monitoring and controlling the temperature, voltage, current, and resistance of the regular lamp / power distribution board, the spare lamp / power distribution board is instantly turned on. The power load on the lamp and the power supply to the control panel will be continued. In addition, VPN sends an alarm to the server and the smartphone app of the person concerned about the abnormality of the board of the corresponding company name, store name, business office, factory, etc. In addition, the current of the leakage current location that normally takes several weeks to one month, the current that the leakage breaker operates, or the current of the weak current that this breaker does not operate, such as the trunk line, wiring, distribution board, distribution board, control board, terminal equipment, etc. , Voltage, resistance value abnormality investigation is detected in an instant, and the application of the system of the present invention is downloaded to the server, the terminal of the management department (personal computer) in the wired or wireless network (for example, VPN). It is a monitoring and control system that transmits to a terminal (for example, a smartphone) used by a person.
 本発明の実施形態の一つとして、各回路の過電流検出、電流値低下等の異常状態をリアルタイムに検知し、所定の数値を超えた場合、例えば、3相モーター接続されているコンタクタの接点不良、配線の断線、故障等による片相運転による電流値の異常時、瞬時に電源がオフし、マルチDESCONシステムは電灯・動力分電盤の電源がオンして許容内の温度、電流、電圧、絶縁抵抗値で系統の電源を供給し、端末装置、設備への電力供給が継続される。 As one of the embodiments of the present invention, abnormal states such as overcurrent detection and current value decrease of each circuit are detected in real time, and when a predetermined value is exceeded, for example, a contact of a contactor connected to a three-phase motor. When the current value is abnormal due to one-phase operation due to a defect, wiring disconnection, failure, etc., the power is turned off instantly, and in the multi-DESCON system, the power of the electric light / power distribution board is turned on and the temperature, current, and voltage within the permissible range. , The power of the system is supplied by the insulation resistance value, and the power supply to the terminal equipment and equipment is continued.
 また、他の実施形態として、各回路の電圧変動をリアルタイムに検知し、第一の電力装置において所定の数値を超えた場合、例えば、100Vの場合、101Vの上下6Vを越えた場合、200Vの場合、202Vの上下20Vを超えた場合、瞬時に電源がオフし、第二の電力装置からなるマルチDESCONシステムの電灯・動力分電盤の電源がオンして、電灯動力負荷・制御盤への電力供給が継続される。 Further, as another embodiment, when the voltage fluctuation of each circuit is detected in real time and a predetermined value is exceeded in the first power device, for example, in the case of 100V, when the voltage exceeds 6V above and below 101V, the voltage is 200V. In this case, when the voltage exceeds 20V above and below 202V, the power is instantly turned off, the power of the lamp / power distribution board of the multi-DESCON system consisting of the second power device is turned on, and the lamp power load / control board is turned on. Power supply will continue.
 更に他の実施形態として、各回路の漏れ電流をリアルタイムに検知し、一の電力装置において所定の数値を超えた場合、例えば、機械器具の鉄台及び外箱の設置工事が困難な場合定格電圧300V以下、感度電流15mA、0.1秒以下で瞬時に第一の電力装置の電源がオフし、第二の電力装置からなるマルチDESCONシステムは電灯・動力分電盤の電源がオンして許容内の温度、電流、電圧、絶縁抵抗値で系統の電源を供給し、端末装置、設備への電力供給が継続され、感電災害及び漏電火災を防止する。 As yet another embodiment, when the leakage current of each circuit is detected in real time and exceeds a predetermined value in one electric power device, for example, when it is difficult to install the iron base and the outer box of machinery and equipment, the rated voltage. The power of the first power device is instantly turned off at 300 V or less, the sensitivity current is 15 mA, and 0.1 seconds or less, and the multi-DESCON system consisting of the second power device is allowed by turning on the power of the electric light / power distribution board. The power of the system is supplied by the temperature, current, voltage, and insulation resistance value inside, and the power supply to the terminal equipment and equipment is continued to prevent electric shock disaster and electric leakage fire.
 また、他の実施形態として、端末コンセント器具、端末装置、機器の絶縁不良、ゴミ、接続部の緩み、誤配線等の場合は末端の高温度、電流、電圧が遮断し、警報を発報して、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、接続機器の焼損、破壊防止、発火を防止する。 Further, as another embodiment, in the case of poor insulation of terminal outlet appliances, terminal devices, devices, dust, loose connections, incorrect wiring, etc., the high temperature, current, and voltage at the end are cut off, and an alarm is issued. Then, send and connect to a server, a terminal of the management department (personal computer), or a terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wired or wireless network (for example, VPN). Prevents equipment from burning, breaking, and catching fire.
 更に他の実施形態として、各回路のブレーカーを遮断した時に、例えば、300V以下、対地電圧が150Vの場合0.1MΩ、300V以上は0.4MΩ等の絶縁抵抗値を測定し、該当系統幹線図に入力し、系統の絶縁抵抗値を有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信する。 As yet another embodiment, when the breaker of each circuit is cut off, for example, when the breaker of each circuit is cut off, the insulation resistance value such as 0.1 MΩ when the voltage to ground is 150 V and 0.4 MΩ when the voltage is 300 V or more is measured, and the corresponding system trunk diagram is used. Enter the insulation resistance value of the system into a server, a terminal of the management department (personal computer) in a wired or wireless network (for example, VPN), and a terminal used by a person in charge (for example, a terminal in which the application of the system of the present invention is downloaded). , Smartphone).
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、大地震発生時の制御、管理に適用される。 The digital electric multi-safety control system of the present invention is applied to control and management in the event of a large earthquake.
 大地震発生時等に配電盤、分電盤、制御盤と各設備機器の倒壊及び冷蔵冷凍設備、洗濯機、テレビ等の倒れとコンセントの破損及び幹線、配線の漏電または、ショートによる発火、焼損等の場合と、または、停電後の復旧通電後等の場合、以下のいずれかの対応を実行できる。 Collapse of distribution boards, distribution boards, control boards and other equipment in the event of a major earthquake, collapse of refrigeration and freezing equipment, washing machines, TVs, etc., damage to outlets, electric leakage of trunk lines and wiring, or ignition or burning due to short circuits, etc. In the case of, or in the case of recovery after power failure, after energization, etc., any of the following measures can be taken.
 1)漏洩電流検出による該当ブレーカーの遮断またはマルチ機能でバイパスして他の幹線から電源の供給する
 2)該当の幹線、配線等に配電盤、分電盤、制御盤、端末機器等の盤内の温度が所定の温度より上昇すれば該当の系統は自動的に遮断する
 3)上記の漏電、温度上昇はデジタルエレクトリックマルチセフティコントロールシステムによって検知し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信する。
1) Shut off the relevant breaker by detecting leakage current or bypass it with a multi-function to supply power from another trunk line 2) Connect the relevant trunk line, wiring, etc. in the panel of the distribution board, distribution board, control board, terminal equipment, etc. If the temperature rises above the specified temperature, the relevant system will be automatically shut off. 3) The above leakage and temperature rise will be detected by the digital electric multi-safety control system, and the server will be connected by a wired or wireless network (for example, VPN). The transmission is performed to the terminal of the management department (personal computer) or the terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤、分電盤、制御装置盤と幹線、配線、端末器具の温度上昇の対応機能を備えている。 The digital electric multi-safety control system of the present invention has a function for dealing with temperature rise of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
 幹線、配線の断線、絶縁被覆材の破れ等と端末コンセント、ソケット、プラグ等のネジの緩、隙間、接触不良等と粉塵、ゴミ等の付着により、単相、3相または、電灯、動力の電源がショートし、通常の通電状態で、例えば32℃であれば、時間的経過を経て徐々に、例えば、ショート発生元が32℃、33℃、34℃、35℃・・・・・・・60℃に上昇し、該当幹線、配線または、端末制御装置の配線が前記の通りに温度上昇し、幹線、配線材は一般的に銅材を利用し電気伝導率と比例し、熱伝導率も高く、端末器具のコンセント、ソケット、プラグ等のショートは、該当の系統幹線、配線により、該当の制御盤、分電盤等の温度センサーが温度上昇を検知して、ブレーカーが遮断され、電気火災事故を防止し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信通知する。 Single-phase, three-phase or electric lights, power due to disconnection of trunk lines, wiring, tearing of insulation coating material, loosening of screws such as terminal outlets, sockets, plugs, gaps, poor contact, etc. and adhesion of dust, dust, etc. If the power supply is short-circuited and is in a normal energized state, for example, 32 ° C., gradually over time, for example, the sources of the short circuit are 32 ° C., 33 ° C., 34 ° C., 35 ° C. The temperature rises to 60 ° C, the temperature of the relevant trunk line, wiring, or wiring of the terminal control device rises as described above, and the trunk line and wiring material are generally made of copper, which is proportional to the electrical conductivity and also the thermal conductivity. If the outlet, socket, plug, etc. of the terminal equipment is short-circuited, the temperature sensor of the control board, distribution board, etc. will detect the temperature rise due to the relevant system trunk line and wiring, and the breaker will be shut off, resulting in an electric fire. Prevent accidents and send to servers, management department terminals (personal computers), and personnel-used terminals (eg smartphones) where the applications of the system of the invention are downloaded over a wired or wireless network (eg VPN) Notice.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、停電または、停止より通電・起電時の温度上昇対応機能を備えている。 The digital electric multi-safety control system of the present invention is equipped with a function for responding to a temperature rise at the time of energization / starting from a power failure or stop.
 就寝、休み等、または大地震、台風、大雨等による配電盤、分電盤、制御装置盤等と家電の冷蔵庫、洗濯機、テレビ、電子レンジ等の倒壊による同盤、器具の破損等と幹線、配線等の断線、幹線、配線の電線被覆材の破れ等により、家庭では翌朝の仕度、企業の就業時また、停電後の復旧通電時に、前記、盤等の破損、幹線、配線、端末器具等のショートにより、前記、盤類、幹線、配線、器具等の温度が例えば、停電時20℃が、通電後に通常の通電時32℃~40℃を超えて、例えば45℃、48℃、50℃、55℃、60℃に短時間で、該当部分より上昇し、幹線、電線を経て、該当系統の端末制御装置盤、分電盤、配電盤等の温度センサーが検知入力し、該システムはブレーカーを遮断し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、該当系統の安全対応システムである。 Sleeping, rest, etc., or the same board due to the collapse of the distribution board, distribution board, control device board, etc. due to a large earthquake, typhoon, heavy rain, etc. Due to disconnection of wiring, etc., trunk line, tearing of wire covering material of wiring, etc., the above-mentioned damage to the board, trunk line, wiring, terminal equipment, etc. Due to the short circuit, the temperature of the boards, trunk lines, wiring, appliances, etc., for example, exceeds 20 ° C during a power failure and exceeds 32 ° C to 40 ° C during normal energization after energization, for example, 45 ° C, 48 ° C, 50 ° C. In a short time, the temperature rises to 55 ° C and 60 ° C from the relevant part, and the temperature sensors of the terminal control device panel, distribution board, distribution board, etc. of the relevant system detect and input via the main line and electric wire, and the system activates the breaker. Shut off and send over a wired or wireless network (eg VPN) to a server, a terminal in the management department (personal computer), or a terminal used by the person in charge (eg a smartphone) to which the application of the system of the present invention has been downloaded. This is the safety response system for the relevant system.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤、分電盤、制御装置盤と幹線、配線、端末器具の温度上昇の監視対応を行うことができる。 The digital electric multi-safety control system of the present invention can monitor the temperature rise of the distribution board, distribution board, control device board and trunk line, wiring, and terminal equipment.
 前記により、該当配電盤、分電盤、制御盤と該当幹線、配線が通電時に例えば32℃、33℃、34℃、35℃・・・・・・・52℃等に上昇したら、温度、時間、上昇検知温度帯を任意設定して55℃を設定し、55℃より、56℃、57℃、58℃等に上昇した幹線を検知し、通常温度32℃より55℃迄上昇した経過時間により、警戒温度を60℃に設定すれば、警戒温度に到達時間を演算し何時間後に到達するか、また過去の温度経過を表示して、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、関係者は安全な対応ができるシステムである。 According to the above, when the corresponding distribution board, distribution board, control board, corresponding trunk line, and wiring rise to, for example, 32 ° C, 33 ° C, 34 ° C, 35 ° C, 52 ° C, etc. when energized, the temperature, time, The rise detection temperature zone is arbitrarily set to set 55 ° C., the trunk line that has risen from 55 ° C to 56 ° C, 57 ° C, 58 ° C, etc. is detected, and the elapsed time that rises from the normal temperature 32 ° C to 55 ° C is used. If the warning temperature is set to 60 ° C, the arrival time of the warning temperature is calculated, how many hours later it will be reached, and the past temperature progress is displayed, and the server and management department can use a wired or wireless network (for example, VPN). (Personal computer), the system used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded, and the person concerned can take a safe response.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤、分電盤、制御装置盤と幹線、配線、端末器具の電圧の監視を行うことができる。 The digital electric multi-safety control system of the present invention can monitor the voltage of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
 例えば、100Vは101V、上下±6V範囲内、200Vの場合、202Vの上下20V範囲内を許容数値として通電している。しかしながら大規模の幹線、配線の敷設距離が長くなれば、電圧降下と、また、同一幹線、配線に、複数分岐分配等により、電圧降下が発生する場合があり、電圧降下により、例えば照明は点滅し、暗く、器具の故障の要因となる。また、動力は、回転数の減少、停止、故障等の要因となる。 For example, 100V is energized within the range of 101V, ± 6V above and below, and 200V is energized within the range of 20V above and below 202V as an allowable value. However, if the laying distance of a large-scale trunk line or wiring becomes long, a voltage drop may occur due to a voltage drop or multiple branch distribution on the same trunk line or wiring. However, it is dark and causes equipment failure. In addition, power causes a decrease in the number of revolutions, a stop, a failure, and the like.
 前記の100Vに対して安全値を考慮し±4V、200Vに対して±14Vになれば、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ該当盤、幹線、配線系統の注意電圧として送信し、表示する監視システムである。 If the safety value is ± 4V for 100V and ± 14V for 200V, the server, management department terminal (personal computer), and system of the present invention can be used in a wired or wireless network (for example, VPN). This is a monitoring system that transmits and displays the caution voltage of the corresponding board, trunk line, and wiring system to the terminal (for example, smartphone) used by the person in charge to which the application of is downloaded.
 本発明のシステムによれば、表示後に、例えば100Vに対して±4V、200Vに対して±14V以上になれば、入力照合し該当のブレーカーの電源を遮断して機器、器具を安全対応する。 According to the system of the present invention, if, for example, ± 4V for 100V and ± 14V or more for 200V after display, the input is collated and the power supply of the corresponding breaker is shut off to safely handle the equipment and devices.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤、分電盤、制御装置盤と幹線、配線、端末器具の電流を監視システムである。 The digital electric multi-safety control system of the present invention is a system for monitoring the current of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
 前記の電流値は、定格電流に対して、例えば125%、200%の過電流についての電気事故防止のノーフューズブレーカーが作動する時間が、30A以下、以上で定められて保護されているが、該システムは前記盤、幹線、配線の容量別に、例えば定格電流の115%、150%で検知し、関係者のPCモニター、スマートフォンへ送信し、関係者はリアルタイムに現地で点検確認ができる。また、該システムは任意で設定可能な前記数値でノーフューズブレーカーを作動させることができる。 The above-mentioned current value is protected by determining the operating time of the no-fuse breaker for preventing electric accidents at an overcurrent of, for example, 125% or 200% with respect to the rated current, which is 30 A or less or more. The system detects, for example, 115% and 150% of the rated current according to the capacity of the board, trunk line, and wiring, and transmits the current to the PC monitor and smartphone of the person concerned, so that the person concerned can inspect and confirm in real time. In addition, the system can operate the no-fuse breaker with the numerical value that can be set arbitrarily.
 電流の漏れ電流である漏洩電流は配電盤、分電盤、制御装置盤と幹線、配線とその端末器具が水気のある厨房、電気温水器、ヒーティング等の用途では、漏電ブレーカー(ELB)で保護遮断機能があり、漏洩電流の数値は、例えば0.1秒で15mA、30mA、200mA等の機能がある。漏洩電流のブレーカーは微弱電流に数値のために、水気のある端末の分電盤、制御装置盤以外の配電盤、分電盤等で設置すれば用途機能的に、微弱電流でELBが遮断すれば電源がオフされる。例えば、電灯の点灯、動力の稼動停止により業務停止、日常生活的に種々な支障が発生する為に、水気のある場所等に設置が限定され微弱電流の漏洩電流は看過されている。その為に、大地震、台風、大雨による停電と配電盤、分電盤、制御装置盤等の誤配線、絶縁不良、機器、器具の緩み、磨耗による隙間、粉塵、ゴミ等の付着等により、該当部分の漏洩電流、アーク現象等による電気のショート等で漏洩電流のスパ-ク現象での、例えば10~20mA等になれば、設置した電流計測器が検知入力し、関係者のPCモニター、スマートフォンへ送信し、関係者は点検し、且つ、該システムは配電盤、分電盤、制御装置盤のブレーカーが作動し、電気事故防止するシステムである。 Leakage of current Leakage current, which is a leakage current, is protected by a leakage breaker (ELB) in applications such as switchboards, distribution boards, control boards and trunk lines, wiring and terminal equipment that are moist, electric water heaters, and heating. It has a breaking function, and the value of the leakage current has a function of, for example, 15 mA, 30 mA, 200 mA in 0.1 seconds. Since the leakage current breaker is a numerical value for a weak current, if it is installed on a distribution board of a damp terminal, a distribution board other than the control device board, a distribution board, etc. The power is turned off. For example, when the lamp is turned on or the power is stopped, the business is stopped and various troubles occur in daily life. Therefore, the installation is limited to a place with water and the leakage current of a weak current is overlooked. Therefore, it is applicable due to power failure due to a large earthquake, typhoon, heavy rain, incorrect wiring of distribution boards, distribution boards, control board, etc., poor insulation, loosening of equipment and appliances, gaps due to wear, dust, dust, etc. If the leakage current is a spark phenomenon such as a leakage current of a part or an electric short circuit due to an arc phenomenon, for example, 10 to 20 mA, the installed current measuring instrument will detect and input it, and the PC monitor and smartphone of the person concerned. The system is a system that prevents electrical accidents by operating breakers on the switchboard, distribution board, and control board.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、配電盤、分電盤、制御装置盤と幹線、配線、端末器具の絶縁抵抗を監視システムである。 The digital electric multi-safety control system of the present invention is a monitoring system for the insulation resistance of a distribution board, a distribution board, a control device board and a trunk line, wiring, and terminal equipment.
 本発明のシステムは配電盤、分電盤、制御装置盤等と幹線、配線の電圧、電流を測定しており、前記の通りに電圧、電流が任意で設定した数値を超えた数値で電圧の変化に電気事故等の主たる原因となる電気のショート等が発生して過電流のノーフューズブレーカー、漏電ブレーカーが作動し、電源がオフになれば停電時に監視制御システムの抵抗値測定器により、該当系統の絶縁抵抗値を有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、関係者は点検、安全の対応がリアルタイムにできるシステムである。 The system of the present invention measures the voltage and current of the main line and wiring with the distribution board, distribution board, control device board, etc., and changes in voltage when the voltage and current exceed the values arbitrarily set as described above. If an overcurrent no-fuse breaker or leakage breaker is activated due to an electric short circuit, which is the main cause of an electric accident, and the power is turned off, the resistance value measuring device of the monitoring and control system will be used for the corresponding system. Insulation resistance value is transmitted to a server, a terminal of the management department (personal computer), or a terminal used by a person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by a wired or wireless network (for example, VPN). However, it is a system that allows related parties to perform inspections and safety measures in real time.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、電圧、電流、抵抗値を月次、年次点検と必要な時期に自動計測する監視システムである。 The digital electric multi-safety control system of the present invention is a monitoring system that automatically measures voltage, current, and resistance values at monthly and annual inspections and when necessary.
 本発明のシステムは電気の保安業務の受変電設備、配電盤、分電盤、制御装置盤等と幹線、配線、端末器具の1日の生産、業務または、出発地より到着地までの業務の完了後と週単位、月単位、年単位の定期点検とまた、必要な系統を必要な時期に電圧、電流、抵抗値をリアルタイムに測定し、コンピュータの記憶部に記憶し、有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、系統別に表記し送信し、業務の正確な推進と、電気事故の漏電、感電、スパーク等と電気火災事故を事前に対応できるシステムである。 The system of the present invention completes the daily production and operation of power receiving and transforming equipment, distribution board, distribution board, control device panel, etc. and trunk lines, wiring, and terminal equipment for electrical safety work, or the work from the departure point to the arrival point. After that, weekly, monthly, and yearly periodic inspections, and also measure the voltage, current, and resistance values of the required system at the required time in real time and store it in the storage of the computer, wired or wireless network ( For example, it is transmitted to the server, the terminal of the management department (personal computer), or the terminal used by the person in charge (for example, a smartphone) to which the application of the system of the present invention is downloaded by the VDC). It is a system that can accurately propel and respond to electric fire accidents such as electric current leakage, electric shock, and sparks in advance.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、建物施設、生産工場、研究所、医療施設等の常時24時間稼動が必要な電源設備等をリアルタイムに点検対応できるシステムである。 The digital electric multi-safety control system of the present invention is a system capable of inspecting and responding to power supply equipment that requires constant 24-hour operation in building facilities, production factories, laboratories, medical facilities, etc. in real time.
 本発明のシステムは建物施設、生産工場、研究所、医療施設等と交通手段、モータ、ファン、電灯、通信等の電気設備を常時24時間稼動、使用が必要な電源設備等は主要電気系統の配電盤、分電盤、ジャンクションボックス、制御装置盤等と幹線、配線、端末器具の常用電気設備系統と、前記常用電気設備系統が前記盤、幹線、配線、端末器具の絶縁不良、ゴミ付着、接続器具の緩み等によりショートし、部材または、盤内の温度の上昇、または漏洩電流、迷走電流、過電流等によりブレーカーが遮断し、電源がオフになれば、リアルタイムに予備の該システムに切替えられ、該当建物、生産工場、研究所、交通手段、モータ、ファン、電灯、通信等の電気設備は、正常に稼動する。また常用系統の温度上昇、電気トラブル等と予備切替は有線又は無線のネットワーク(例えば、VPN)でサーバー、管理部門の端末(パーソナルコンピュータ)、本発明のシステムのアプリケーションがダウンロードされている担当者使用の端末(例えば、スマートフォン)へ送信し、関係者はリアルタイムに点検対応ができるシステムである。 The system of the present invention operates electrical equipment such as building facilities, production factories, laboratories, medical facilities, and other means of transportation, motors, fans, electric lights, and communications 24 hours a day, and power supply equipment that needs to be used is the main electrical system. Distribution board, distribution board, junction box, control board, etc. and trunk line, wiring, terminal equipment regular electrical equipment system, and the regular electrical equipment system are the panel, trunk line, wiring, terminal equipment insulation failure, dust adhesion, connection If a short circuit occurs due to loosening of equipment, the breaker shuts off due to a rise in the temperature inside the member or panel, or due to leakage current, stray current, overcurrent, etc., and the power is turned off, the system is switched to the spare system in real time. , The relevant building, production factory, laboratory, transportation means, motor, fan, electric light, communication and other electrical equipment will operate normally. In addition, the temperature rise of the regular system, electrical troubles, etc. and preliminary switching are performed by the server, the terminal of the management department (personal computer), and the person in charge who has downloaded the application of the system of the present invention on a wired or wireless network (for example, VPN). It is a system that can send to a terminal (for example, a smartphone) and the related parties can check and respond in real time.
 本発明の予備電源系統は建物、生産工場、研究所、医療施設等の建物施設と、交通手段、モータ、ファン、電灯、通信等の必要な予備1台より複数台、すなわち、例えば、N×(1~100)台(Nは整数)等まで設置できるシステムである。 The standby power supply system of the present invention includes building facilities such as buildings, production factories, laboratories, medical facilities, and more than one spare power supply required for transportation, motors, fans, electric lights, communications, etc., that is, for example, N × It is a system that can be installed up to (1 to 100) units (N is an integer).
 この発明によれば、配電盤、分電盤、電灯盤、動力盤、制御盤、ジャンクションボックスのように、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器などを介して電気的に接続されている電力装置において火災などに結びつく電気事故の発生を未然に防止し、更に、負荷側電路が接続されている種々の電力・電気機器・装置が損傷等する事故が発生することを未然に防止するシステムを提供することができる。 According to the present invention, a power supply side electric line from the power source side and a load side electric line toward the load are provided in the housing, such as a distribution board, a distribution board, a light board, a power board, a control board, and a junction box. Prevents the occurrence of electrical accidents that lead to fires in electric power devices that are electrically connected via electrical equipment, etc., and further damages various electric power, electrical equipment, and equipment to which the load side electric circuit is connected. It is possible to provide a system for preventing the occurrence of such accidents.
この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態の構成を説明する概念図。The conceptual diagram explaining the structure of one Embodiment of the digital electric multi-safety control system which concerns on this invention. この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態のシステム構成の一例を説明するブロック図。The block diagram explaining an example of the system configuration of one Embodiment of the digital electric multi-safety control system which concerns on this invention. この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの動作概要の一例を説明するフロー図。The flow diagram explaining an example of the operation outline of the digital electric multi-safety control system which concerns on this invention. この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態に係る配電盤、分電盤、制御盤と幹線・配線。端末機器、器具の関係の一例を説明する図。A distribution board, a distribution board, a control board, and a trunk line / wiring according to an embodiment of the digital electric multi-safety control system according to the present invention. The figure explaining an example of the relationship between a terminal device and an instrument. 既存の電力装置に本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用される場合の一例を説明する第一の電力装置におけるブロック図。The block diagram in the 1st electric power apparatus explaining an example of the case where the digital electric multi-safety control system of this invention is adopted as an existing electric power apparatus. 既存の電力装置に本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用される場合の他の例を説明する第一の電力装置におけるブロック図。FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device. 既存の電力装置に本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用される場合の他の例を説明する第一の電力装置におけるブロック図。FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device. 既存の電力装置に本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用される場合の他の例を説明する第一の電力装置におけるブロック図。FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device. 既存の電力装置に本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用される場合の他の例を説明する第一の電力装置におけるブロック図。FIG. 3 is a block diagram in a first power device illustrating another example when the digital electric multi-safety control system of the present invention is adopted in an existing power device. 本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電力装置の一例を説明する第一の電力装置におけるブロック図。The block diagram in the 1st electric power apparatus explaining an example of the electric power apparatus which employs the digital electric multi-safety control system of this invention. 本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電力装置の他の例を説明する第一の電力装置におけるブロック図。FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted. 本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電力装置の他の例を説明する第一の電力装置におけるブロック図。FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted. 本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電力装置の他の例を説明する第一の電力装置におけるブロック図。FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted. 本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電力装置の他の例を説明する第一の電力装置におけるブロック図。FIG. 6 is a block diagram in a first power device illustrating another example of a power device in which the digital electric multi-safety control system of the present invention is adopted. 図2図示のシステム構成で、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている形態の電力装置に、更に、負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合のシステム構成の一例を説明するブロック図。FIG. 2 In the system configuration shown in FIG. 2, a power device in which a power supply side electric circuit from the power supply side and a load side electric circuit toward a load are electrically connected via an electric device installed in a housing, and further. , A block diagram illustrating an example of a system configuration in the case where a circuit switch of a type different from that of the electric device is provided in the load side electric circuit. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図5図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図6図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図7図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 7 The load side electric circuit in the first electric power device of the illustrated form. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図8図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図9図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図10図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図11図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図12図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図13図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている図14図示の形態の第一の電力装置で負荷側電路に前記電気機器とは異なる種類の回路開閉器が配備されている場合一例を説明するブロック図。The power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. FIG. FIG. 5 is a block diagram illustrating an example in the case where a circuit switch of a type different from that of the electric device is provided. 図16図示のデジタルエレクトリックマルチセフティコントロールシステムのシステム構成において第一の電力装置の近傍、第一の電力装置の回路開閉器の近傍、第二の電力装置の近傍、第二の電力装置の回路開閉器の近傍などに温度検知手段の一例としてサーモグラフィックカメラが配備される実施形態の一例を説明するブロック図。FIG. 16 In the system configuration of the digital electric multi-safety control system shown in FIG. 16, the vicinity of the first power device, the vicinity of the circuit switch of the first power device, the vicinity of the second power device, and the circuit switch of the second power device. The block diagram explaining an example of an embodiment in which a thermographic camera is arranged as an example of a temperature detecting means in the vicinity of a device.
 この実施形態に係るデジタルエレクトリックマルチセフティコントロールシステムを図1~図4を参照して説明する。 The digital electric multi-safety control system according to this embodiment will be described with reference to FIGS. 1 to 4.
 この実施形態に係るデジタルエレクトリックマルチセフティコントロールシステムは、電源側からの電源側電路3と負荷に向かう負荷側電路4とが筐体1内に配備されている電気機器2を介して電気的に接続されている1乃至複数の第一の電力装置50aと、電源側からの電源側電路3と負荷に向かう負荷側電路4とが筐体1内に配備されている電気機器2を介して電気的に接続されている1乃至複数の第二の電力装置50bとによる1乃至複数の前記負荷に対する電力供給を制御するシステムである。 In the digital electric multi-safety control system according to this embodiment, the power supply side electric circuit 3 from the power source side and the load side electric circuit 4 toward the load are electrically connected via the electric device 2 provided in the housing 1. The one or more first electric power devices 50a, the power supply side electric circuit 3 from the power source side, and the load side electric circuit 4 toward the load are electrically connected via the electric device 2 provided in the housing 1. It is a system that controls power supply to one or more said loads by one or more second power devices 50b connected to.
 第一の電力装置50a、第二の電力装置50bとしては、例えば、種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどが例示される。 The first power device 50a and the second power device 50b include, for example, various power receiving and transforming equipment, a distribution board, a distribution board, a light board, a power board, a control board, a remote control device board, a distribution board, a distribution board, and the like. An extension cord between the device and the device / equipment or a junction box for branch wiring connection of wiring is exemplified.
 電気機器2としては、上述した第一の電力装置50a、第二の電力装置50bを構成する筐体1内に配備されていて、電源側からの電源側電路3と負荷に向かう負荷側電路4との間で電気的接続を図るもので、例えば、主幹ブレーカー、漏電ブレーカーなどがあげられる。 The electric device 2 is provided in the housing 1 constituting the first power device 50a and the second power device 50b described above, and has a power supply side electric circuit 3 from the power supply side and a load side electric circuit 4 toward the load. It is intended to establish an electrical connection with, and examples thereof include a main breaker and an earth leakage breaker.
 負荷側電路4が向かっている負荷としては、例えば、原動機、昇降機、空調設備、換気設備、照明設備、冷蔵・冷凍ケース、冷蔵庫・冷凍庫、計測器、コンピュータ機器、監視カメラ、医療機器、通信装置、等、電力の供給を受けて稼働する電力・電気装置・機器であって、建物などの内外を問わずに配備されて使用される電力・電気装置・機器、電車・車・航空機・船などの乗り物・移動手段に配備されて使用される電力・電気装置・機器・通信装置などが含まれる。 The load to which the load-side electric line 4 is heading includes, for example, a prime mover, an elevator, an air conditioning facility, a ventilation facility, a lighting facility, a refrigerating / freezing case, a refrigerator / freezer, a measuring instrument, a computer device, a surveillance camera, a medical device, and a communication device. , Etc., which are electric power / electric devices / equipment that operate by receiving power supply, and are deployed and used inside and outside buildings, etc., such as electric power / electric devices / equipment, trains / cars / aircraft / ships, etc. Includes electric power, electrical equipment, equipment, communication equipment, etc. that are deployed and used in vehicles and means of transportation.
 図1では第一の電力装置50a、第二の電力装置50bとして一台ずつが例示されているが、いずれも1~複数台(例えば、N×(1~100)台(Nは整数))等が中央監視制御装置52に接続されて制御を受ける実施形態にすることができる。 In FIG. 1, one is illustrated as the first power device 50a and one as the second power device 50b, but each is one to a plurality of units (for example, N × (1 to 100) units (N is an integer)). Etc. can be made into an embodiment in which the central monitoring and control device 52 is connected to receive control.
 第一の電力装置50a、第二の電力装置50bは、いずれも、筐体内温情報取得手段8と、電路温度情報取得手段9と、電路電圧・電流・抵抗値情報取得手段10とを備えている。 The first electric power device 50a and the second electric power device 50b each include a housing internal temperature information acquisition means 8, an electric circuit temperature information acquisition means 9, and an electric circuit voltage / current / resistance value information acquisition means 10. There is.
 筐体内温情報取得手段8は、前述の第一の電力装置50a、第二の電力装置50bを構成する筐体1の内部の温度を常時検知し、検知した筐体1内の前記温度に関する情報である筐体内温度情報を、前記筐体1に係る第一、第二の電力装置50a、50bを特定する情報と共にデジタル情報で出力するものである。 The housing internal temperature information acquisition means 8 constantly detects the internal temperature of the housing 1 constituting the first power device 50a and the second power device 50b described above, and provides information on the detected temperature inside the housing 1. The temperature information inside the housing is output as digital information together with information for identifying the first and second power devices 50a and 50b related to the housing 1.
 電路温度情報取得手段9は、前述の負荷側電路4の温度を常時検知し、検知した負荷側電路4の前記温度に関する情報である電路温度情報を前記筐体1に係る第一、第二の電力装置50a、50bを特定する情報と共にデジタル情報で出力するものである。 The electric circuit temperature information acquisition means 9 constantly detects the temperature of the load-side electric circuit 4, and uses the detected electric circuit temperature information related to the temperature of the load-side electric circuit 4 as the first and second electric circuit temperature information related to the housing 1. It outputs digital information together with information that identifies the power devices 50a and 50b.
 電路電圧・電流・抵抗値情報取得手段10は、負荷側電路4に接続されて電圧値、電流値及び抵抗値を常時検知し、検知した負荷側電路4の電圧値、電流値及び抵抗値に関する情報である電圧・電流・抵抗値情報を前記筐体1に係る第一、第二の電力装置50a、50bを特定する情報と共にデジタル情報で出力するものである。 The electric circuit voltage / current / resistance value information acquisition means 10 is connected to the load side electric circuit 4 and constantly detects the voltage value, the current value and the resistance value, and relates to the detected voltage value, the current value and the resistance value of the load side electric circuit 4. The voltage / current / resistance value information, which is information, is output as digital information together with the information for identifying the first and second power devices 50a and 50b related to the housing 1.
 電路電圧・電流・抵抗値情報取得手段10が検知する前記電圧値、電流値及び抵抗値の中には負荷側電路4の漏洩電流と、絶縁抵抗とが含まれている。 The voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 include the leakage current of the load-side electric circuit 4 and the insulation resistance.
 図示の実施形態では、デジタルエレクトリックマルチセフティコントロールシステムは、上述した1乃至複数台の第一の電力装置50a、第二の電力装置50bによる1乃至複数の負荷に対する電力供給を制御する中央監視制御装置52を備えている。 In the illustrated embodiment, the digital electric multi-safety control system is a central monitoring control device that controls the power supply to one or more loads by the one or more first power devices 50a and the second power device 50b described above. It has 52.
 中央監視制御装置52は、筐体内温度監視手段11と、負荷側電路温度監視手段12と、電路電圧・電流・抵抗値監視手段13と、第一の電力遮断手段14と、第二の電力遮断手段15と、第三の電力遮断手段16と、第一の警報信号発出手段17と、第二の警報信号発出手段18と、第三の警報信号発出手段19と、警報通知情報出力手段20と、電力供給切替手段21と、絶縁抵抗値情報出力手段22と、第一の火災警報情報出力手段23と、第二の火災警報情報出力手段24と、画像情報出力手段25と、電力復旧信号出力手段26と、検知温度情報出力手段27とを含んで構成されている。 The central monitoring control device 52 includes a housing internal temperature monitoring means 11, a load-side electric circuit temperature monitoring means 12, an electric circuit voltage / current / resistance value monitoring means 13, a first power cutoff means 14, and a second power cutoff. Means 15, a third power cutoff means 16, a first warning signal issuing means 17, a second warning signal issuing means 18, a third warning signal issuing means 19, and an alarm notification information output means 20. , Power supply switching means 21, insulation resistance value information output means 22, first fire alarm information output means 23, second fire alarm information output means 24, image information output means 25, and power recovery signal output. The means 26 and the detection temperature information output means 27 are included.
 第一、第二の電力装置50a、50bに対しては火災報知設備機器40が配備されており、後述するように、中央監視制御装置52が備えている第一の火災警報情報出力手段23、第一の火災警報情報出力手段24から情報が提供されるようになっている。 A fire alarm system device 40 is provided for the first and second electric power devices 50a and 50b, and as will be described later, the first fire alarm information output means 23 provided in the central monitoring control device 52, Information is provided from the first fire alarm information output means 24.
 また、第一、第二の電力装置50a、50bの近傍にはそれぞれ第一、第二の電力装置50a、50bを、常時、あるいは、撮影開始指示入力を受けたときに撮影するデジタルカメラ41が配備されている。 Further, in the vicinity of the first and second power devices 50a and 50b, a digital camera 41 that shoots the first and second power devices 50a and 50b at all times or when a shooting start instruction input is received is provided. It has been deployed.
 筐体内温度監視手段11は、筐体内温情報取得手段8で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内監視温度とを比較する処理を行う。 The housing temperature monitoring means 11 performs a process of comparing the temperature inside the housing acquired by the housing temperature information acquisition means 8 with a preset temperature inside the housing.
 また、筐体内温度監視手段11は、更に、筐体内温情報取得手段8で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内警報温度とを比較する処理を行う。 Further, the housing temperature monitoring means 11 further performs a process of comparing the temperature inside the housing acquired by the housing temperature information acquisition means 8 with the preset temperature inside the housing.
 負荷側電路温度監視手段12は、電路温度情報取得手段9で取得した負荷側電路4の前記温度と、あらかじめ設定されている負荷側電路監視温度とを比較する処理を行う。 The load-side electric circuit temperature monitoring means 12 performs a process of comparing the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 with a preset load-side electric circuit monitoring temperature.
 また、負荷側電路温度監視手段12は、更に、電路温度情報取得手段9で取得した負荷側電路4の前記温度と、あらかじめ設定されている負荷側電路警報温度とを比較する処理を行う。 Further, the load-side electric circuit temperature monitoring means 12 further performs a process of comparing the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 with a preset load-side electric circuit alarm temperature.
 電路電圧・電流・抵抗値監視手段13は、電路電圧・電流・抵抗値情報取得手段10で取得した電路電圧・電流・抵抗値と、あらかじめ設定されている負荷側電路監視電圧・電流・抵抗値とを比較する処理を行う。 The electric circuit voltage / current / resistance value monitoring means 13 includes the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 and the preset load-side electric circuit monitoring voltage / current / resistance value. Performs the process of comparing with.
 負荷側電路4が接続されている負荷に応じて許容される電圧値、電流値、抵抗値があらかじめ設定されている。例えば、負荷が空調機器の場合、原動機の場合、コンピュータなどの精密機器の場合、医療機器、等々などの場合に応じて、それぞれ許容される電圧値、電流値、抵抗値が異なる。この許容される値を越えてしまうと、機器の損傷や、動作不良などが発生することがある。そこで、負荷側電路4が接続されている負荷に応じてそれぞれ負荷側電路監視電圧・電流・抵抗値があらかじめ設定されており、これとの比較が行われる。 The allowable voltage value, current value, and resistance value are set in advance according to the load to which the load side electric circuit 4 is connected. For example, the allowable voltage value, current value, and resistance value differ depending on whether the load is an air conditioner, a prime mover, a precision device such as a computer, a medical device, or the like. If this allowable value is exceeded, equipment damage or malfunction may occur. Therefore, the load-side electric circuit monitoring voltage, current, and resistance value are set in advance according to the load to which the load-side electric circuit 4 is connected, and comparison with these is performed.
 例えば、100Vに対して±4V、200Vに対して±14V以上になればあらかじめ設定されている負荷側電路監視電圧・電流・抵抗値を越えたと判定するようにすることができる。 For example, if it becomes ± 4V with respect to 100V and ± 14V or more with respect to 200V, it can be determined that the preset load side electric circuit monitoring voltage / current / resistance value has been exceeded.
 また、例えば、例えば、定格電流の115%、150%になればあらかじめ設定されている負荷側電路監視電圧・電流・抵抗値を越えたと判定するようにすることができる。 Further, for example, when it reaches 115% or 150% of the rated current, it can be determined that the preset load-side electric circuit monitoring voltage / current / resistance value has been exceeded.
 電路電圧・電流・抵抗値情報取得手段10が検知する前記電圧値、電流値及び抵抗値が漏洩電流である場合、例えば、10mAあるいは、20mA等になればあらかじめ設定されている負荷側電路監視電圧・電流・抵抗値を越えたと判定するようにすることができる。 When the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 are leakage currents, for example, when the voltage reaches 10 mA, 20 mA, or the like, a preset load-side electric circuit monitoring voltage is obtained. -It is possible to determine that the current / resistance value has been exceeded.
 第一の電力遮断手段14は、筐体内温情報取得手段8で取得した筐体1内の前記温度が前記筐体内監視温度を越えたと筐体内温度監視手段11が判定した際に、電気機器2を介した電源側電路3から負荷側電路4への電力供給を遮断する電力供給遮断信号を出力する処理を行う。例えば、電気機器2を遮断する電力供給遮断信号を電気機器2に対して出力する処理を行う。 The first power cutoff means 14 is an electric device 2 when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquisition means 8 exceeds the housing monitoring temperature. A process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 is performed. For example, a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
 第二の電力遮断手段15は、電路温度情報取得手段9で取得した負荷側電路4の前記温度が前記負荷側電路監視温度を越えたと負荷側電路温度監視手段12が判定した際に、電気機器2を介した電源側電路3から負荷側電路4への電力供給を遮断する電力供給遮断信号を出力する処理を行う。例えば、電気機器2を遮断する電力供給遮断信号を電気機器2に対して出力する処理を行う。 The second power cutoff means 15 is an electric device when the load side electric circuit temperature monitoring means 12 determines that the temperature of the load side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 exceeds the load side electric circuit monitoring temperature. A process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 via 2 is performed. For example, a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
 第三の電力遮断手段16は、電路電圧・電流・抵抗値情報取得手段10で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと負荷側電路電圧・電流・抵抗値監視手段13が判定した際に、電気機器2を介した電源側電路3から負荷側電路4への電力供給を遮断する電力供給遮断信号を出力する処理を行う。例えば、電気機器2を遮断する電力供給遮断信号を電気機器2に対して出力する処理を行う。 The third power cutoff means 16 indicates that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 exceeds the load side electric circuit monitoring voltage / current / resistance value. When the current / resistance value monitoring means 13 determines, a process of outputting a power supply cutoff signal for cutting off the power supply from the power supply side electric circuit 3 to the load side electric circuit 4 via the electric device 2 is performed. For example, a process of outputting a power supply cutoff signal for cutting off the electric device 2 to the electric device 2 is performed.
 上述したように、電路電圧・電流・抵抗値情報取得手段10が検知する前記電圧値、電流値及び抵抗値の中には負荷側電路4の漏洩電流が含まれており、電路電圧・電流・抵抗値情報取得手段10で取得した漏洩電流の値が前記負荷側電路監視電圧・電流・抵抗値を越えたと判定した際に、第三の電力遮断手段16は、前記電力供給遮断信号を出力する。 As described above, the voltage value, the current value, and the resistance value detected by the electric circuit voltage / current / resistance value information acquisition means 10 include the leakage current of the load-side electric circuit 4, and the electric circuit voltage / current / resistance value. When it is determined that the value of the leakage current acquired by the resistance value information acquisition means 10 exceeds the load-side electric circuit monitoring voltage / current / resistance value, the third power cutoff means 16 outputs the power supply cutoff signal. ..
 この実施形態のデジタルエレクトリックマルチセフティコントロールシステムが配備されている、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体1内に配備されている電気機器2を介して電気的に接続されている第一の電力装置50a、第二の電力装置50bが、図5~図14図示のように、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2が第一の電力装置50a、第二の電力装置50bを構成する筐体1内に配備されていて、電源側からの電源側電路3と負荷に向かう負荷側電路4との間で電気的接続が図られている場合、上述した、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16から出力される上述の電力供給遮断信号は、それぞれ、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2に供給される。 The electric power supply side electric path from the power source side and the load side electric path toward the load, to which the digital electric multi-safety control system of this embodiment is deployed, are electrically provided via the electric device 2 provided in the housing 1. As shown in FIGS. 5 to 14, the first electric device 50a and the second electric device 50b to which the first electric device 50a and the second electric device 50b are connected are the first electric device 50a and the second electric device 2 including the main breaker, the leakage breaker, and the like. When the electric power device 50b is installed in the housing 1 and the electric connection between the power source side electric path 3 from the power source side and the load side electric path 4 toward the load is established, the above-mentioned case is described. The above-mentioned power supply cutoff signals output from the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 are supplied to the electric device 2 including the main breaker, the leakage breaker, and the like, respectively. Will be done.
 この実施形態のデジタルエレクトリックマルチセフティコントロールシステムが配備されている、電源側からの電源側電路と負荷に向かう負荷側電路とが筐体1内に配備されている電気機器2を介して電気的に接続されている第一の電力装置50a、第二の電力装置50bは、図15~図25図示のように、図5~図14図示の構成に加えて、更に、負荷側電路に、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器が配備されている形態にすることもできる。 The power supply side electric circuit from the power supply side and the load side electric circuit toward the load, to which the digital electric multi-safety control system of this embodiment is deployed, are electrically provided via the electric device 2 provided in the housing 1. The first power device 50a and the second power device 50b, which are connected to each other, have, as shown in FIGS. 15 to 25, in addition to the configurations shown in FIGS. It is also possible to form a form in which a circuit switch of a type different from that of the electric device 2 including an electric leakage breaker or the like is provided.
 この場合の、回路開閉器としては、例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器を採用することができる。 In this case, as the circuit switch, for example, a circuit switch such as a magnet switch, a power relay, or a solid state relay can be adopted.
 このような構成である場合には、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16のそれぞれから出力される上述の電力供給遮断信号は、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2あるいは、電気機器2とは異なる種類の前記回路開閉器のいずれかに対して出力される形態にすることができる。 In such a configuration, the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is the main breaker. It can be in the form of being output to either the electric device 2 composed of an earth leakage breaker or the like, or the circuit switch of a type different from that of the electric device 2.
 そして、この場合に、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16のそれぞれから出力される上述の電力供給遮断信号は、最初に、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の前記回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなど)に供給される形態にすると有利である。 Then, in this case, the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is first described as the main breaker and the electric leakage. It is advantageous to supply the circuit switch (for example, a magnet switch, a power relay, a solid state relay, etc.) of a type different from that of the electric device 2 including a breaker or the like.
 回路開閉器が主幹ブレーカー、漏電ブレーカーなどである場合、遮断した後に復旧させるときには担当者などの確認の上で復旧が行われるが、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器はリモートコントロールで復旧させることが可能である。 If the circuit switch is a main breaker, earth leakage breaker, etc., recovery is performed after checking with the person in charge when recovering after shutting off, but circuit switches such as magnet switches, power relays, and solid state relays are remote. It can be restored by control.
 そこで、電力復旧信号出力手段26が、筐体内温情報取得手段8で取得した前記筐体内の温度に関する情報が前記筐体内監視温度を下回った、電路温度情報取得手段9で取得した負荷側電路4の温度に関する情報が前記負荷側電路監視温度を下回った、電路電圧・電流・抵抗値情報取得手段10で取得した電路電圧・電流・抵抗値に関する情報が前記負荷側電路監視電圧・電流・抵抗値を下回ったと判定したときに、電力復旧信号出力手段26が、上述した電力供給遮断信号の入力を受けていた前記回路開閉器(マグネットスイッチ、パワーリレー、ソリッドステートリレーなど)に対して負荷側電路を介した前記負荷への電力供給を復旧させる電力復旧信号を出力する構成にすることができる。 Therefore, the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 in which the information regarding the temperature inside the housing acquired by the power recovery signal output means 26 is lower than the monitoring temperature inside the housing. The information on the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means 10 is the information on the electric circuit monitoring voltage / current / resistance value on the load side. When it is determined that the voltage has fallen below the above-mentioned circuit switch (magnet switch, power relay, solid state relay, etc.), the power recovery signal output means 26 receives the input of the power supply cutoff signal described above. It is possible to output a power recovery signal for restoring the power supply to the load via the above.
 これによって、必要がある場合に、負荷側電路を介した前記負荷への電力供給を遮断し、一方で、電力供給を遮断しておく必要がなくなった前記負荷への電力供給を自動的に復旧させることができる。 As a result, when necessary, the power supply to the load via the load-side electric circuit is cut off, while the power supply to the load that does not need to be cut off is automatically restored. Can be made to.
 上述したように、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16のそれぞれから出力される上述の電力供給遮断信号が、まず、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の前記回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなど)に供給されて電力供給が遮断された後であって、電力供給復旧に担当者の立ち合い、確認、等が必要になる程度の不具合が生じたときに、引き続いて、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16のそれぞれから上述の電力供給遮断信号を出力して主幹ブレーカー、漏電ブレーカーなどからなる電気機器2に供給する形態にすることができる。 As described above, the above-mentioned power supply cutoff signal output from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is first described as a main breaker, a leakage breaker, or the like. After being supplied to the circuit switch (for example, a magnet switch, a power relay, a solid state relay, etc.) of a type different from that of the electric device 2 and the power supply is cut off, the person in charge recovers the power supply. When a problem that requires witnessing, confirmation, etc. occurs, the above-mentioned power is subsequently generated from each of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16. The supply cutoff signal can be output and supplied to the electric device 2 including the main breaker, the leakage breaker, and the like.
 第一の警報信号発出手段17は、筐体内温情報取得手段8で取得した筐体1内の前記温度が前記筐体内監視温度を越えたと筐体内温度監視手段11が判定した際に、前記筐体1に係る第一の電力装置50aあるいは、第二の電力装置50bを特定する情報と共に、温度警報信号を出力する処理を行う。 The first alarm signal issuing means 17 is used when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquiring means 8 exceeds the housing monitoring temperature. A process of outputting a temperature alarm signal is performed together with information for identifying the first power device 50a or the second power device 50b related to the body 1.
 第二の警報信号発出手段18は、電路温度情報取得手段9で取得した負荷側電路4の前記温度が前記負荷側電路監視温度を越えたと負荷側電路温度監視手段12が判定した際に、前記筐体1に係る第一の電力装置50aあるいは、第二の電力装置50bを特定する情報と共に、温度警報信号を出力する処理を行う。 When the load-side electric circuit temperature monitoring means 12 determines that the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 exceeds the load-side electric circuit monitoring temperature, the second alarm signal issuing means 18 is said to be said. A process of outputting a temperature alarm signal is performed together with information for identifying the first power device 50a or the second power device 50b related to the housing 1.
 第三の警報信号発出手段19は、電路電圧・電流・抵抗値情報取得手段10で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと電路電圧・電流・抵抗値監視手段13が判定した際に、前記筐体に係る第一の電力装置50aあるいは、第二の電力装置50bを特定する情報と共に、電圧・電流・抵抗値警報信号を出力する処理を行う。 The third alarm signal issuing means 19 indicates that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquiring means 10 exceeds the load-side electric circuit monitoring voltage / current / resistance value. A process of outputting a voltage / current / resistance value alarm signal together with information for identifying the first power device 50a or the second power device 50b related to the housing when the current / resistance value monitoring means 13 determines. I do.
 警報通知情報出力手段20は、第一の警報信号発出手段17が出力した前記温度警報信号、第二の警報信号発出手段18が出力した前記温度警報信号、第三の警報信号発出手段19が出力した前記電圧・電流・抵抗値警報信号のいずれかに基づいて、前記温度警報信号あるいは前記電圧・電流・抵抗値警報信号が出力された第一又は前記第二の電力装置50a、50bを管理している管理者が使用している管理者端末31及び、第一又は前記第二の電力装置50a、50bの管理を担当している担当者が所有している担当者端末32a、32b、32c、32dに対して、筐体1に係る第一又は第二の電力装置50a、50bを特定する情報と共に、警報通知情報を出力する。 The alarm notification information output means 20 outputs the temperature alarm signal output by the first alarm signal issuing means 17, the temperature alarm signal output by the second alarm signal issuing means 18, and the third alarm signal issuing means 19. Based on any of the voltage / current / resistance value warning signals, the first or second power devices 50a and 50b to which the temperature warning signal or the voltage / current / resistance value warning signal is output are managed. The administrator terminal 31 used by the administrator and the person-in- charge terminals 32a, 32b, 32c owned by the person in charge of managing the first or second electric power devices 50a, 50b, For 32d, alarm notification information is output together with information for identifying the first or second power devices 50a and 50b related to the housing 1.
 管理者端末31は、モニタなどの画像情報表示手段を備えているパーソナルコンピュータ等によって構成することができる。担当者端末32a、32b、32c、32dは、本発明のシステム運用用のアプリケーションがダウンロードされているスマートフォンなどの携帯端末によって構成することができる。 The administrator terminal 31 can be configured by a personal computer or the like provided with image information display means such as a monitor. The person-in- charge terminals 32a, 32b, 32c, and 32d can be configured by a mobile terminal such as a smartphone to which the application for system operation of the present invention is downloaded.
 電力供給切替制御手段21は、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16の中のいずれかが第一の電力装置50aの中のいずれかに対して前記電力供給遮断信号を出力した際に、前記電力供給遮断信号の入力を受ける第一の電力装置50aから電力供給を受けている前記負荷に対して、前記電力供給遮断信号の入力を受ける第一の電力装置50aに切り替わって電力供給を行うように、第二の電力装置50bの中のいずれかに対して電力供給開始信号を出力する。 In the power supply switching control means 21, any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 refers to any of the first power device 50a. When the power supply cutoff signal is output, the power supply cutoff signal is input to the load receiving power from the first power device 50a that receives the power supply cutoff signal. A power supply start signal is output to any of the second power devices 50b so as to switch to the first power device 50a to supply power.
 これによって、電力供給遮断信号の入力を受ける第一の電力装置50aから電力供給を受けている前記負荷は、第一の電力装置50aからの電力供給が遮断されると瞬時に第二の電力装置50bからの電力供給に切り替わるので、引き続き稼働を継続することができる。 As a result, the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal instantly becomes the second power device when the power supply from the first power device 50a is cut off. Since the power supply is switched from 50b, the operation can be continued.
 絶縁抵抗値情報出力手段22は、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16の中のいずれかが第一の電力装置50aの中のいずれかに対して前記電力供給遮断信号を出力した後に、前記電力供給遮断信号の入力を受ける前記第一の電力装置50aから前記負荷に向かう負荷側電路4の電路電圧・電流・抵抗値情報取得手段10によって測定された前記絶縁抵抗に関する情報を取得し、これを管理者端末31及び、担当者端末32a、32b、32c、32dに対して、前記第一の電力装置50aを特定する情報と共に、絶縁抵抗値情報として出力する。 In the insulation resistance value information output means 22, any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is in any of the first power apparatus 50a. On the other hand, after the power supply cutoff signal is output, the electric circuit voltage / current / resistance value information acquisition means 10 of the load side electric line 4 from the first power device 50a that receives the input of the power supply cutoff signal toward the load The measured information on the insulation resistance is acquired, and the insulation resistance value is applied to the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d together with the information for identifying the first power device 50a. Output as information.
 第一の火災警報情報出力手段23は、筐体内温情報取得手段8で取得した筐体1内の前記温度が前記筐体内警報温度を越えたと筐体内温度監視手段11が判定した際に、第一の電力装置50a、第二の電力装置50bに対して配備されている火災報知設備機器40に火災警報情報を出力する処理を行う。 The first fire alarm information output means 23 is the first when the housing temperature monitoring means 11 determines that the temperature inside the housing 1 acquired by the housing temperature information acquisition means 8 exceeds the housing alarm temperature. A process of outputting fire alarm information to the fire alarm system device 40 provided for the first power device 50a and the second power device 50b is performed.
 第二の火災警報情報出力手段24は、電路温度情報取得手段9で取得した負荷側電路4の前記温度が前記負荷側電路警報温度を越えたと負荷側電路温度監視手段12が判定した際に、第一の電力装置50a、第二の電力装置50bに対して配備されている火災報知設備機器40に火災警報情報を出力する処理を行う。 When the load-side electric circuit temperature monitoring means 12 determines that the temperature of the load-side electric circuit 4 acquired by the electric circuit temperature information acquisition means 9 exceeds the load-side electric circuit alarm temperature, the second fire alarm information output means 24 is used. A process of outputting fire alarm information to the fire alarm system device 40 provided for the first electric power device 50a and the second electric power device 50b is performed.
 この火災報知設備機器40からは、図示していないが、消防署などの関係機関に対して自動的に連絡を行う体制にすることにより、たとえ火災が発生した場合であっても、消防署など関係諸機関による迅速な対処を可能にする体制にすることができる。 Although not shown, the fire alarm system 40 does not show the fire alarm system, but by establishing a system that automatically contacts related organizations such as the fire department, even if a fire breaks out, various related organizations such as the fire department It is possible to establish a system that enables prompt response by the institution.
 画像情報出力手段25は、第一の警報信号発出手段17が前記温度警報信号を出力した後、または、第二の警報信号発出手段18が前記温度警報信号を出力した後、あるいは、第三の警報信号発出手段19が前記電圧・電流・抵抗値警報信号を出力した後、管理者端末31から取得した画像情報要求情報及び/又は担当者端末32a、32b、32c、32dから取得した画像情報要求情報に基づいて、デジタルカメラ41が撮影している第一の電力装置50a、第二の電力装置50bをリアルタイムで出力する処理を行う。 The image information output means 25 is after the first warning signal issuing means 17 outputs the temperature warning signal, or after the second warning signal issuing means 18 outputs the temperature warning signal, or a third. After the alarm signal issuing means 19 outputs the voltage / current / resistance value alarm signal, the image information request information acquired from the administrator terminal 31 and / or the image information request acquired from the person in charge terminals 32a, 32b, 32c, 32d. Based on the information, a process of outputting the first power device 50a and the second power device 50b taken by the digital camera 41 in real time is performed.
 なお、更に、画像情報出力手段25は、絶縁抵抗値情報出力手段22が上述した絶縁抵抗値情報を出力した後にも、管理者端末31から取得した画像情報要求情報及び/又は担当者端末32a、32b、32c、32dから取得した画像情報要求情報に基づいて、デジタルカメラ41が撮影している第一の電力装置50a、第二の電力装置50bをリアルタイムで出力する処理を行う。 Further, the image information output means 25 further, even after the insulation resistance value information output means 22 outputs the above-mentioned insulation resistance value information, the image information request information acquired from the administrator terminal 31 and / or the person in charge terminal 32a, Based on the image information request information acquired from the 32b, 32c, and 32d, the process of outputting the first power device 50a and the second power device 50b taken by the digital camera 41 in real time is performed.
 これによって、管理者端末31のモニタ画面や、担当者端末32a、32b、32c、32dの画像情報表示画面に、有線又は無線のネットワーク30を介して、上述した温度警報信号などが出力された後の、デジタルカメラ41が撮影している第一の電力装置50a、第二の電力装置50bの画像情報がリアルタイムで表示されるようにするものである。 As a result, after the above-mentioned temperature alarm signal or the like is output to the monitor screen of the administrator terminal 31 or the image information display screen of the person in charge terminals 32a, 32b, 32c, 32d via the wired or wireless network 30. The image information of the first power device 50a and the second power device 50b taken by the digital camera 41 is displayed in real time.
 以上に説明した実施形態で、種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどである第一の電力装置50a及び第一の電力装置50bそれぞれの近傍に、第一の電力装置50a及び第一の電力装置50bをそれぞれ撮影し温度を検知する温度検知手段が配備されている形態にすることができる。 In the embodiment described above, extension cords or wiring between various power receiving and transforming equipment, distribution boards, distribution boards, lighting boards, power boards, control boards, remote control device boards, distribution boards, distribution boards, etc. and devices / appliances. The temperature at which the first power device 50a and the first power device 50b are photographed and the temperature is detected in the vicinity of the first power device 50a and the first power device 50b, which are junction boxes for branch wiring connection of the above. It can be in the form in which the detection means is deployed.
 あるいは、第一の電力装置50a及び第一の電力装置50bにおける主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器)の近傍にそれぞれ当該回路開閉器を撮影し温度を検知する温度検知手段が配備されている形態にすることもできる。 Alternatively, a circuit switch (for example, a circuit such as a magnet switch, a power relay, a solid state relay, etc.) different from the electric device 2 including the main breaker, the leakage breaker, etc. in the first power device 50a and the first power device 50b. It is also possible to form a form in which a temperature detecting means for detecting the temperature by photographing the circuit switch is provided in the vicinity of the switch).
 また、第一の電力装置50aの近傍に第一の電力装置50aを撮影し温度を検知する温度検知手段が配備されていて、なおかつ、第一の電力装置50aの前記回路開閉器の近傍に前記回路開閉器を撮影し温度を検知する温度検知手段が配備されていて、更に、第二の電力装置50bの近傍に第二の電力装置50bを撮影し温度を検知する温度検知手段が配備されていて、なおかつ、第二の電力装置50bの前記回路開閉器の近傍に前記回路開閉器を撮影し温度を検知する温度検知手段が配備されている形態にすることもできる。 Further, a temperature detecting means for photographing the first electric power device 50a and detecting the temperature is provided in the vicinity of the first electric power device 50a, and the temperature detecting means is provided in the vicinity of the circuit switch of the first electric power device 50a. A temperature detecting means for photographing a circuit switch and detecting the temperature is provided, and further, a temperature detecting means for photographing the second electric power device 50b and detecting the temperature is provided in the vicinity of the second electric power device 50b. Further, it is also possible to form a form in which a temperature detecting means for photographing the circuit switch and detecting the temperature is provided in the vicinity of the circuit switch of the second electric power device 50b.
 図26は、図16図示のこの発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態のシステム構成において、上述したように、第一の電力装置50aの近傍、第一の電力装置50aの前記回路開閉器の近傍、第二の電力装置50bの近傍、第二の電力装置50bの前記回路開閉器の近傍などに上述した温度検知手段の一例としてサーモグラフィックカメラが配備される実施形態の一例を説明するものである。 FIG. 26 shows the circuit of the first power device 50a in the vicinity of the first power device 50a, as described above, in the system configuration of one embodiment of the digital electric multi-safety control system according to the present invention shown in FIG. An example of an embodiment in which a thermographic camera is provided as an example of the temperature detecting means described above in the vicinity of a switch, the vicinity of the second power device 50b, the vicinity of the circuit switch of the second power device 50b, and the like will be described. To do.
 図16図示のシステム構成でデジタルカメラが配置されている箇所にサーモグラフィックカメラが配置される形態にしているが、デジタルカメラとサーモグラフィックカメラとの双方が配置される形態にすることもできる。 Although the thermographic camera is arranged at the place where the digital camera is arranged in the system configuration shown in FIG. 16, it is also possible to arrange both the digital camera and the thermographic camera.
 図26の実施形態では、サーモグラフィックカメラの近傍に、サーモグラフィックカメラで撮影する対象を照明する機器も付帯されている例で説明している。 In the embodiment of FIG. 26, an example is described in which a device for illuminating an object to be photographed by the thermographic camera is also attached in the vicinity of the thermographic camera.
 図示を省略しているが、図2、図5~図25図示のシステム構成においても、図26に例示したように、種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどである電力装置1の近傍や、回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器)の近傍にこれらを撮影し、温度を検知する温度検知手段(例えば、サーモグラフィックカメラ、等)や照明が配備されている実施形態にすることができる。 Although not shown, in the system configurations shown in FIGS. 2 and 5 to 25, as illustrated in FIG. 26, various power receiving and transforming equipment, a distribution board, a distribution board, a light board, a power board, and a control Near the power device 1 such as an extension cord between a board, a remote control board, a distribution board or a distribution board, and a junction box for branch wiring connection of wiring, or a circuit switch (for example, a magnet switch, power). These can be photographed in the vicinity of a circuit switch such as a relay or a solid state relay), and an embodiment in which a temperature detecting means (for example, a thermographic camera, etc.) for detecting the temperature and lighting can be provided.
 これらの実施形態の場合に、検知温度情報出力手段27は、前記温度検知手段(例えば、サーモグラフィックカメラ、等)がリアルタイムで撮影している「第一の電力装置50aの画像情報と検知温度情報」、「第一の電力装置50aの前記回路開閉器の画像情報と検知温度情報」、「第二の電力装置50bの画像情報と検知温度情報」、「第二の電力装置50bの前記回路開閉器の画像情報と検知温度情報」という組み合わせの中のいずれか、又は複数を、所定のタイミングで、管理者端末31及び/又は担当者端末32a~32dへ送出する処理を行う。 In the case of these embodiments, the detection temperature information output means 27 is a “image information and detection temperature information of the first power device 50a” captured in real time by the temperature detection means (for example, a thermographic camera, etc.). , "Image information and detection temperature information of the circuit switch of the first power device 50a", "Image information and detection temperature information of the second power device 50b", "Opening and closing of the circuit of the second power device 50b". A process of transmitting any or a plurality of the combination of "image information of the device and detected temperature information" to the administrator terminal 31 and / or the person in charge terminals 32a to 32d at a predetermined timing is performed.
 検知温度情報出力手段27が、管理者端末31及び/又は担当者端末32a~32dへ向けて、前記温度検知手段(例えば、サーモグラフィックカメラ、等)がリアルタイムで撮影している第一の電力装置50aの「画像情報及び検知温度情報」、第一の電力装置50aの前記回路開閉器の「画像情報及び検知温度情報」、第二の電力装置50bの「画像情報及び検知温度情報」、第二の電力装置50bの前記回路開閉器の「画像情報及び検知温度情報」という組み合わせの中のいずれか、又は複数を送出する前述の所定のタイミングの一つとして、警報通知情報出力手段20が、警報通知情報を出力する処理を行ったときがあげられる。 The first electric power device that the detection temperature information output means 27 shoots in real time toward the administrator terminal 31 and / or the person in charge terminals 32a to 32d by the temperature detection means (for example, a thermographic camera, etc.). "Image information and detection temperature information" of 50a, "image information and detection temperature information" of the circuit switch of the first power device 50a, "image information and detection temperature information" of the second power device 50b, second. As one of the above-mentioned predetermined timings for transmitting one or more of the combination of "image information and detection temperature information" of the circuit switch of the power device 50b of the electric power device 50b, the alarm notification information output means 20 gives an alarm. This is the case when the process of outputting notification information is performed.
 すなわち、警報通知情報出力手段20が、第一の警報信号発出手段17が出力した前記温度警報信号、第二の警報信号発出手段18が出力した前記温度警報信号、第三の警報信号発出手段19が出力した前記電圧・電流・抵抗値警報信号のいずれかに基づいて、前記温度警報信号あるいは前記電圧・電流・抵抗値警報信号が出力された第一又は前記第二の電力装置50a、50bを管理している管理者が使用している管理者端末31及び、第一又は前記第二の電力装置50a、50bの管理を担当している担当者が所有している担当者端末32a、32b、32c、32dに対して、筐体1に係る第一又は第二の電力装置50a、50bを特定する情報と共に、警報通知情報を出力する処理を行った際である。 That is, the alarm notification information output means 20 outputs the temperature alarm signal output by the first alarm signal issuing means 17, the temperature alarm signal output by the second alarm signal issuing means 18, and the third alarm signal issuing means 19. Based on any of the voltage / current / resistance value warning signals output by, the first or second power device 50a, 50b to which the temperature warning signal or the voltage / current / resistance value warning signal is output is The administrator terminal 31 used by the managing administrator and the person in charge terminals 32a, 32b owned by the person in charge of managing the first or second electric power devices 50a, 50b, This is when the 32c and 32d are processed to output the alarm notification information together with the information for identifying the first or second power devices 50a and 50b related to the housing 1.
 このタイミングで前記温度検知手段(例えば、サーモグラフィックカメラ、等)がリアルタイムで撮影し温度検知している、種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどである第一、第二の電力装置50a、50bの熱分布画像及び検知温度情報、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器)の熱分布画像及び検知温度情報を、管理者端末31及び/又は担当者端末32a~32dへ送出することで、管理者や担当者は設備の温度異常を把握し、設備の焼損や、発火事故の発生を事前に防止することに役立てることができる。 Various power receiving / transforming equipment, power distribution boards, distribution boards, light boards, power boards, control boards, remote controls, which are photographed in real time by the temperature detecting means (for example, a thermographic camera, etc.) and detected at this timing. Thermal distribution images and detection temperature information of the first and second power devices 50a and 50b, which are extension cords between equipment / equipment and junction boxes for branch wiring connection between equipment boards, switchboards, distribution boards, etc. The administrator terminal 31 provides a heat distribution image and detection temperature information of a circuit switch (for example, a circuit switch such as a magnet switch, a power relay, or a solid state relay) different from the electric device 2 composed of a breaker, a leakage breaker, and the like. And / or by sending to the person in charge terminals 32a to 32d, the manager or the person in charge can grasp the temperature abnormality of the equipment and help prevent the equipment from burning or the occurrence of a fire accident in advance.
 また、前述の所定のタイミングの他の一つとして、あらかじめ定められている年次、月次、週次、日次、1時間ごと等の所定の時間ごと等のタイミングをあげることもできる。 In addition to the above-mentioned predetermined timing, it is also possible to give a predetermined timing such as annual, monthly, weekly, daily, hourly, or the like.
 前記温度検知手段(例えば、サーモグラフィックカメラ、等)がリアルタイムで撮影し温度検知している、種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどである第一、第二の電力装置50a、50bの熱分布画像及び検知温度情報、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器)の熱分布画像及び検知温度情報を、このように、所定の年次、月次、週次、日次、1時間ごと等の所定の時間ごと等で管理者、担当者が管理者端末31、担当者端末32a~32dで取得することで、設備の焼損や、発火事故が発生することを未然に防止することに役立てることができる。 Various power receiving and transforming equipment, power distribution boards, distribution boards, light boards, power boards, control boards, remote control device boards, etc., which are photographed in real time by the temperature detecting means (for example, a thermographic camera, etc.) and detect the temperature. Heat distribution images and detected temperature information of the first and second power devices 50a and 50b, which are extension cords between switchboards and distribution boards and devices / appliances, or junction boxes for branch wiring connections of wiring, main breakers, electric leakage The heat distribution image and the detected temperature information of a circuit switch (for example, a circuit switch such as a magnet switch, a power relay, a solid state relay, etc.) different from that of the electric device 2 composed of a breaker or the like are obtained in this way for a predetermined year. Next, monthly, weekly, daily, hourly, etc., the administrator and the person in charge can acquire the information on the administrator terminal 31 and the person in charge terminals 32a to 32d, so that the equipment can be burnt out. It can be useful for preventing the occurrence of a fire accident.
 更に、前述の所定のタイミングの他の一つとして、管理者端末31及び/又は担当者端末32a~32dから検知温度情報要求情報を取得したときをあげることもできる。 Further, as one of the other predetermined timings described above, the time when the detection temperature information request information is acquired from the administrator terminal 31 and / or the person in charge terminals 32a to 32d can be mentioned.
 管理者や担当者が任意で検知温度情報を要求し、管理している、あるいは担当している前述の第一、第二の電力装置50a、50b、回路開閉器の熱分布画像情報と当該熱分布画像中に数値で表示される検知温度情報を取得することで、設備の焼損や、発火事故が発生することを未然に防止することに役立てることができる。 The manager or the person in charge voluntarily requests and manages the detected temperature information, or is in charge of the above-mentioned first and second power devices 50a and 50b, the heat distribution image information of the circuit switch, and the heat. By acquiring the detected temperature information displayed numerically in the distribution image, it is possible to help prevent the equipment from being burnt or a fire accident from occurring.
 種々の受変電設備、配電盤、分電盤、電灯盤、動力盤、制御盤、リモート制御装置盤、配電盤や分電盤などと機器・器具間の延長コードまたは配線の分岐配線接続のジャンクションボックスなどである第一、第二の電力装置50a、50bや、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなどの回路開閉器)の平常時温度は32℃~40℃である。これらをリアルタイムで温度検知手段(例えば、サーモグラフィックカメラ、等)にて撮影していることで、温度検知手段が取得した熱分布画像と当該熱分布画像中に数値で表示される検知温度情報により、前述の電力装置1や、回路開閉器などが平常時の温度状態(32℃~40℃)を逸脱した高温状態になって、設備の焼損や、発火事故が発生することを未然に防止するための対応が必要になったことを、管理者端末31、担当者端末32a~32dの表示画面に表示される熱分布画像情報と当該熱分布画像中に数値で表示される検知温度情報から直ちに把握し、対処することが可能になる。 Various power receiving and transforming equipment, switchboards, distribution boards, light boards, power boards, control boards, remote control device boards, extension cords between switchboards and distribution boards, and junction boxes for branch wiring connections of wiring, etc. Circuit switches (for example, magnet switches, power relays, solid state relays, etc.) that are different from the electrical equipment 2 consisting of the first and second power devices 50a and 50b, the main breaker, the leakage breaker, and the like. The normal temperature of the vessel) is 32 ° C to 40 ° C. By photographing these in real time with a temperature detecting means (for example, a thermographic camera, etc.), the heat distribution image acquired by the temperature detecting means and the detected temperature information displayed numerically in the heat distribution image are used. , The above-mentioned electric power device 1 and the circuit switch are prevented from being in a high temperature state deviating from the normal temperature state (32 ° C to 40 ° C), resulting in equipment burning or ignition accident. Immediately from the heat distribution image information displayed on the display screens of the administrator terminal 31 and the person in charge terminals 32a to 32d and the detection temperature information displayed numerically in the heat distribution image, it is necessary to take measures for this. It becomes possible to grasp and deal with it.
 上記に構成の一例を説明したデジタルエレクトリックマルチセフティコントロールシステムは、コンピュータから構成することができる。この場合、図示していないが、オペレーティングシステムや、インストールあるいはダウンロードした所定のコンピュータプログラムなどに従って、この実施形態のシステムの各種の機能が実現されるように制御を行うCPU、オペレーティングシステムや種々のコンピュータプログラムなどを記憶し、また、CPUが各制御のための処理を実行する上で必要なデータを記憶する記憶部としてのROM、CPUが処理を実行する上で必要なデータを記憶し、CPUによって情報が適宜書き換えられるワークエリアとしても利用されるRAMやハードディスク、通信インターフェース等の情報入出力部などが備えられていて、これらが必要なバスラインで接続されている構成になる。 The digital electric multi-safety control system described above as an example of configuration can be configured from a computer. In this case, although not shown, a CPU, an operating system, and various computers that control the various functions of the system of this embodiment according to the operating system, a predetermined computer program installed or downloaded, and the like. ROM as a storage unit that stores programs, etc., and stores data necessary for the CPU to execute processing for each control, and stores data necessary for the CPU to execute processing, depending on the CPU. It is equipped with a RAM, a hard disk, an information input / output unit such as a communication interface, which is also used as a work area where information can be appropriately rewritten, and is connected by a necessary bus line.
 上述した実施形態では、筐体内温情報取得手段8を、盤内温度センサ7の形態にして、第一、第二の電力装置50a、50bの筐体1に配備しておく構成にすることができる。第一、第二の電力装置50a、50bの筐体1に盤内温度センサ7が配備されていて、盤内温度センサ7が、常時、筐体1の内部の温度を検知し、検知した温度情報をデジタル情報として出力し、この情報を、有線又は無線のネットワークを介して中央監視制御装置52の通信インターフェース部が取得し、取得した情報を、不図示の制御部が、不図示の情報格納手段(記憶部)に記録すると共に、筐体内温度監視手段11による処理動作に供されるように処理することになる。 In the above-described embodiment, the housing temperature information acquisition means 8 may be in the form of a panel temperature sensor 7 and deployed in the housing 1 of the first and second power devices 50a and 50b. it can. The panel temperature sensor 7 is provided in the housing 1 of the first and second power devices 50a and 50b, and the panel temperature sensor 7 constantly detects the temperature inside the housing 1 and the detected temperature. Information is output as digital information, this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is stored by a control unit (not shown). It will be recorded in the means (storage unit) and processed so as to be subjected to the processing operation by the temperature monitoring means 11 inside the housing.
 また、電路温度情報取得手段9を、電線温度センサ6の形態にして、第一、第二の電力装置50a、50bの筐体1に配備しておく構成にすることができる。第一、第二の電力装置50a、50bの筐体1に電線温度センサ6が配備されていて、電線温度センサ6が、常時、負荷側電路4の温度を検知し、検知した温度情報をデジタル情報として出力し、この情報を、有線又は無線のネットワークを介して中央監視制御装置52の通信インターフェース部が取得し、取得した情報を、不図示の制御部が、不図示の情報格納手段(記憶部)に記録すると共に、負荷側電路温度監視手段12による処理動作に供されるように処理することになる。 Further, the electric wire temperature information acquisition means 9 may be in the form of the electric wire temperature sensor 6 and may be arranged in the housing 1 of the first and second electric power devices 50a and 50b. The electric wire temperature sensor 6 is provided in the housing 1 of the first and second electric power devices 50a and 50b, and the electric wire temperature sensor 6 constantly detects the temperature of the load side electric circuit 4 and digitally detects the detected temperature information. It is output as information, this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is acquired by a control unit (not shown) by an information storage means (storage) (storage) (not shown). It will be recorded in the section) and processed so as to be subjected to the processing operation by the load-side electric circuit temperature monitoring means 12.
 また、負荷側電路4に接続されて電圧値、電流値及び抵抗値を常時検知し、検知した負荷側電路4の電圧値、電流値及び抵抗値に関する情報である電圧・電流・抵抗値情報を筐体1に係る第一、第二の電力装置50a、50bを特定する情報と共にデジタル情報で出力する電路電圧・電流・抵抗値情報取得手段10を、電圧・電流・抵抗計測器5にして第一、第二の電力装置50a、50bの筐体1に配備しておく構成にすることができる。第一、第二の電力装置50a、50bの筐体1に電圧・電流・抵抗計測器5が配備されていて、これが、常時、負荷側電路4の電圧値、電流値、抵抗値を検知し、検知した電圧・電流・抵抗値情報をデジタル情報として出力し、この情報を、有線又は無線のネットワークを介して中央監視制御装置52の通信インターフェース部が取得し、取得した情報を、不図示の制御部が、不図示の情報格納手段(記憶部)に記録すると共に、電路電圧・電流・抵抗値監視手段13による処理動作に供されるように処理することになる。 Further, the voltage value, the current value, and the resistance value are constantly detected by being connected to the load side electric circuit 4, and the voltage, current, and resistance value information which is information on the detected voltage value, current value, and resistance value of the load side electric circuit 4 is obtained. The voltage / current / resistance measuring instrument 5 is used as the electric circuit voltage / current / resistance value information acquisition means 10 that outputs digital information together with the information that identifies the first and second power devices 50a and 50b related to the housing 1. It can be configured to be deployed in the housing 1 of the first and second power devices 50a and 50b. A voltage / current / resistance measuring instrument 5 is provided in the housing 1 of the first and second power devices 50a and 50b, and this constantly detects the voltage value, current value, and resistance value of the load side electric path 4. , The detected voltage / current / resistance value information is output as digital information, and this information is acquired by the communication interface unit of the central monitoring control device 52 via a wired or wireless network, and the acquired information is not shown. The control unit records the information in an information storage unit (storage unit) (not shown), and processes the voltage, current, and resistance value so that the unit 13 can perform the processing operation.
 上述した筐体内温度監視手段11~電力風旧信号出力手段26は、これらのすべてが一つの装置・機器(例えば、中央監視制御装置52)に配備されている構成にする必要はない。例えば、図2図示において、(1)常用DESCON 配電盤・分電盤・制御盤と表示されている第一の電力装置、(2)マルチDESCON 配電盤・分電盤・制御盤と表示されている第二の電力装置の中にそれぞれコンピュータからなる監視制御システムを配備しておき、上述機能を発揮する筐体内温度監視手段11、負荷側電路温度監視手段12、電路電圧・電流・抵抗値監視手段13、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16などが監視制御システム内に配備されていて、第一の電力装置50a内の監視制御システムと中央監視制御装置52、第二の電力装置50b内の監視制御システムと中央監視制御装置52とがそれぞれ有線又は無線のネットワークを介して情報交信可能に接続されている形態にすることもできる。 It is not necessary for the above-mentioned internal temperature monitoring means 11 to the power wind old signal output means 26 to be configured such that all of them are deployed in one device / device (for example, the central monitoring control device 52). For example, in the illustration of FIG. 2, (1) the first power device displayed as (1) regular DESCON distribution board / distribution board / control board, and (2) multi-DESCON distribution board / distribution board / control board. A monitoring and control system consisting of a computer is provided in each of the two power devices, and the temperature monitoring means 11 inside the housing, the load side electric circuit temperature monitoring means 12, and the electric circuit voltage / current / resistance value monitoring means 13 that exert the above-mentioned functions. , The first power cutoff means 14, the second power cutoff means 15, the third power cutoff means 16, etc. are deployed in the monitoring control system, and the monitoring control system and the central monitoring in the first power device 50a are provided. The monitoring control system in the control device 52 and the second power device 50b and the central monitoring control device 52 may be connected to each other via a wired or wireless network so that information can be communicated with each other.
 上記において、第一、第二の電力装置50a、50bとは離れたところに配備されていて、第一、第二の電力装置50a、50bに配備されている筐体内温情報取得手段8、電路温度情報取得手段9、電路電圧・電流・抵抗値情報取得手段10などと有線又は無線のネットワークを介して接続されていて、上述したその他の構成の中の一部や残りの構成を備えている他の一または複数の装置・機器の中に、クラウド上に設置されているサーバコンピュータが含まれている構成にすることもできる。 In the above, the housing internal temperature information acquisition means 8, the electric circuit, which is arranged at a place away from the first and second electric power devices 50a and 50b and is arranged in the first and second electric power devices 50a and 50b. It is connected to the temperature information acquisition means 9, the electric circuit voltage / current / resistance value information acquisition means 10, etc. via a wired or wireless network, and has some or the remaining configurations among the other configurations described above. It is also possible to configure the server computer installed in the cloud to be included in one or more other devices / devices.
 上述した筐体内温情報取得手段8、電路温度情報取得手段9、電路電圧・電流・抵抗値情報取得手段10がリアルタイムで取得する上述した情報は、第一、第二の電力装置50a、50bを特定する情報に関連付けられて中央監視制御装置52の記憶部や、有線又は無線のネットワークを介して中央監視制御装置52と情報交信可能に接続されているサーバ装置、例えば、クラウドサーバの記憶部などに格納しておき、管理者端末31や、担当者端末32a、32b、32c、32dから取得した温度等情報要求情報に基づいて、管理者端末31や、担当者端末32a、32b、32c、32dの画面などに出力・表示できるようにすることが可能である。 The above-mentioned information acquired by the above-mentioned housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 in real time is the first and second power devices 50a and 50b. A storage unit of the central monitoring control device 52 associated with the information to be specified, or a server device connected to the central monitoring control device 52 via a wired or wireless network so as to be able to communicate information, for example, a storage unit of a cloud server. Based on the information request information such as temperature acquired from the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d, the administrator terminal 31 and the person in charge terminals 32a, 32b, 32c, 32d It is possible to output and display on the screen of.
 従来から、例えば、受変電設備は、真空遮断器、高圧負荷開閉器(フューズ)、高圧カットアウト等で、単相、三相電源系統の電灯、動力配電盤はノーフューズブレーカー、漏電ブレーカーを設置し、電気事故を防止している。しかし、経年劣化または工事の不都合等によるネジの締め付け不足、接続端子の緩み、隙間、誤配線、粉塵等と絶縁被覆の絶縁不良による火災は発生し、未だ充分ではないと思われる。また、配電盤、分電盤と機器、器具間の延長コードまたは、配線の分岐配線接続のジャンクションボックスとそれ以降の延長コードには通常ブレーカーは設置されていないのが一般的であり、ショート等による電気火災事故の事例も見受けられる。 Conventionally, for example, power receiving and transforming equipment is equipped with vacuum circuit breakers, high-pressure load switches (fuse), high-pressure cutouts, etc., single-phase and three-phase power system lights, and power distribution boards are equipped with no-fuse breakers and earth leakage breakers. , Prevents electrical accidents. However, fires have occurred due to insufficient tightening of screws due to aging deterioration or inconvenience of construction, loose connection terminals, gaps, incorrect wiring, dust, etc. and poor insulation of the insulation coating, and it seems that it is still insufficient. In addition, breakers are generally not installed on extension cords between switchboards, distribution boards and equipment, and appliances, or junction boxes for branch wiring connections and subsequent extension cords, due to short circuits, etc. There are also cases of electric fire accidents.
 図2は、この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態のシステム構成の一例を説明するブロック図で、図3は、この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの動作概要の一例を説明するフロー図、図4は、この発明に係るデジタルエレクトリックマルチセフティコントロールシステムの一実施形態に係る配電盤、分電盤、制御盤と幹線・配線。端末機器、器具の関係の一例を説明する図である。 FIG. 2 is a block diagram illustrating an example of a system configuration of an embodiment of the digital electric multi-safety control system according to the present invention, and FIG. 3 is an example of an operation outline of the digital electric multi-safety control system according to the present invention. The flow diagram and FIG. 4 to be described are a distribution board, a distribution board, a control board, and a trunk line / wiring according to an embodiment of the digital electric multi-safety control system according to the present invention. It is a figure explaining an example of the relationship between a terminal device and an instrument.
 真空遮断器、高圧負荷開閉器(フューズ)、高圧カットアウトを備えている高圧受変電設備(キュービクル)で電力会社からの6600Vを受電している。電灯、動力のトランスで電灯単相3線200V、動力3相3線200Vに降圧し、電灯、動力の幹線経由で電力が供給される。各配電盤より分岐幹線により電灯、動力の分電盤に配線された制御盤のリモート装置(IOTB、RIO)等を経由し、各設備機器に電力が供給される。また、配電盤、分電盤からジャンクションボックスを介して接続機器との間の延長コードまたは、配線の分岐配線接続が行われている。 A high-voltage power receiving / transforming facility (cubicle) equipped with a vacuum circuit breaker, a high-voltage load switch (fuse), and a high-voltage cutout receives 6600V from an electric power company. The lamp is stepped down to 200V for single-phase three-wire and 200V for three-phase power with a transformer for electric light and power, and power is supplied via the main line for electric light and power. Power is supplied to each equipment from each switchboard via a branch trunk line, a lamp, a remote device (IOTB, RIO) of the control panel wired to the power distribution board, and the like. Further, an extension cord or a branch wiring connection of wiring is performed from the distribution board or distribution board to the connected device via the junction box.
 受変電設備、配電盤や制御盤等の盤内、ジャンクションボックス、設備機器、装置、器具、配線等の平常時温度は32℃~40℃程度である。電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例は通常220℃~250℃程度である。 The normal temperature of power receiving and transforming equipment, inside panels such as switchboards and control panels, junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C. Ignition cases of power switches, control remote switches, connectors, etc. are usually around 220 ° C to 250 ° C.
 配線されている電線等の負荷側電路監視温度は、例えば、90℃に設定できる。これは、上述した、受変電設備、配電盤や制御盤等の盤内、ジャンクションボックス、設備機器、装置、器具、配線等の平常時温度が32℃~40℃程度で、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例は通常220℃~250℃程度であることから安全を考慮して設定することができる。 The load-side electric circuit monitoring temperature of the wired electric wire or the like can be set to, for example, 90 ° C. This is because the normal temperature of the above-mentioned power receiving / transforming equipment, switchboards, control panels, etc., junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C, and power switches and control remote switches. Since the ignition case of the connector or the like is usually about 220 ° C. to 250 ° C., it can be set in consideration of safety.
 盤内やジャンクションボックスなどの筐体内監視温度は、例えば、60℃に設定できる。これも、上述した、受変電設備、配電盤や制御盤等の盤内、ジャンクションボックス、設備機器、装置、器具、配線等の平常時温度が32℃~40℃程度で、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例は通常220℃~250℃程度であることから安全を考慮して設定することができる。 The monitoring temperature inside the panel or inside the housing such as the junction box can be set to, for example, 60 ° C. Also in this case, the normal temperature of the above-mentioned power receiving / transforming equipment, switchboards, control panels, etc., junction boxes, equipment, equipment, appliances, wiring, etc. is about 32 ° C to 40 ° C, and power switches and control remote switches. Since the ignition case of the connector or the like is usually about 220 ° C. to 250 ° C., it can be set in consideration of safety.
 なお、上述した受変電設備、配電盤や制御盤等の盤内、ジャンクションボックス、設備機器、装置、器具、配線等の平常時温度32℃~40℃程度、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例の通常の温度220℃~250℃程度から、安全サイドに考慮して、上述の負荷側電路監視温度は90℃~130℃の範囲で、筐体内監視温度は60℃~80℃の範囲で、それぞれ、任意に設定することが可能である。 It should be noted that the above-mentioned power receiving / transforming equipment, inside the switchboard, control panel, etc., junction box, equipment, equipment, equipment, wiring, etc., have a normal temperature of about 32 ° C to 40 ° C, power switch, control remote switch, connector, etc. From the normal temperature of 220 ° C to 250 ° C in the case of ignition, considering the safety side, the above-mentioned load side electric circuit monitoring temperature is in the range of 90 ° C to 130 ° C, and the monitoring temperature inside the housing is in the range of 60 ° C to 80 ° C. Each can be set arbitrarily.
 誤配線、ネジの緩み、コネクタ接続の隙間及び粉塵、経年劣化等によるスパークによる絶縁被覆材の溶融、等々によって電線等が温度上昇し、例えば、電線の温度が上述の負荷側電路監視温度に到達すれば、温度センサーの異常高温感知により電源装置のブレーカーにデジタル解除システムが入力し、ブレーカーが自動的に電源オフされ該当する負荷側電路などの焼損、破壊、発火事故の発生を防止するシステムである。 同様に、誤配線、ネジの緩み、コネクタ接続の隙間及び粉塵、経年劣化等によるスパークによる絶縁被覆材の溶融、等々によって受変電設備、配電盤や制御盤等の盤内、ジャンクションボックスなどの温度が上昇し、上述の筐体内監視温度に到達すれば、温度センサーの異常高温感知により電源装置のブレーカーにデジタル解除システムが入力し、ブレーカーが自動的に電源オフされ該当する受変電設備、配電盤や制御盤等の盤内、ジャンクションボックスなどの焼損、破壊、発火事故の発生を防止するシステムである。 The temperature of the electric wire rises due to incorrect wiring, loosening of screws, gaps and dust in the connector connection, melting of the insulating coating material due to sparks due to aged deterioration, etc. For example, the temperature of the electric wire reaches the above-mentioned load side electric circuit monitoring temperature. Then, the digital release system inputs to the breaker of the power supply device by detecting the abnormally high temperature of the temperature sensor, and the breaker is automatically turned off to prevent the occurrence of burning, destruction, or ignition accident of the corresponding load side electric circuit. is there. Similarly, the temperature of power receiving / transforming equipment, switchboards, control boards, etc., junction boxes, etc. may be affected by incorrect wiring, loose screws, gaps and dust in connector connections, melting of insulating coating material due to sparks due to aging, etc. When the temperature rises and reaches the above-mentioned monitoring temperature inside the housing, the digital release system inputs to the breaker of the power supply device by detecting the abnormally high temperature of the temperature sensor, the breaker is automatically turned off, and the corresponding power receiving / transforming equipment, switchboard and control It is a system that prevents the occurrence of burnout, destruction, and ignition accidents in the board, such as the board, and the junction box.
 負荷側電路が接続されている負荷に応じて、当該負荷側電路に許容される電圧値、電流値、抵抗値があらかじめ設定されている。例えば、負荷が空調機器の場合、原動機の場合、コンピュータなどの精密機器の場合、医療機器、等々などの場合に応じて、それぞれ当該負荷に接続している負荷側電路に許容される電圧値、電流値、抵抗値が異なる。この許容される値を越えてしまうと、負荷側電路が接続されている負荷である前述した機器の損傷や、動作不良などが発生することがある。そこで、負荷側電路が接続されている負荷に応じてそれぞれの負荷側電路に対して負荷側電路監視電圧・電流・抵抗値があらかじめ設定されている。負荷側電路の電圧、電流、抵抗値を常時計測しておいて許容範囲外の異常数値を感知すると電源装置のブレーカーにデジタル解除システムが入力し、ブレーカーが自動的に電源オフされ、前述の負荷側電路が接続されている負荷である前述した機器の損傷や、動作不良が発生することを未然に防止するシステムである。 The voltage value, current value, and resistance value allowed for the load side electric circuit are set in advance according to the load to which the load side electric circuit is connected. For example, depending on the case where the load is an air conditioner, a prime mover, a precision device such as a computer, a medical device, etc., the voltage value allowed for the load side electric circuit connected to the load, respectively. The current value and resistance value are different. If this allowable value is exceeded, damage to the above-mentioned equipment, which is the load to which the load-side electric circuit is connected, or malfunction may occur. Therefore, the load-side electric circuit monitoring voltage, current, and resistance value are set in advance for each load-side electric circuit according to the load to which the load-side electric circuit is connected. When the voltage, current, and resistance values of the electric circuit on the load side are constantly measured and an abnormal value outside the permissible range is detected, the digital release system inputs to the breaker of the power supply device, the breaker is automatically turned off, and the above-mentioned load is applied. It is a system that prevents damage to the above-mentioned equipment, which is the load to which the side electric circuit is connected, and malfunction.
 配電盤、分電盤からの分岐配線のジャンクションボックスまたは、接続機器にブレーカーを設置し、延長コード配線がショートまたは要注意温度である前述の負荷側電路監視温度に達すれば、ブレーカーが自動的に電源オフされ、発火事故の発生を防止するシステムである。また、負荷側電路の電圧、電流、抵抗値が上述した許容範囲外の異常数値になれば、ブレーカーが自動的に電源オフされ、負荷側電路が接続されているコンピュータ、精密機器、医療機器などの損傷・動作不良発生を防止するシステムである。 If a breaker is installed in the junction box of the branch wiring from the switchboard or distribution board, or in the connected equipment, and the extension cord wiring reaches the above-mentioned load-side circuit monitoring temperature, which is a short circuit or caution temperature, the breaker automatically turns on. It is a system that is turned off to prevent the occurrence of fire accidents. In addition, if the voltage, current, or resistance value of the load side electric circuit becomes an abnormal value outside the allowable range described above, the circuit breaker is automatically turned off, and the computer, precision equipment, medical equipment, etc. to which the load side electric circuit is connected, etc. It is a system that prevents the occurrence of damage and malfunction.
 前記の電線温度が負荷側電路監視温度に達すれば、要注意であることを知らせる温度警報信号を発報するシステムである。また、前記の盤内やジャンクションボックスなどの温度が筐体内監視温度に達すれば、要注意であることを知らせる温度警報信号を発報するシステムである。 It is a system that issues a temperature warning signal informing that caution is required when the wire temperature reaches the load side electric circuit monitoring temperature. Further, when the temperature inside the panel or the junction box reaches the monitoring temperature inside the housing, the system issues a temperature warning signal informing that caution is required.
 更に、前記の電線の電圧、電流、抵抗値が許容範囲外の異常数値になれば要注意であることを知らせる電圧・電流・抵抗値警報信号を発報するシステムである。 Furthermore, it is a system that issues a voltage / current / resistance value warning signal to notify that caution is required if the voltage, current, or resistance value of the above-mentioned electric wire becomes an abnormal value outside the permissible range.
 上述の温度警報信号、電圧・電流・抵抗値警報信号は、VPN等のネットワークを介して、要注意となった電力装置を特定する情報と共に、関係者のPCモニタ、管理担当者が所持していて本発明のシステム運用用のアプリケーションがダウンロードされているスマートフォンに表示される。これによって、盤などの焼損、発火事故を事前に防止し、負荷側電路が接続されているコンピュータ、精密機器、医療機器などの損傷・動作不良発生を防止するシステムである。 The above-mentioned temperature warning signal and voltage / current / resistance value warning signal are possessed by the PC monitor and the person in charge of management of the persons concerned, together with the information for identifying the power device requiring attention via the network such as VPN. The system operation application of the present invention is displayed on the downloaded smartphone. This is a system that prevents burnout of panels and other fire accidents in advance, and prevents damage and malfunction of computers, precision equipment, medical equipment, etc. to which the load side electric circuit is connected.
 上述した、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例の通常の温度220℃~250℃程度を考慮し、火災発生の可能性がある温度よりも安全を確保できる温度範囲において、関係者へ通報できるシステムである。 Considering the normal temperature of 220 ° C to 250 ° C for ignition cases of power switches, control remote switches, connectors, etc. described above, to the parties concerned within a temperature range that can ensure safety above the temperature at which a fire may occur. It is a system that can report.
 上述の負荷側電路監視温度の許容範囲90℃~130℃や、筐体内監視温度の許容範囲60℃~80℃よりも高温の温度範囲で、上述した、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例の通常の温度220℃~250℃程度から、安全サイドに考慮して、更に、負荷側電路警報温度、筐体内警報温度をそれぞれ設定することが可能である。 The above-mentioned power switch, control remote switch, connector, etc. have a temperature range higher than the allowable range of the load-side electric circuit monitoring temperature of 90 ° C to 130 ° C and the allowable range of the monitoring temperature inside the housing of 60 ° C to 80 ° C. From the normal temperature of 220 ° C. to 250 ° C. in the case of ignition, it is possible to further set the load side electric circuit alarm temperature and the alarm temperature inside the housing in consideration of the safety side.
 例えば、負荷側電路警報温度として180℃、筐体内警報温度として150℃を設定することができる。 For example, the load-side electric circuit alarm temperature can be set to 180 ° C., and the internal housing alarm temperature can be set to 150 ° C.
 上述したように、電線等が温度上昇し、例えば、電線の温度が上述の負荷側電路警報温度に到達すれば、温度センサーの異常高温感知により、建物などにおける消防設備である火災報知設備機器、すなわち、要注意となった上述の電力装置に対して配備されている火災報知設備機器に連結するシステムである。 As described above, when the temperature of an electric wire or the like rises and, for example, the temperature of the electric wire reaches the above-mentioned load-side electric wire alarm temperature, a fire alarm system, which is a fire alarm system in a building or the like, is detected by an abnormally high temperature sensor. That is, it is a system connected to the fire alarm system equipment deployed for the above-mentioned electric power device that requires attention.
 受変電設備、配電盤や制御盤等の盤内、ジャンクションボックスなどの温度が上昇し、上述の筐体内警報温度に到達すれば、温度センサーの異常高温感知により、建物などにおける消防設備である火災報知設備機器、すなわち、要注意となった上述の電力装置に対して配備されている火災報知設備機器に連結するシステムである。 If the temperature of the power receiving / transforming equipment, the inside of the switchboard or control panel, the junction box, etc. rises and reaches the above-mentioned alarm temperature inside the housing, the temperature sensor detects an abnormally high temperature to notify the fire of the fire equipment in the building. It is a system that connects to equipment, that is, fire alarm equipment that is deployed for the above-mentioned electric power equipment that requires attention.
 なお、上述した、電源スイッチ、制御リモートスイッチ、コネクタ等の発火事例の通常の温度220℃~250℃程度から、安全サイドに考慮して、上述の負荷側電路警報温度は180℃~200℃の範囲で、筐体内警報温度は150℃~200℃の範囲で、それぞれ、任意に設定することが可能である。 From the normal temperature of 220 ° C to 250 ° C in the case of ignition of the power switch, control remote switch, connector, etc. described above, the above-mentioned load side electric circuit alarm temperature is 180 ° C to 200 ° C in consideration of safety. Within the range, the alarm temperature inside the housing can be arbitrarily set in the range of 150 ° C. to 200 ° C.
 本システムでは、受変電設備のキュービクル内、主要配電盤、分電盤内または周囲にデジタルカメラを設置し、上記の電線または盤内の温度が要注意温度または、電流、電圧、抵抗値が許容範囲外の異常数値を感知すると、デジタルカメラが取得するリアルタイムの画像情報を、関係者のPCモニタ、スマートフォンに送信する機能を持たせることができる。 In this system, a digital camera is installed in or around the cubicle of the power receiving and transforming equipment, the main distribution board, the distribution board, and the temperature inside the above electric wire or panel is the temperature requiring attention, or the current, voltage, and resistance values are within the permissible range. When it senses an abnormal value outside, it can have a function to transmit the real-time image information acquired by the digital camera to the PC monitor or smartphone of the person concerned.
 図5~図9は、既存の電灯盤、動力盤、配電盤、分電盤、制御盤(リモート制御装置盤)、ジャンクションボックスなどに本発明のデジタルエレクトリックマルチセフティコントロールシステムを配備する場合の構成の一例を、第一の電力装置に相当する電力装置の構成で説明したもので、各図における第一の電力装置に相当する電力装置の構成は、図示されていないが第二の電力装置に相当する電力装置においても同様に適用される。 図16~図20は、それぞれ、図5~図9図示の構成に加えて、更に、負荷側電路に、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなど)が配備されている場合を説明するものである。図16、図17、図18、図20では回路開閉器としてマグネットスイッチが採用されている。図19では、回路開閉器として電磁接触器とサーマルリレーとで構成されるマグネットスイッチが回路開閉器として採用されている。 5 to 9 show the configuration when the digital electric multi-safety control system of the present invention is deployed on an existing lamp board, power board, distribution board, distribution board, control board (remote control device board), junction box, or the like. An example is described in the configuration of the power device corresponding to the first power device, and the configuration of the power device corresponding to the first power device in each figure corresponds to the second power device although not shown. The same applies to electric power devices that are used. 16 to 20 show, in addition to the configurations shown in FIGS. 5 to 9, respectively, a circuit switch of a type different from that of the electric device 2 including a main breaker, an earth leakage breaker, etc. in the load side electric circuit (for example, This describes the case where a magnet switch, a power relay, a solid state relay, etc.) are deployed. In FIGS. 16, 17, 18, and 20, a magnet switch is adopted as a circuit switch. In FIG. 19, as a circuit switch, a magnet switch composed of an electromagnetic contactor and a thermal relay is adopted as the circuit switch.
 図示の実施形態では、各図において「監視システム」とされているところに筐体内温情報取得手段8、電路温度情報取得手段9、電路電圧・電流・抵抗値情報取得手段10が配備されている。そして、「監視システム」と有線又は無線のネットワークを介して情報交信可能に接続される、いずれも、コンピュータからなる「中央監視制御装置」、「サーバー」に、上述したデジタルエレクトリックマルチセフティコントロールシステムを構成するその他のユニット部分がそれぞれ配備されることになる。 In the illustrated embodiment, the housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 are arranged in the place referred to as the “monitoring system” in each figure. .. Then, the above-mentioned digital electric multi-safety control system is applied to the "central monitoring control device" and "server" consisting of computers, which are connected to the "surveillance system" via a wired or wireless network so that information can be communicated. The other unit parts that make up will be deployed respectively.
 図10~図14は、本発明のデジタルエレクトリックマルチセフティコントロールシステムが採用されている電灯盤、動力盤、配電盤、分電盤、制御盤(リモート制御装置盤)、ジャンクションボックスの構成を第一の電力装置に相当する電力装置の構成で説明したもので、各図における第一の電力装置に相当する電力装置の構成は、図示されていないが第二の電力装置に相当する電力装置においても同様に適用される。 10 to 14 show the configuration of the light board, the power board, the distribution board, the distribution board, the control board (remote control device board), and the junction box in which the digital electric multi-safety control system of the present invention is adopted. The configuration of the power device corresponding to the power device has been described, and the configuration of the power device corresponding to the first power device in each figure is the same for the power device corresponding to the second power device, although not shown. Applies to.
 図21~図25は、それぞれ、図10~図14図示の構成に加えて、更に、負荷側電路に、主幹ブレーカー、漏電ブレーカーなどからなる電気機器2とは異なる種類の回路開閉器(例えば、マグネットスイッチ、パワーリレー、ソリッドステートリレーなど)が配備されている場合を説明するものである。図21、図22、図23、図25では回路開閉器としてマグネットスイッチが採用されている。図24では、回路開閉器として電磁接触器とサーマルリレーとで構成されるマグネットスイッチが回路開閉器として採用されている。 21 to 25 show, in addition to the configurations shown in FIGS. 10 to 14, respectively, a circuit switch of a type different from that of the electric device 2 including a main breaker, an earth leakage breaker, etc. in the load side electric circuit (for example, This describes the case where a magnet switch, a power relay, a solid state relay, etc.) are deployed. In FIGS. 21, 22, 23, and 25, a magnet switch is adopted as a circuit switch. In FIG. 24, as a circuit switch, a magnet switch composed of an electromagnetic contactor and a thermal relay is adopted as the circuit switch.
 図示の実施形態では、各図において「監視システム」とされているところに筐体内温情報取得手段8、電路温度情報取得手段9、電路電圧・電流・抵抗値情報取得手段10が配備されている。そして、「監視システム」と有線又は無線のネットワークを介して情報交信可能に接続される、いずれも、コンピュータからなる「中央監視制御装置」、「サーバー」に、上述したデジタルエレクトリックマルチセフティコントロールシステムを構成するその他のユニット部分がそれぞれ配備されることになる。 In the illustrated embodiment, the housing temperature information acquisition means 8, the electric circuit temperature information acquisition means 9, and the electric circuit voltage / current / resistance value information acquisition means 10 are arranged in the place referred to as the “monitoring system” in each figure. .. Then, the above-mentioned digital electric multi-safety control system is applied to the "central monitoring control device" and "server" consisting of computers, which are connected to the "surveillance system" via a wired or wireless network so that information can be communicated. The other unit parts that make up will be deployed respectively.
 この実施形態のデジタルエレクトリックマルチセフティコントロールシステムによれば、上記で説明した所定の場合に、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16からそれぞれ電力遮断信号が出力されて、電源側電路から負荷側電路への電力供給が遮断される。 According to the digital electric multi-safety control system of this embodiment, power is cut off from the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 in the predetermined cases described above. A signal is output and the power supply from the power supply side electric circuit to the load side electric circuit is cut off.
 この場合には、上述したように、電力供給切替制御手段21によって、第一の電力遮断手段14、第二の電力遮断手段15、第三の電力遮断手段16の中のいずれかが第一の電力装置50aの中のいずれかに対して前記電力供給遮断信号を出力した際に、前記電力供給遮断信号の入力を受ける第一の電力装置50aから電力供給を受けている前記負荷に対して、前記電力供給遮断信号の入力を受ける第一の電力装置50aに切り替わって電力供給を行うように、第二の電力装置50bの中のいずれかに対して電力供給開始信号を出力する。これによって、電力供給遮断信号の入力を受ける第一の電力装置50aから電力供給を受けている前記負荷は、第一の電力装置50aからの電力供給が遮断されると瞬時に第二の電力装置50bからの電力供給に切り替わるので、引き続き稼働を継続することができる。 In this case, as described above, any one of the first power cutoff means 14, the second power cutoff means 15, and the third power cutoff means 16 is the first by the power supply switching control means 21. When the power supply cutoff signal is output to any of the power devices 50a, the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal is A power supply start signal is output to any of the second power devices 50b so as to switch to the first power device 50a that receives the input of the power supply cutoff signal to supply power. As a result, the load receiving power from the first power device 50a that receives the input of the power supply cutoff signal instantly becomes the second power device when the power supply from the first power device 50a is cut off. Since the power supply is switched from 50b, the operation can be continued.
 また、このときに、同時に、第一の警報信号発出手段17、第二の警報信号発出手段18、第三の警報信号発出手段19、警報通知情報出力手段20によって、上述したように、電力供給が遮断された負荷(原動機、昇降機、空調設備、換気設備、照明設備、冷蔵・冷凍ケース、冷蔵庫・冷凍庫、計測器、コンピュータ機器、監視カメラ、医療機器、等、電力の供給を受けて稼働する電力・電気装置・機器であって、建物などの内外を問わずに配備されて使用される電力・電気装置・機器、電車・車・航空機・船などの乗り物・移動手段に配備されて使用される電力・電気装置・機器など)を特定できる情報と共に、その旨が電力装置を管理している管理者が使用している管理者端末31及び、電力装置の管理を担当している担当者が所有している担当者端末32a、32b、32c、32dに対して通知される。 At this time, at the same time, power is supplied by the first alarm signal issuing means 17, the second alarm signal issuing means 18, the third alarm signal issuing means 19, and the alarm notification information output means 20 as described above. Loads that are cut off (motors, elevators, air conditioning equipment, ventilation equipment, lighting equipment, refrigeration / freezing cases, refrigerators / freezers, measuring instruments, computer equipment, surveillance cameras, medical equipment, etc. Electricity / electrical equipment / equipment that is deployed and used inside and outside buildings, etc., and is deployed and used in vehicles / transportation means such as trains / cars / aircraft / ships. The administrator terminal 31 used by the administrator who manages the electric power device and the person in charge of managing the electric power device, along with information that can identify the electric power, electric device, equipment, etc. The notification is sent to the person in charge terminals 32a, 32b, 32c, and 32d that are owned.
 そこで、管理者、担当者は、電力供給が遮断された上述の負荷が瞬時のうちに復旧されるべき負荷である場合には、必要な対処を直ちに行うことができる。 Therefore, the administrator and the person in charge can immediately take necessary measures when the above-mentioned load in which the power supply is cut off is a load that should be restored in an instant.
 本発明のデジタルエレクトリックマルチセフティコントロールシステムは、例えば、建物、電車、船、車、飛行機、昇降機、工場、研究所、発電所、変電所、コンピュータ電源、原動機、空調、換気、照明、冷蔵・冷凍ケース、冷蔵庫・冷凍庫、太陽光発電、風力発電、ロケット、蓄電池、通信装置等と電源、送電線、幹線、配線、接続機器、計測器、通信装置等の全ての電力を使用する全ての建物、設備、機器、器具等に対応できるシステムである。 The digital electric multi-safety control system of the present invention is, for example, a building, a train, a ship, a car, an airplane, an elevator, a factory, a laboratory, a power plant, a substation, a computer power supply, a prime mover, air conditioning, ventilation, lighting, refrigeration / freezing. Cases, refrigerators / freezers, solar power generation, wind power generation, rockets, storage batteries, communication equipment, etc. and power supplies, transmission lines, trunk lines, wiring, connection equipment, measuring instruments, communication equipment, etc. It is a system that can handle equipment, equipment, appliances, etc.

Claims (10)

  1.  電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている1乃至複数の第一の電力装置と、
     電源側からの電源側電路と負荷に向かう負荷側電路とが筐体内に配備されている電気機器を介して電気的に接続されている1乃至複数の第二の電力装置とによる1乃至複数の前記負荷に対する電力供給を制御するデジタルエレクトリックマルチセフティコントロールシステムであって、
     前記第一の電力装置及び、前記第二の電力装置は、いずれも、
     前記筐体内の温度を常時検知し、検知した前記筐体内の前記温度に関する情報である筐体内温度情報を前記筐体に係る前記第一、あるいは第二の電力装置を特定する情報と共にデジタル情報で出力する筐体内温情報取得手段と、
     前記負荷側電路の温度を常時検知し、検知した前記負荷側電路の前記温度に関する情報である電路温度情報を前記筐体に係る前記第一、あるいは第二のを特定する情報と共にデジタル情報で出力する電路温度情報取得手段と、
     前記負荷側電路に接続されて電圧値、電流値及び抵抗値を常時検知し、検知した前記負荷側電路の電圧値、電流値及び抵抗値に関する情報である電圧・電流・抵抗値情報を前記筐体に係る前記第一、あるいは第二の電力装置を特定する情報と共にデジタル情報で出力する電路電圧・電流・抵抗値情報取得手段とを備えており、
     前記デジタルエレクトリックマルチセフティコントロールシステムは、
     前記筐体内温情報取得手段で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内監視温度とを比較する筐体内温度監視手段と、
     前記電路温度情報取得手段で取得した前記負荷側電路の前記温度と、あらかじめ設定されている負荷側電路監視温度とを比較する負荷側電路温度監視手段と、
     前記電路電圧・電流・抵抗値情報取得手段で取得した電路電圧・電流・抵抗値と、あらかじめ設定されている負荷側電路監視電圧・電流・抵抗値とを比較する電路電圧・電流・抵抗値監視手段と、
     前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内監視温度を越えたと前記筐体内温度監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第一の電力遮断手段と、
     前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路監視温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第二の電力遮断手段と、
     前記電路電圧・電流・抵抗値情報取得手段で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと前記負荷側電路電圧・電流・抵抗値監視手段が判定した際に、前記電気機器を介した前記電源側電路から前記負荷側電路への電力供給を遮断する電力供給遮断信号を出力する第三の電力遮断手段と、
     前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内監視温度を越えたと前記筐体内温度監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、温度警報信号を出力する第一の警報信号発出手段と、
     前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路監視温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、温度警報信号を出力する第二の警報信号発出手段と、
     前記電路電圧・電流・抵抗値情報取得手段で取得した前記電路電圧・電流・抵抗値が前記負荷側電路監視電圧・電流・抵抗値を越えたと前記電路電圧・電流・抵抗値監視手段が判定した際に、前記筐体に係る前記第一の電力装置又は第二の電力装置を特定する情報と共に、電圧・電流・抵抗値警報信号を出力する第三の警報信号発出手段と、
     前記第一の警報信号発出手段が出力した前記温度警報信号、前記第二の警報信号発出手段が出力した前記温度警報信号、前記第三の警報信号発出手段が出力した前記電圧・電流・抵抗値警報信号のいずれかに基づいて、前記温度警報信号あるいは前記電圧・電流・抵抗値警報信号が出力された前記第一又は前記第二の電力装置を管理している管理者が使用している管理者端末及び、前記第一又は前記第二の電力装置の管理を担当している担当者が所有している担当者端末に対して、前記筐体に係る前記第一又は前記第二の電力装置を特定する情報と共に、警報通知情報を出力する警報通知情報出力手段とを備えていると共に、
     前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段の中のいずれかが前記第一の電力装置の中のいずれかに対して前記電力供給遮断信号を出力した際に、前記電力供給遮断信号の入力を受ける前記第一の電力装置から電力供給を受けている前記負荷に対して、前記電力供給遮断信号の入力を受ける前記第一の電力装置に切り替わって電力供給を行うように、前記第二の電力装置の中のいずれかに対して電力供給開始信号を出力する電力供給切替制御手段
     を備えているデジタルエレクトリックマルチセフティコントロールシステム。
    One or more first power devices in which the power supply side electric circuit from the power supply side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing, and a plurality of first electric power devices.
    One or more by one or more second power devices in which the power supply side electric circuit from the power source side and the load side electric circuit toward the load are electrically connected via an electric device arranged in the housing. A digital electric multi-safety control system that controls the power supply to the load.
    Both the first electric power device and the second electric power device
    The temperature inside the housing is constantly detected, and the temperature information inside the housing, which is the information about the temperature inside the housing, is digitally informationed together with the information for identifying the first or second power device related to the housing. A means of acquiring temperature information inside the housing to be output,
    The temperature of the load-side electric circuit is constantly detected, and the electric circuit temperature information which is the information about the temperature of the detected load-side electric circuit is output as digital information together with the information for identifying the first or second related to the housing. Electric circuit temperature information acquisition means and
    The voltage value, current value, and resistance value are constantly detected by being connected to the load side electric circuit, and the voltage, current, and resistance value information which is information on the detected voltage value, current value, and resistance value of the load side electric circuit is stored in the housing. It is equipped with a means for acquiring electric circuit voltage / current / resistance value information that outputs digital information together with information that identifies the first or second power device related to the body.
    The digital electric multi-safety control system is
    A housing temperature monitoring means that compares the temperature inside the housing acquired by the housing temperature information acquisition means with a preset housing temperature monitoring means.
    A load-side electric circuit temperature monitoring means that compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit monitoring temperature.
    Electric circuit voltage / current / resistance value monitoring that compares the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means with the preset load side electric circuit monitoring voltage / current / resistance value. Means and
    When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the monitoring temperature in the housing, the load from the power supply side electric circuit via the electric device. The first power cutoff means that outputs a power supply cutoff signal that cuts off the power supply to the side electric circuit,
    When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit monitoring temperature, the power supply-side electric circuit via the electric device is used. A second power cutoff means for outputting a power supply cutoff signal that cuts off the power supply to the load side electric circuit, and
    When the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load side electric circuit monitoring voltage / current / resistance value, the load side electric circuit voltage / current / resistance value monitoring means A third power cutoff means that outputs a power supply cutoff signal that cuts off the power supply from the power supply side electric circuit to the load side electric circuit via the electric device when the determination is made.
    When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the monitoring temperature in the housing, the first electric power device or the first power device related to the housing. The first warning signal issuing means that outputs a temperature warning signal together with the information that identifies the second power device,
    When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit monitoring temperature, the first electric power device according to the housing. Alternatively, a second warning signal issuing means that outputs a temperature warning signal together with information that identifies the second power device, and
    The electric circuit voltage / current / resistance value monitoring means determines that the electric circuit voltage / current / resistance value acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load side electric circuit monitoring voltage / current / resistance value. At that time, a third alarm signal issuing means for outputting a voltage / current / resistance value alarm signal together with information for identifying the first power device or the second power device related to the housing.
    The temperature alarm signal output by the first alarm signal issuing means, the temperature alarm signal output by the second alarm signal issuing means, and the voltage / current / resistance value output by the third alarm signal issuing means. Management used by the administrator who manages the first or second power device to which the temperature alarm signal or the voltage / current / resistance value alarm signal is output based on any of the alarm signals. The first or second electric power device related to the housing with respect to the person terminal and the person in charge terminal owned by the person in charge of managing the first or second electric power device. It is equipped with an alarm notification information output means that outputs alarm notification information together with information that identifies the power source.
    Any one of the first power cutoff means, the second power cutoff means, and the third power cutoff means outputs the power supply cutoff signal to any of the first power supply devices. At that time, the load receiving the power supply from the first power device receiving the input of the power supply cutoff signal is switched to the first power device receiving the input of the power supply cutoff signal. A digital electric multi-safety control system including a power supply switching control means for outputting a power supply start signal to any one of the second power devices so as to supply power.
  2.  前記電路電圧・電流・抵抗値情報取得手段が検知する前記電圧値、電流値及び抵抗値の中に前記負荷側電路の漏洩電流が含まれており、
     前記第三の電力遮断手段は、前記電路電圧・電流・抵抗値情報取得手段で取得した前記漏洩電流の値が前記負荷側電路監視電圧・電流・抵抗値を越えたと判定した際に、前記電力供給遮断信号を出力する
     請求項1記載のデジタルエレクトリックマルチセフティコントロールシステム。
    The leakage current of the load-side electric circuit is included in the voltage value, the current value, and the resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
    When the third power cutoff means determines that the value of the leakage current acquired by the electric circuit voltage / current / resistance value information acquisition means exceeds the load-side electric circuit monitoring voltage / current / resistance value, the electric power The digital electric multi-safety control system according to claim 1, which outputs a supply cutoff signal.
  3.  前記第一の電力装置及び、前記第二の電力装置は、いずれも、前記負荷側電路に前記電気機器とは異なる種類の回路開閉器を備えており、
     前記デジタルエレクトリックマルチセフティコントロールシステムの前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段のそれぞれから出力される前記電力供給遮断信号は、前記電気機器又は前記回路開閉器のいずれかに対して出力される請求項1又は2記載のデジタルエレクトリックマルチセフティコントロールシステム。
    Both the first electric power device and the second electric power device are provided with a circuit switch of a type different from that of the electric device in the load side electric circuit.
    The power supply cutoff signal output from each of the first power cutoff means, the second power cutoff means, and the third power cutoff means of the digital electric multi-safety control system is the electric device or the circuit. The digital electric multi-safety control system according to claim 1 or 2, which is output to any of the switches.
  4.  前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段のそれぞれから出力される前記電力供給遮断信号は前記回路開閉器に対して出力される請求項3記載のデジタルエレクトリックセフティコントロールシステム。 The third aspect of claim 3, wherein the power supply cutoff signal output from each of the first power cutoff means, the second power cutoff means, and the third power cutoff means is output to the circuit switch. Digital electric safety control system.
  5.  前記電力供給遮断信号の入力を受けた前記回路開閉器に対して前記負荷側電路を介した前記負荷への電力供給を復旧させる電力復旧信号を出力する電力復旧信号出力部を備えている請求項4記載のデジタルエレクトリックセフティコントロールシステム。 Claimed to include a power recovery signal output unit that outputs a power recovery signal for restoring power supply to the load via the load side electric circuit to the circuit switch that has received the power supply cutoff signal. The digital electric safety control system described in 4.
  6.  前記電路電圧・電流・抵抗値情報取得手段が検知する前記電圧値、電流値及び抵抗値の中に前記負荷側電路の絶縁抵抗が含まれており、
     前記デジタルエレクトリックマルチセフティコントロールシステムは、
     前記第一の電力遮断手段、前記第二の電力遮断手段、前記第三の電力遮断手段の中のいずれかが前記第一の電力装置の中のいずれかに対して前記電力供給遮断信号を出力した後に、前記電力供給遮断信号の入力を受ける前記第一の電力装置から前記負荷に向かう負荷側電路の前記電路電圧・電流・抵抗値情報取得手段によって測定された前記絶縁抵抗に関する情報を取得し、これを前記管理者端末及び、前記担当者端末に対して、前記第一の電力装置を特定する情報と共に、絶縁抵抗値情報として出力する絶縁抵抗値情報出力手段を更に備えている
     請求項1乃至請求項5のいずれか一項に記載のデジタルエレクトリックマルチセフティコントロールシステム。
    The insulation resistance of the load-side electric circuit is included in the voltage value, current value, and resistance value detected by the electric circuit voltage / current / resistance value information acquisition means.
    The digital electric multi-safety control system is
    Any one of the first power cutoff means, the second power cutoff means, and the third power cutoff means outputs the power supply cutoff signal to any of the first power supply devices. After that, the information on the insulation resistance measured by the electric circuit voltage / current / resistance value information acquisition means of the load side electric circuit from the first electric power device receiving the input of the electric power supply cutoff signal to the load is acquired. 1. The administrator terminal and the person in charge terminal are further provided with an insulation resistance value information output means for outputting this as insulation resistance value information together with information for identifying the first electric power device. The digital electric multi-safety control system according to any one of claims 5.
  7.  前記絶縁抵抗値情報出力手段は、前記電力供給遮断信号が出力された後で所定の時間が経過した以降に前記電路電圧・電流・抵抗値情報取得手段が取得した前記絶縁抵抗値情報を出力する請求項6記載のデジタルエレクトリックマルチセフティコントロールシステム。 The insulation resistance value information output means outputs the insulation resistance value information acquired by the electric circuit voltage / current / resistance value information acquisition means after a predetermined time has elapsed after the power supply cutoff signal is output. The digital electric multi-safety control system according to claim 6.
  8.  前記筐体内温度監視手段は、前記筐体内温情報取得手段で取得した前記筐体内の前記温度と、あらかじめ設定されている筐体内警報温度とを、更に、比較し、
     前記負荷側電路温度監視手段は、前記電路温度情報取得手段で取得した前記負荷側電路の前記温度と、あらかじめ設定されている負荷側電路警報温度とを、更に、比較し、
     前記筐体内温情報取得手段で取得した前記筐体内の前記温度が前記筐体内警報温度を越えたと前記筐体内温度監視手段が判定した際に、前記電力装置に対して配備されている火災報知設備機器に火災警報情報を出力する第一の火災警報情報出力手段と、
     前記電路温度情報取得手段で取得した前記負荷側電路の前記温度が前記負荷側電路警報温度を越えたと前記負荷側電路温度監視手段が判定した際に、前記電力装置に対して配備されている前記火災報知設備機器に火災警報情報を出力する第二の火災警報情報出力手段と、
     を更に備えている請求項1乃至請求項7のいずれか一項に記載のデジタルエレクトリックマルチセフティコントロールシステム。
    The housing temperature monitoring means further compares the temperature inside the housing acquired by the housing temperature information acquisition means with the preset temperature inside the housing, and further compares the temperature inside the housing with the preset temperature inside the housing.
    The load-side electric circuit temperature monitoring means further compares the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means with a preset load-side electric circuit alarm temperature.
    When the temperature monitoring means in the housing determines that the temperature in the housing acquired by the temperature information acquisition means in the housing exceeds the alarm temperature in the housing, the fire alarm system provided for the power device is provided. The first fire alarm information output means that outputs fire alarm information to the equipment,
    When the load-side electric circuit temperature monitoring means determines that the temperature of the load-side electric circuit acquired by the electric circuit temperature information acquisition means exceeds the load-side electric circuit alarm temperature, the above-mentioned electric power device is deployed. A second fire alarm information output means that outputs fire alarm information to the fire alarm system,
    The digital electric multi-safety control system according to any one of claims 1 to 7, further comprising.
  9.  前記電力装置の近傍に前記電力装置を撮影するデジタルカメラが配備されており、
     前記第一の警報信号発出手段が前記温度警報信号を出力した後、または、前記第二の警報信号発出手段が前記温度警報信号を出力した後、あるいは、前記第三の警報信号発出手段が前記電圧・電流・抵抗値警報信号を出力した後、前記管理者端末から取得した画像情報要求情報及び/又は前記担当者端末から取得した画像情報要求情報に基づいて、前記デジタルカメラが撮影している前記電力装置の画像情報をリアルタイムで出力する画像情報出力手段
     を更に備えている請求項1乃至請求項8のいずれか一項に記載のデジタルエレクトリックマルチセフティコントロールシステム。
    A digital camera for photographing the electric power device is installed in the vicinity of the electric power device.
    After the first alarm signal issuing means outputs the temperature alarm signal, or after the second alarm signal issuing means outputs the temperature alarm signal, or after the third alarm signal issuing means outputs the temperature alarm signal, the third alarm signal issuing means said. After outputting the voltage / current / resistance value alarm signal, the digital camera takes a picture based on the image information request information acquired from the administrator terminal and / or the image information request information acquired from the person in charge terminal. The digital electric multi-safety control system according to any one of claims 1 to 8, further comprising an image information output means for outputting image information of the power device in real time.
  10.  前記第一の電力装置の近傍及び前記第二の電力装置の近傍にそれぞれ前記第一の電力装置を撮影し温度を検知する温度検知手段及び前記第二の電力装置を撮影し温度を検知する温度検知手段が配備されている、又は、
     前記第一の電力装置の前記回路開閉器の近傍及び前記第二の電力装置の前記回路開閉器の近傍に前記第一の電力装置の前記回路開閉器及び前記第二の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段が配備されている、又は、
     前記第一の電力装置の近傍と前記第一の電力装置の前記回路開閉器の近傍及び、前記第二の電力装置の近傍と前記第二の電力装置の前記回路開閉器の近傍とに前記第一の電力装置及び前記第一の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段と、前記第二の電力装置及び前記第二の電力装置の前記回路開閉器を撮影し温度を検知する温度検知手段とがそれぞれ配備されていて、
     前記温度検知手段がリアルタイムで撮影し検知している前記第一の電力装置の画像情報及び検知温度情報、前記第二の電力装置の画像情報及び検知温度情報、前記第一の電力装置の前記回路開閉器の画像情報及び検知温度情報、前記第二の電力装置の前記回路開閉器の画像情報及び検知温度情報の中の何れかまたは複数を、
     所定のタイミングで、前記管理者端末及び/又は前記担当者端末へ送出する検知温度情報出力手段
     を更に備えている請求項3に記載のデジタルエレクトリックマルチセフティコントロールシステム。
    A temperature detecting means for photographing the first electric power device and detecting the temperature and a temperature for detecting the temperature by photographing the second electric power device in the vicinity of the first electric power device and the vicinity of the second electric power device, respectively. Detection means are deployed or
    In the vicinity of the circuit switch of the first power device and in the vicinity of the circuit switch of the second power device, the circuit switch of the first power device and the circuit switch of the second power device are opened and closed. A temperature detection means that photographs the vessel and detects the temperature is installed, or
    The first in the vicinity of the first power device, the vicinity of the circuit switch of the first power device, the vicinity of the second power device, and the vicinity of the circuit switch of the second power device. A temperature detecting means for photographing the circuit switch of one electric power device and the first electric power device to detect the temperature, and photographing the circuit switch of the second electric power device and the second electric power device to detect the temperature. There are temperature detection means to detect the power.
    Image information and detection temperature information of the first power device, image information and detection temperature information of the second power device, and the circuit of the first power device, which the temperature detecting means captures and detects in real time. One or more of the image information and the detected temperature information of the switch, the image information and the detected temperature information of the circuit switch of the second power device,
    The digital electric multi-safety control system according to claim 3, further comprising a detection temperature information output means for transmitting to the administrator terminal and / or the person in charge terminal at a predetermined timing.
PCT/JP2020/015987 2019-12-02 2020-04-09 Digital electric multi-safety control system WO2021111652A1 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP2020541470A JP6762550B1 (en) 2019-12-02 2020-04-09 Digital Electric Multi-Safety Control System

Applications Claiming Priority (4)

Application Number Priority Date Filing Date Title
PCT/JP2019/046953 WO2021111489A1 (en) 2019-12-02 2019-12-02 Digital electric multi-safety control system
JPPCT/JP2019/046953 2019-12-02
PCT/JP2020/009964 WO2021111649A1 (en) 2019-12-02 2020-03-09 Digital electric multi safety control system
JPPCT/JP2020/009964 2020-03-09

Publications (1)

Publication Number Publication Date
WO2021111652A1 true WO2021111652A1 (en) 2021-06-10

Family

ID=71402468

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/JP2020/015987 WO2021111652A1 (en) 2019-12-02 2020-04-09 Digital electric multi-safety control system

Country Status (2)

Country Link
JP (1) JP6719765B1 (en)
WO (1) WO2021111652A1 (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN115049650A (en) * 2022-08-12 2022-09-13 深圳凯升联合科技有限公司 Electrical equipment leakage detection method based on image processing

Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH04331414A (en) * 1991-04-30 1992-11-19 Hitachi Cable Ltd Overcurrent outoff system for protecting trunk line
JP2003299214A (en) * 2002-04-05 2003-10-17 Tempearl Ind Co Ltd Overcurrent alarm and distribution board provided therewith
JP2008017688A (en) * 2006-07-05 2008-01-24 Kd Power Co Ltd Digital electric distribution panel
JP2012508554A (en) * 2008-11-11 2012-04-05 トマス、ガスマン Equipment for fire prevention in electrical systems
JP2013034287A (en) * 2011-08-01 2013-02-14 Kawamura Electric Inc Distribution board disconnecting cable run after overheat detection
WO2016104667A1 (en) * 2014-12-26 2016-06-30 株式会社日立製作所 Power supply system and power supply method
JP2017220981A (en) * 2016-06-03 2017-12-14 東芝プラントシステム株式会社 Cable way temperature monitoring system, cable way temperature monitoring device, and cable way temperature monitoring method

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH04331414A (en) * 1991-04-30 1992-11-19 Hitachi Cable Ltd Overcurrent outoff system for protecting trunk line
JP2003299214A (en) * 2002-04-05 2003-10-17 Tempearl Ind Co Ltd Overcurrent alarm and distribution board provided therewith
JP2008017688A (en) * 2006-07-05 2008-01-24 Kd Power Co Ltd Digital electric distribution panel
JP2012508554A (en) * 2008-11-11 2012-04-05 トマス、ガスマン Equipment for fire prevention in electrical systems
JP2013034287A (en) * 2011-08-01 2013-02-14 Kawamura Electric Inc Distribution board disconnecting cable run after overheat detection
WO2016104667A1 (en) * 2014-12-26 2016-06-30 株式会社日立製作所 Power supply system and power supply method
JP2017220981A (en) * 2016-06-03 2017-12-14 東芝プラントシステム株式会社 Cable way temperature monitoring system, cable way temperature monitoring device, and cable way temperature monitoring method

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN115049650A (en) * 2022-08-12 2022-09-13 深圳凯升联合科技有限公司 Electrical equipment leakage detection method based on image processing
CN115049650B (en) * 2022-08-12 2023-08-01 深圳凯升联合科技有限公司 Electrical equipment leakage detection method based on image processing

Also Published As

Publication number Publication date
JP6719765B1 (en) 2020-07-08
JPWO2021111649A1 (en) 2021-12-02

Similar Documents

Publication Publication Date Title
WO2021095283A1 (en) Digital electric safety control system
KR102057494B1 (en) Smart electrical accident prevention and energy management system
KR101106724B1 (en) Smart pannel board with blackbox and emergency-battery
KR102382151B1 (en) Apparatus for monitoring disorder on a switchboard
CA2665038C (en) Apparatus and method for fire protection of electrical installations
WO2021111652A1 (en) Digital electric multi-safety control system
JP6762550B1 (en) Digital Electric Multi-Safety Control System
US10388802B2 (en) System and method for synchronized rapid shutdown of electrical devices
JP6836233B1 (en) Digital Electric Safety Control System
KR101510676B1 (en) Intelligent discharge monitoring vision system for electric distributing board
CN112701786B (en) 220kV and below electric voltage class skid-mounted electronic control integrated transformer substation
KR100936741B1 (en) A bad conductor detection device of bus duct system and method for detecting
KR101376214B1 (en) Cable-duct attaching type high-voltage switchgear, low-voltage switchgear, motor control center, distribution panel installed uninterrupted power peak-control system and hybrid monitoring-control system
WO2021111649A1 (en) Digital electric multi safety control system
JP6836234B1 (en) Digital Electric Safety Control System
KR102308824B1 (en) Management system for distribution panel having function protecting dewfall
JP7016461B1 (en) Digital Electric Safety Control System
KR101569199B1 (en) Photovoltaic power generation system having fire prevention apparatus
CN209979773U (en) Intelligent power consumption monitoring system
WO2017158508A1 (en) Smart fire warning for low voltage electrical panels
KR102504779B1 (en) Switchgear maintenance system using LED simulation busbar
KR102391960B1 (en) Power monitoring system and method thereof
CN104577950A (en) Electric equipment protector
KR102484559B1 (en) switchboard system with self-diagnosis functions
KR102343845B1 (en) It convergence block cabinet panel and system for monitoring thereof

Legal Events

Date Code Title Description
ENP Entry into the national phase

Ref document number: 2020541470

Country of ref document: JP

Kind code of ref document: A

121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 20895568

Country of ref document: EP

Kind code of ref document: A1

NENP Non-entry into the national phase

Ref country code: DE

122 Ep: pct application non-entry in european phase

Ref document number: 20895568

Country of ref document: EP

Kind code of ref document: A1