WO2015178609A1

WO2015178609A1 - Collateral monitoring system provided with low-power collateral terminal, and method therefor

Info

Publication number: WO2015178609A1
Application number: PCT/KR2015/004669
Authority: WO
Inventors: 이정훈
Original assignee: 주식회사 씨앤테크
Priority date: 2014-05-22
Filing date: 2015-05-11
Publication date: 2015-11-26
Also published as: KR101492593B1

Abstract

The present invention relates to a collateral monitoring system provided with a collateral terminal for monitoring the status of collateral at low power and a method therefor and, more specifically, to a collateral monitoring system provided with a collateral terminal capable of operating at low power so as to use a battery for monitoring collateral for a long period of time and a method therefor.

Description

Collateral monitoring system with low power collateral terminal and method

The present invention relates to a security monitoring system having a security terminal for monitoring the state of the security at low power, and a method thereof, and more particularly, to a security terminal capable of operating at low power so that the battery for security monitoring can be used for a long time. The present invention relates to a security monitoring system provided with the same.

According to the present invention, a collateral provided by the debtor as collateral to the creditor during the security loan; Each event information is managed by detecting at least one change indication of movement, vibration, location, power usage, and heat of the collateral, and the event information includes an initial occurrence value of the change indication and a time elapsed after the first occurrence value. A collateral terminal for detecting the change by the occurrence value according to; A central management server configured to receive and manage event information generated by a security terminal through wired or wireless communication networks; And a monitor terminal for checking a change in collateral based on event information and / or risk level sent from a central management server through a wired or wireless communication network.

The collateral terminal is designed as a low power and relates to a security monitoring system having a low-power collateral terminal, characterized in that periodically transmitting the presence or absence data to the central management server.

Accordingly, the present invention by checking the event and the degree of risk that is a change sign generated in the collateral terminal operating at low power from time to time, it is possible to immediately check the change situation of the collateral without a visit to prevent the disappearance of the collateral, power the battery Even when used as a low power operation has the advantage that can be used for a long term security terminal.

Generally, loans of financial institutions include credit loans, cheonsei fund loans, student loans and mortgages.

Mortgage loans, meanwhile, mean the protection of the disadvantages that may be incurred by others or the means provided to the creditor to secure the bonds against the debtor's default.

These mortgages include human and physical collateral.

Human security means not only the general property of the debtor, but also a way for the third party other than the debtor to pay the debts, and to claim against the general property of the person. Real estate, real estate and bonds are provided as collateral, and the creditor has priority right over the goods.

This object belongs to the general property of the debtor, but if it is specifically for the purpose of property security, the creditor having the security right will be reimbursed from the object in preference to the general creditor.

Of course, the establishment of material security is not limited to the debtor, so it is possible to provide possession of a third party other than the debtor as collateral for the debtor's debt.

Here, creditors are often financial institutions.

As shown in FIG. 1, the creditor financial institution 10 lends a certain amount of money through a real estate (eg, a facility of most small and large mechanical equipment), which is a collateral provided by the debtor 20. Do it.

After the loan, the financial institution 10 always checks the state of the credit and collateral provided collateral.

That is, the manager (30, branch bank employee) of the creditor 10 visits the collateral provided by the debtor 20 weekly or monthly, and grasps the condition of the collateral, photographs it, and then photographs it. Institution, 10).

However, when most of the management staff 30 visits the site where the collateral is located, the debtor who owns or manages the collateral often makes it impossible or disturbs for various reasons.

This is because the debtor randomly disposes the collateral for various reasons, such as default, without notifying the creditor.

In this case, unlike the terms of the loan, there is a problem that the value of the collateral is extinguished, or the possibility of legal dispute increases.

Figure 3 is a specific configuration of the security terminal according to the prior art created by the inventor of the present application.

Referring to Figure 3 disclosed in the Republic of Korea Patent No. 10-1260481 in detail, the collateral terminal 120 according to the prior art is a gyro sensor module 121, vibration sensor module 122, the position tracking sensor module 123 And a power sensor module 124 and a control module 129.

First, the gyro sensor module 121 is a module that interfaces between the gyro sensor and the control module 129 provided in the collateral terminal 120, and measures movement of the collateral 110 using a gyro sensor.

The gyro sensor detects the angular velocity, thereby measuring the movement of the collateral 110.

If the motion continues or changes in size from time to time, it can be seen that the collateral 110 is in motion.

The vibration sensor module 122 is a module that interfaces between the vibration sensor provided in the collateral terminal 120 and the control module 129. The vibration sensor module 122 measures the vibration generated in the collateral 110 using the vibration sensor.

Vibration sensors are also referred to as sound sensors and acceleration sensors.

If the vibration continues or the size changes from time to time, it can be seen that the collateral 110 is moving to another place.

The location sensor module 123 is a module that interfaces between the location sensor and the control module 129 provided in the collateral terminal 120, and tracks the position and movement of the collateral terminal 120 using the location sensor. .

In order to track the location and movement of the collateral terminal 120, the location tracking sensor communicates with the GPS to obtain and process the location information from the GPS.

When the location information changes from time to time, it can be seen that the collateral 110 is moving when compared with the original location information.

The power sensor module 124 is a module for interfacing between the power sensor provided in the collateral terminal 120 and the control module 129. The power sensor module 124 measures the presence or absence of power used in the collateral 110 using the power sensor.

For example, if the collateral 110 continues to be used, the normal amount of power will be checked, and if it is not being used, the abnormal amount of power will be checked.

The thermal sensor module 129a is a module that interfaces between the thermal sensor provided in the collateral terminal 120 and the control module 129. The thermal sensor module 129a measures heat generated from the collateral using the thermal sensor.

This heat sensing is suitable for the case of special collateral 120, such as collateral 120 which generates heat normally.

Finally, the control module 129 controls the data flow between the gyro sensor module 121, the vibration sensor module 122, the position tracking sensor module 123, the power sensor module 124 and the thermal measurement sensor module 129a. In addition, it serves to control the data flow between the special key lock module 125, the battery module 126, the LED lock module 127 and the communication module 128.

In this way, by checking the signs of change in the collateral 110 using various sensors, the creditors can immediately respond to the change situation.

The collateral terminal 120 may include the gyro sensor module 121, the vibration sensor module 122, the position tracking sensor module 123, the power sensor module 124, the control module 129, and the thermal measurement sensor module 129a. The special key locking module 125, the battery module 126, the LED locking module 127, and the communication module 128 may be further provided.

The special key locking module 125 is installed at the bottom of the collateral terminal 120 to receive a release command through the special key and to combine the structure of the special key locking module 125 and the collateral 110 to be disassembled from the collateral 110. Loosen

The special key locking module 125 prevents the separation of the collateral terminal 120 installed in the collateral 110 so that the unique function of the collateral terminal 120 is maintained.

This special key lock module 125 is a module necessary to assume the worst case.

Next, the battery module 126 serves to continuously supply standby power to each module through the charged power when power is not supplied to each module.

In this case, when the power is not supplied, the debtor is forcibly blocking the power or preventing the power from being cut off by a power failure in advance.

However, it is not legally illegal for the debtor to cut off the power, so it is necessary to keep in mind the power supply by the battery module, so a collateral terminal operating at low power is required.

Therefore, each module may operate according to the standby power to continuously detect a change indication.

When the standby power is supplied, the change indication is confirmed and notified to the central management server 140 and / or the monitor terminal 150 as event information.

The observer then recognizes this as a change and takes appropriate action.

On the other hand, the LED locking module 127 serves to check the remaining amount of power in accordance with the standby power supply of the battery module 126.

The checked remaining amount information is transmitted to the monitor terminal 150 through the central management server 140.

The monitor then checks the status of the standby power source, which also recognizes the change and takes appropriate action.

The communication module 128 serves to interface the event information generated in the collateral terminal 120 to the central management server 140 via the wired / wireless communication network 170 or to be received.

As such, due to the provision of the special key locking module 125, the battery module 126, and the LED locking module 127, the signs of variation through a plurality of sensors are not detected or prepared in advance for various provocation situations. It is possible to keep an eye on the state of the situation and to prevent the loss of collateral.

However, the prior art is not suitable for monitoring the collateral over a long period of time because the power is consumed in a relatively short period of time because the waste of power is severe when operating on the battery.

Therefore, even if it is operated by a battery, it is necessary to have a secured terminal that can be used for a long time because it is designed with low power.

In addition, in the related art, when a debtor deliberately damages a security terminal and makes communication and monitoring impossible, it is difficult to recognize it and it is difficult to appropriately deal with it since it is detected after a long time.

* Prior art literature *

(Patent Document 1) Republic of Korea Patent Registration No. 10-1260481 (2013.04.26)

The security terminal mentioned in the background has a disadvantage that it cannot be used for a long time when operating as a battery and it is difficult for the monitor to recognize and cope with it when the communication module or power and standby power are intentionally damaged.

Accordingly, the present invention has been made to provide a low-power collateral terminal, and an object thereof is to propose a system and method capable of appropriately coping even when the communication module of the collateral terminal is damaged.

To achieve the object of the present invention as described above, the features for performing the function of the present invention described below are as follows.

Collateral monitoring system according to an embodiment of the present invention,

Collateral provided to the creditor by the debtor as collateral in the security loan; Each event information is managed by detecting at least one change indication of movement, vibration, location, power usage, and heat of the collateral, and the event information includes an initial occurrence value of the change indication and a time elapsed after the first occurrence value. A collateral terminal for detecting the change by the occurrence value according to;

A central management server configured to receive and manage event information generated by a security terminal through wired or wireless communication networks; In the security monitoring system including; and a monitor terminal for checking the change of collateral according to the event information and / or the degree of risk sent from the central management server through a wired, wireless communication network,

The collateral terminal is designed to be low power, and there is provided a security monitoring system having a low power collateral terminal, characterized in that periodically transmitting the presence or absence data to the central management server.

Implementing low power is a key feature that can reduce maintenance costs by increasing the period of time when a collateral terminal can operate without replacing the power source when the collateral terminal operates on batteries. In addition, if the debtor deliberately damaged the collateral terminal and made communication and monitoring impossible, the observer was able to respond appropriately.

Collateral monitoring system according to the present invention having the above configuration and action,

According to the present invention, due to the provision of the collateral terminal and the central management server installed on the collateral, by checking the event and the degree of risk that is a symptom of variation occurring in the collateral terminal from time to time, there is an effect that can immediately check the change situation of the collateral without a visit, In particular, by implementing a collateral terminal at low power, it provides an effect of extending the maintenance period of the battery in the long term.

This prevents the outflow of collateral that might be extinguished in advance, prevents contractual disadvantages due to the extinction of the collateral, and maintains the right of preferential repayment of the collateral, even if the monitor is deliberately damaged. Recognize and respond appropriately, and the on-site manager (monitor) does not have to visit from time to time to prevent damage due to poor management, it is possible to reduce the management time and cost of collateral, and maintenance through the remaining information of the battery It has the effect of providing low cost and economic benefit by reducing maintenance cost.

1 is a view showing a monitoring (management) form of collaterals generally performed.

2 is a diagram illustrating a collateral monitoring system 100 according to the prior art.

3 is a detailed block diagram of a security terminal according to the related art.

4 is a flowchart illustrating a security method monitoring method (S100) using a wired and wireless communication network 170 according to the prior art.

5 is a flow chart illustrating in more detail the step S120 according to the prior art.

6 is a detailed configuration diagram of a security terminal according to an embodiment of the present invention.

* Detailed description of the major symbols in the drawings *

100: collateral security system

110: collateral

120: collateral terminal

121: Gyro Sensor Module

122: vibration sensor module

123: Position Tracking Sensor Module

124: power sensor module

125: special key locking module

126: Battery Module

127: LED Lock Module

128: communication module

129 control module

130: GPS

140: Central Management Server

150: watcher terminal

160: creditor terminal

170: wired, wireless communication network

610: living vibration setting module

620: Log data storage module

630: detection cycle setting module

640: sleep cycle setting module

650: duration setting module

660: notification cycle setting module

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art may easily implement the present invention. Like reference numerals in the drawings refer to the same or similar functions throughout the several aspects.

2 is a diagram illustrating a collateral monitoring system 100 according to the prior art by way of example.

As shown in FIG. 2, the collateral monitoring system 100 according to the related art includes the collateral 110, the collateral terminal 120, the GPS, the central management server 140, and the supervisor / creditor terminal 150. , 160) and wired and wireless communication network 170.

First, the collateral 110 according to the prior art refers to a property of industrial or property value, such as machinery, appliances, computers, electronic devices and living appliances.

Such collateral 110 is provided with a security loan from a financial institution that is a creditor, and in return, the debtor provides the financial institution for the security loan period.

Next, the collateral terminal 120 according to the prior art is installed on the collateral 110 serves to detect the signs of variation of the collateral.

Here, the change sign means at least one or more of the movement, vibration, location and power usage and heat of the collateral (110).

For example, when the movement of the collateral 110 occurs, the collateral terminal 120 detects this as a change indication and simultaneously tracks the position of the collateral 110.

In addition, when the vibration of the collateral 110 occurs, the collateral terminal 120 detects this as a change indication, and simultaneously performs the location tracking of the collateral 110.

In addition, when the position movement of the collateral 110 occurs, the collateral terminal 120 detects this as a change indication, and simultaneously performs the position tracking of the collateral 110.

In addition, if there is no power usage by checking whether the collateral 110 uses power, the collateral terminal 120 detects this as a change indication and simultaneously tracks the location of the collateral.

In addition, if there is heat generated in the collateral, the security terminal 120 detects this as a sign of variation, and simultaneously performs the location tracking of the collateral 110.

The sensing of heat is limited to the case where the collateral 110 is a mechanical facility.

In this way, a plurality of jobs can detect signs of variation simultaneously or separately.

When detected as a change indication, the security terminal 120 according to the related art generates different event information according to the change indication.

In this case, the event information includes a generation value of the change indication and a change occurrence value with time since the generation of the occurrence value.

For example, the first occurrence value of the movement is generated in response to the movement change sign, and the event variation is generated periodically or in real time by generating the event information after the occurrence value is generated. .

In addition, the first occurrence value generated by the position movement is generated in the change indication of the position movement, and the event information is generated by checking the position movement variation occurrence value over time after generating the occurrence value periodically or in real time. .

The other factors generate the original occurrence value and the variation occurrence value in the same manner as in the above example.

Here, the at least one or more fluctuation signs of movement, vibration, position and power usage of the collateral 110 are sensed using a plurality of sensors.

Therefore, the collateral terminal 120 according to the prior art is provided with a plurality of sensing sensor modules.

Detection of a change indication using the plurality of detection sensor modules will be described in detail later with reference to FIG. 3.

Next, the GPS according to the prior art (GPS, 130) checks the position information of the collateral 110 to check the position information of the collateral 110 of the change signs described above provided to the collateral terminal 120 do.

Of course, at the request of the collateral terminal 120 provides the location information of the collateral 110.

In addition, the GPS 130 may not provide the location information to the collateral terminal 120 and may provide the location information at the request of the central management server 140 or the monitor terminal 150 to be described later.

As such, the GPS according to the related art (GPS) 130 may be usefully used for detecting a change in the signs according to the location information of the collateral 110.

Next, the central management server 140 according to the prior art receives and manages the event information generated in the collateral terminal 120 through the wired, wireless communication network 170, and to the monitor terminal 150 to be described later Serves to provide.

In addition, the central management server 140 checks the initial occurrence value and the variation occurrence value of the event information provided from the collateral terminal 120 and assigns a degree of risk.

For example, if the fluctuating value changes over time after the initial occurrence of the motion occurs, the degree of risk can be given differently depending on the frequency of the change, such as very serious, rather severe, severe, somewhat weak, or weak. have.

This degree of risk is also immediately provided to the monitor terminal 150.

In addition, other factors (vibration, location and power usage and heat, etc.) will be provided to the monitor terminal 150 by assigning a degree of risk according to the above principle.

When the central management server 140 is provided with a plurality of the collateral 110, the collateral terminal 120 and the monitor terminal 150, the event information and / or the degree of risk generated in each of the collateral terminal 120, respectively In order to provide the monitor terminal 150, each unique identification information may be managed, and the security terminal 120 or the monitor terminal 150 may be identified through each identification information to transmit corresponding data.

Since the use of such identification information is generally widely known, a detailed description thereof will be omitted.

Next, the monitor terminal 150 according to the prior art serves to check the change situation of the collateral 110 according to the event information and the degree of risk sent from the central management server 140 through the wired, wireless communication network (170). .

As such, when the event information and the degree of risk are checked immediately without visiting the change situation of the collateral 110, the creditor (financial institution, the creditor terminal 160) is notified to respond immediately, or by responding immediately, the collateral It is possible to prevent the extinction of the 110 and prevent damages due to the extinction of the collateral 110.

Finally, the wireless communication network 170 according to the prior art can smoothly exchange wireless data between the collateral terminal 120 and the central management server 140, between the collateral terminal 120 and the monitor terminal 150. So that the wireless technology is applied.

The wireless communication network 170 is preferably a wibro, 2G, or 3G mobile communication network. Therefore, the collateral terminal 120 and the monitor terminal 150 connected through the central management server 140 will of course have a wireless communication interface module capable of two-way communication.

In addition, the wireless communication network 170 may be a wired communication network 170, in which case the monitor terminal 150 and the creditor terminal 160 will be a PC.

3 is a block diagram showing in more detail the configuration of the security terminal 120 according to the prior art.

Referring to FIG. 3, the collateral terminal 120 according to the related art includes a gyro sensor module 121, a vibration sensor module 122, a position tracking sensor module 123, a power sensor module 124, and a control module 129. It is made, including.

First, the gyro sensor module 121 according to the prior art is a module that interfaces between the gyro sensor and the control module 129 provided in the collateral terminal 120, and measures movement of the collateral 110 using a gyro sensor. do.

If the movement continues or changes in size from time to time, it can be seen that the collateral 110 is moving.

The vibration sensor module 122 according to the related art is a module that interfaces between the vibration sensor provided in the collateral terminal 120 and the control module 129. The vibration sensor module 122 measures the vibration generated in the collateral 110 using a vibration sensor. .

The position tracking sensor module 123 according to the related art is a module for interfacing between the position tracking sensor and the control module 129 provided in the collateral terminal 120, and the position of the collateral terminal 120 using the position tracking sensor. Track the move.

If the location information changes from time to time, it can be seen that the collateral 110 is moving in comparison with the original location information.

The power sensor module 124 according to the related art is a module for interfacing between the power sensor provided in the collateral terminal 120 and the control module 129. The power sensor module 124 uses the power sensor to determine whether power is used in the collateral 110. Measure

The thermal sensor module 129a according to the related art is a module that interfaces between the thermal sensor and the control module 129 provided in the collateral terminal 120 and measures heat generated from the collateral using the thermal sensor. .

This heat sensing is suitable for the case of special collateral 120, for example collateral 120 which generates heat normally.

Control module 129 according to the prior art is a flow of data between the gyro sensor module 121, vibration sensor module 122, the position tracking sensor module 123, the power sensor module 124 and the thermal measurement sensor module 129a. In addition to the control, it serves to control the data flow between the special key lock module 125, the battery module 126, the LED lock module 127 and the communication module 128 to be described below.

However, the collateral terminal 120 according to the related art includes a gyro sensor module 121, a vibration sensor module 122, a position tracking sensor module 123, a power sensor module 124, a control module 129, and a thermal measurement sensor. In addition to the module 129a, a special key locking module 125, a battery module 126, an LED locking module 127, and a communication module 128 may be further provided.

Thus, look at each module further provided.

First, the special key locking module 125 according to the prior art is installed at the bottom of the collateral terminal 120 to receive the release command through the special key special key locking module 125 and collateral to be dismantled from the collateral (110) Loosen the coupling structure of (110).

The special key locking module 125 prevents separation of the collateral terminal 120 installed in the collateral 110, thereby maintaining the unique function of the collateral terminal 120 described above.

Next, the battery module 126 according to the prior art serves to continuously supply standby power to each module through the charged power when power is not supplied to each module.

The observer then recognizes this as a change and takes appropriate action.

On the other hand, LED lock module 127 according to the prior art serves to check the remaining amount of power in accordance with the standby power supply of the battery module 126.

The checked remaining amount information is transmitted to the monitor terminal 150 through the central management server 140. The monitor then checks the status of the standby power supply, which also recognizes the change and takes appropriate action.

The communication module 128 according to the related art serves to interface the event information generated in the collateral terminal 120 to be transmitted or received to the central management server 140 through the wired or wireless communication network 170.

As such, due to the provision of the special key locking module 125, the battery module 126, and the LED locking module 127, signs of variation through a plurality of sensors are not detected or prepared in advance for various provocation situations. It is possible to keep an eye on the state of the situation and to prevent the loss of collateral.

As shown in FIG. 4, the method of monitoring collateral using the wired / wireless communication network 170 according to the prior art (S100) is a collateral for the debtor (financial institution) in return for the debtor's subsidy. (S110).

Subsequently, the method for monitoring collateral security according to the related art (S100) detects an indication of variation in the collateral 110 in the collateral terminal 120 installed in the collateral 110 (S120).

At this time, the collateral monitoring method (S100) may detect a change in at least one or more of the movement, vibration, position, power use, and heat of the collateral 110 using a plurality of detection sensors disposed in the collateral terminal 120. have.

The detected fluctuation indication is generated as the respective event information.

Since the event information has been sufficiently described in FIG. 2, the description thereof will be omitted.

Subsequently, in the prior art collateral monitoring method (S100), event information generated according to detection of a change indication of the collateral terminal 120 is transmitted from the central management server 140 through a wired or wireless communication network 170, for example, a mobile communication network. Receive (S130).

The reception here is a form of automatic reception according to the automatic detection of the collateral terminal 120.

Subsequently, in the prior art collateral monitoring method (S100), when the security situation of the collateral 110 is sent to the monitor terminal 150 via the wired / wireless communication network 170 according to event information sent from the central management server 140. In operation S140, the monitor terminal 150 checks the variation of the collateral 110.

In addition, the collateral monitoring method (S100) according to the related art may further receive and check a risk level according to the event information together with the change situation according to the event information from the central management server 140 (S140).

The meaning of the degree of danger has been fully described in FIG. 2, and thus description thereof is omitted.

Subsequently, the collateral monitoring method (S100) according to the related art immediately informs the creditor terminal 160 of the change state checked in the supervisor terminal 140 via the wired or wireless communication network 170 (S150).

Accordingly, the creditor (financial institution) can immediately prevent the debtor's collateral 160 from extinction.

As shown in FIG. 5, step S120 according to the prior art measures the movement of the collateral 110 using a gyro sensor among a plurality of detection sensors, measures the vibration of the collateral 110 using a vibration sensor, The location of the collateral 110 is tracked using a location tracking sensor among the plurality of detection sensors (S121).

In this case, the position tracking sensor may track the position of the collateral 110 because the position tracking sensor receives the position information of the collateral 110 sent from the GPS.

In addition, the step S120 according to the prior art measures the presence or absence of power of the collateral 110 using a power sensor of the plurality of sensing sensors, the presence or absence of heat generation of the collateral 110 using a heat measuring sensor of the plurality of sensing sensors And the strength is measured (S121).

As such, the measured or tracked change indication is generated as event information and sent to the central management server 140 for use.

The event information has been described in FIG.

Subsequently, in step S120 according to the related art, the security terminal 120 may be dismantled from the security 110 by using the unlocking of the special key inserted into the special key locking module 125 installed in the security terminal 120 ( S122).

This dismantling process enables the disassembly of the collateral terminal 120 only when using a special key, thereby preventing the collateral terminal 120 from being separated from the collateral 110.

This is to keep the detection of the change signs of the collateral terminal 120.

Then, step S120 according to the prior art performs a process of supplying power to the collateral terminal 150 through the battery when the power supply for performing each step is not performed (S123).

As a result, the signs of fluctuations can be detected continuously according to the power supply.

Subsequently, in step S120 according to the related art, when power is supplied by the battery of step S123, the battery remaining amount information checked in the power source is transmitted to the monitor terminal 150 via the central management server 140. (S124).

By checking the battery remaining information as described above, by checking the connection state between the collateral terminal 150 and the collateral 110, it is possible to prevent a situation, for example, the loss of the collateral 110 in advance.

Referring to FIG. 6, FIG. 6 further includes modules for implementing low power and modules for periodically transmitting abnormality data in the configuration of the security terminal 120 of FIG. 3.

When the collateral is installed in a place where no power is supplied, the collateral terminal according to the present invention may inevitably use a battery.

In this case, the life of the battery affects the frequency of maintenance.

Thus, in order to extend the life of the battery, it is required that the collateral terminal be designed in a low power and operated in a power saving manner.

In the present invention, the change in vibration and angular velocity due to daily life is defined as living vibration.

The control module allows the input of the vibration and angular velocity variation ranges for the vibration sensor module and the gyro sensor module, respectively. Therefore, the living vibration setting module 610 is required and the basic setting is made in the factory where the collateral terminal is produced. It is.

The installer may be set in the central management server through the control module of the collateral terminal via wired or wireless communication network, or may be directly input to the collateral terminal.

The detection of the vibration sensor and gyro sensor by daily life remains as log data and does not operate by generating an event separately.

The log data is stored by the log data storage module 620 of the collateral terminal, and then transmitted to the central management server when the communication module operates, such as when an event occurs or a periodic abnormality data transmission.

However, the detection of the sensor outside the daily life is determined as an event according to the duration and processed. The event information is transmitted to the server through the communication module to detect the event of the collateral at the central management server.

Therefore, since the low-power collateral terminal only records log data for living vibration itself, it is not necessary to operate a communication module that uses a lot of power, thereby realizing low power.

Meanwhile, in the present invention, the sensing period and the dormant period are set, and the sensing period setting module 630 and the dormant period setting module 640 are the same. It is not activated in order to realize low power.

The setting of the sensing period setting module 630 and the sleep period setting module 640 is performed in the same manner as the setting of the living vibration setting module 610.

That is, it can be set at the factory and can be set through the control module via the communication module in the central management server.

In the present invention, in order to realize low power, the control module does not always operate 24 hours but operates according to a detection cycle, and sleeps when it is not.

As an example, when the sensing period is set to 10 seconds and the sleep period is set to 20 seconds, the control module operates the sensor for sensing for 10 seconds and the sensor operation for sensing for 20 seconds is stopped.

In addition, in order to generate an event, it is important how long the detection of the vibration of a living persists, and a module that can set it is necessary. The duration setting module 650 is provided to set the duration.

As an example, if the duration is set to 20 seconds and the detection cycle is set to 10 seconds and the sleep cycle is set to 20 seconds, the control module detects vibrations over 10 vibrations for 10 seconds and after 20 seconds sleep, detects no vibration. If not, no event is generated.

However, in the above case, if the control module detects vibrations of the living vibrations for 10 seconds and sleeps for 20 seconds and then detects the vibrations of the living vibrations for 10 seconds again, an event occurs. In other words, the event occurs when the vibration of the living vibration or more lasts for 20 seconds or more.

In the present invention, a low power chip is used as another means for realizing low power. Low-power chips are designed to use a hundredth of the power of ARM chips used in mobile phones. Therefore, even the capacity of the battery for the mobile phone is to be operated over 300 days to 600 days.

In addition, the programming languages employed are low-power chips designed to program in assemblies, minimizing the time and steps required to run them.

Usually ARM uses C language and JAVA, which is not suitable for low power as it has more steps than assembly.

In another aspect of the present invention, the notification period setting module 660 is configured, so that even if the debtor intentionally damages the communication module or damages the power and battery modules, the central management server can notify the monitor of the risk level. Doing.

For example, if the security terminal is to send the abnormality data every 3 hours (set by the notification cycle setting module) to the central management server, if the security terminal does not send such abnormality data within a maximum of 3 hours The central management server can check the security terminal for abnormalities and notify the supervisor of the degree of danger.

As described above, embodiments of the present invention have been described with reference to the accompanying drawings, but the embodiments described above are exemplary in all respects and are not intended to be limiting. Those skilled in the art to which the present invention pertains as described above may understand that the present invention may be embodied in other specific forms without changing the technical spirit or essential features of the present invention. Therefore, the above-described embodiments are to be understood as illustrative in all respects and not restrictive.

The scope of the invention is indicated by the following claims rather than the above description, and all changes or modifications derived from the meaning and scope of the claims and their equivalents should be construed as being included in the scope of the invention. do.

The present invention relates to a security monitoring system having a collateral terminal for monitoring the state of the collateral at low power, and a method thereof, the event being a change indication generated in the collateral terminal due to the provision of the collateral terminal and the central management server installed on the collateral. By checking the risk and the degree of risk from time to time, it is possible to check the change of collateral immediately without a visit. Especially, it can be useful in the related field as it can provide the effect of extending the maintenance period of the battery in the long term by implementing the security terminal at low power. Could be.

Claims

In the security monitoring system,

A collateral provided by the debtor as collateral to the creditor at the time of the security loan;

Each event information is managed by detecting at least one change indication of movement, vibration, location, power usage, and heat of the collateral, and the event information includes an initial occurrence value of the change indication and a time elapsed after the first occurrence value. Detect the change by the occurrence value according to

It is set after detecting the living vibration on the collateral for a certain period of time. In the case of the living vibration that does not maintain a certain duration, it only records the log data, but does not use the communication module to prevent power consumption due to communication. The vibration sensor module and the gyro The living vibration setting module 610 for setting the variation range of vibration and angular velocity by daily life for the sensor module, respectively.

Log data storage module 620 and

Detection period setting module 630 and

Sleep period setting module 640 and

A collateral terminal 120 further comprising a duration setting module 650 for setting how long the detection of the vibration of the living body should last to generate an event;

When the security terminal detects any one or more information of the movement, power use, heat generation, and vibration generation of the collateral among the event information provided through wired and wireless communication networks, the event information after the initial occurrence value is determined. A central management server 140 for managing a case where the number of changes is further detected and managing a degree of risk for the collateral as a change occurrence value;

A monitor terminal (150) for checking a change situation of the collateral according to a degree of risk of event information sent from the central management server through the wired or wireless communication network;

The collateral terminal is designed with low power,

The battery terminal is provided with a battery module for receiving standby power when the power supply of the security terminal, the battery module further includes an LED check module to check the remaining amount information checked by the LED check module through the central management server To send to

Security period monitoring system having a low-power security terminal, characterized in that the notification period setting module (660) for transmitting abnormality data periodically to the central management server.