KR20140127394A - Electric fires prediction system capable of breaking standby power - Google Patents

Abstract

Electric fire prediction system is disclosed. In the present invention, an electronic device connected to a plurality of ports detects load power consumed at the initial stage of power supply and stores the load power as a reference standby power. If the power applied through the plurality of ports is less than the reference standby power, The power supply is shut off, the voltage and current applied to the plurality of ports, the temperature of the electric wires connected to the plurality of ports, and the occurrence of arcs and sparks are detected to interrupt the power supply to the corresponding port, Receiving at least one auxiliary device and status data on the status of at least one auxiliary device and measurement data of voltage and current, temperature of the electric wire, and arc and spark occurrence from at least one auxiliary device, And at least one auxiliary device abnormally generates a warning If it is determined, by sending an alert signal to stop it comprises a main device for at least one auxiliary device to stop the alert.

Description

ELECTRIC FIRES PREDICTION SYSTEM CAPABLE OF BREAKING STANDBY POWER FIELD OF THE INVENTION [0001]

The present invention relates to an electric fire prediction system, and more particularly, to an electric fire prediction system capable of automatically detecting and detecting an arc, a spark, an overload, a short circuit, The present invention relates to an electric fire prediction system including a standby power interruption function so as to prevent a fire from being detected before a fire occurs due to a predictive alarm through output or the like.

Electric fires are a total of 35% of movable electric heaters, 27% of electric wires and telephone wires, 14% of electric appliances and 9% of electric appliances. , 5% of wiring equipment, 5% of fixed electric heaters, and the occurrence rate of spark 24%, leakage 15%, contact 12%, insulation 11% and overcurrent 8% It is becoming a cause.

Looking at the electrical facilities of rural households and housing complexes, it is close to half of the pensioners / householders who have been left in the condition of aged electrical equipment for more than 10 years. Most of them use flammable building materials (vinyl, insulating cover, urethane, etc.) due to deterioration of housing facilities. In the case of poultry houses, the heat cover and winch type houses account for 68% have. There is also a lack of awareness of the manager's fire hazard. Overload and short-circuit exposure due to unreasonable expansion of electrical facilities that do not take account of electrical capacity are another major problem of electric fires. Excessive electricity usage due to the installation of equipment (hot air fan, warming lamp, ventilator) in the existing electric facility causes fire due to overload, and fire occurs due to overload caused by the artificial connection of the electric outlet.

Currently, electric fire detection systems are making a lot of progress. The purpose of the installation of the electric fire detection system is to detect and warn fire automatically, and to respond early to prevent the occurrence of electric fire. In case of a fire, not only the direct primary damage by the loss but also the secondary damage by the waterproofing in the fire suppression and the strength of the building by the flame cause very great property damage and sometimes it may take away valuable person. Predictive discovery is important to alleviate fire damage.

On the other hand, devices such as a multi-outlet which can interrupt the power supply have been actively studied for a method of blocking the standby power. Standby power is one of the main causes of power shortage due to the power that the electronic device consumes so that the user can sense the input even though the user does not use the electronic device. However, the existing electric fire detection system did not consider standby power as a subject of detection or interception. This is because it is not easy to cut off the electricity arbitrarily because electric fire monitoring system supplies electric power to a large number of electronic devices in contrast to a multi-outlet for controlling some electronic devices. In addition to the conventional electric fire detection system, even a multi-outlet that can block the standby power requires direct manipulation of the user in order to supply the interrupted power again. Especially, unlike the multi-outlet which is placed around the electronic equipment used by the user, the electric fire detection system is often arranged according to the structure of the building irrespective of the position of the electronic device. There is no case in which a shutdown function for standby power is added in addition to the power cutoff. Therefore, in order to cut off standby power, each of a plurality of electronic devices must be connected to a multi-outlet having a standby power cutoff function. In this case, in order to re-supply the cut-off power, Thereby causing inconvenience to the user.

An object of the present invention is to automatically predict and detect an arc, a spark, an overload, a short circuit, and a heat generated on an electric wire line and to detect and alarm the manager through SMS, ARS, bell or siren, The present invention provides an electric fire prediction system capable of reducing power consumption by blocking standby power as well as preventing a fire from being detected before a fire occurs.

According to an aspect of the present invention, there is provided an electric fire prediction system, comprising: an electronic device connected to a plurality of ports for detecting load power consumed at the initial stage of power supply and storing the detected load power as a reference standby power; The power supply to the corresponding port is interrupted and the voltage and current applied to the plurality of ports and the temperature of the electric wire connected to the plurality of ports and whether arc and spark are generated are detected At least one auxiliary device for interrupting power supply to the corresponding port and generating a warning; And at least one auxiliary device for receiving the measurement data of the voltage and current, the temperature of the wire, the arc and spark occurrence and the status data of the status of the at least one auxiliary device, And if the at least one auxiliary device determines that the at least one auxiliary device has abnormally generated a warning, the main device transmits a warning stop signal to cause the at least one auxiliary device to stop generating the alert.

Wherein the at least one auxiliary device comprises: a relay unit provided corresponding to each of the plurality of ports and having a plurality of relays for supplying or blocking power to the corresponding plurality of ports; A sensor unit for outputting a sensing value including a voltage current sensing sensor, an arc and spat sensing sensor, and a wire temperature sensing sensor; A memory unit receiving and storing the sensing value from the sensor unit and storing load power initially consumed by the electronic device connected to the plurality of ports as a reference standby power; Wherein the sensing unit analyzes the sensing value stored in the memory unit and controls the plurality of relays by controlling the plurality of relays if a power failure, an overcurrent, a rise in a wire temperature transient, an arc and a spark or a power applied through the plurality of ports is equal to or less than the reference standby power And the power supply is interrupted when the load resistance value of the electronic device connected to the port to which the power supply is interrupted is equal to or greater than a predetermined reference load resistance value, An auxiliary control unit for controlling the relay; An alarm output unit for generating an alarm according to the control of the auxiliary control unit; And an auxiliary communication unit for transmitting the sensing value stored in the memory unit to the main unit as the measurement data and receiving status data of the auxiliary unit from the auxiliary control unit and transmitting the status data to the main unit.

The at least one auxiliary device transmits an alert message to the user terminal of the user when the alert is generated through the auxiliary communication unit.

The at least one auxiliary device may further include an auxiliary power source for measuring a load resistance value of the electronic device connected to the port to which the power supply is interrupted.

Wherein the main device comprises: a main communication unit for performing communication with the at least one auxiliary device; A data storage unit for storing the measurement data and the status data received from the at least one auxiliary device; A data discrimination unit for analyzing the measurement data and for determining the possibility of fire from the analyzed measurement data; A warning dispenser for outputting a warning to sound or image; And a control unit which manages a communication connection between the main communication unit and the auxiliary device and verifies the discrimination result of the data discrimination unit by analyzing the status data when the data discrimination unit discriminates that a fire can occur, And a main control unit for outputting a warning through the transmission unit or transmitting the warning stop signal to the auxiliary device through the main communication unit.

The main device transmits the warning message and the warning stop signal generation message to the user terminal of the system manager of the electric fire prediction system when the main device outputs the warning or transmits the warning stop signal .

Therefore, the electric fire prediction system of the present invention can prevent fire by detecting the occurrence of arc and spark on the entire electric line in the workplace, and informs the occurrence of fire due to electricity through a notification function, And can reduce power consumption by automatically shutting down and restoring standby power. It can also contribute to the spread of electric fire prediction systems due to the reduction of manufacturing costs.

1 shows a configuration of a power saving intelligent multi-receptacle according to an embodiment of the present invention.
2 shows a configuration of an electric fire prediction system according to an embodiment of the present invention.
FIG. 3 shows an outline of an electric fire prediction system according to an embodiment of the present invention.
4 shows a configuration of a standby power interruption circuit of the electric fire prediction system of FIG.

In order to fully understand the present invention, operational advantages of the present invention, and objects achieved by the practice of the present invention, reference should be made to the accompanying drawings and the accompanying drawings which illustrate preferred embodiments of the present invention.

Hereinafter, the present invention will be described in detail with reference to the preferred embodiments of the present invention with reference to the accompanying drawings. However, the present invention can be implemented in various different forms, and is not limited to the embodiments described. In order to clearly describe the present invention, parts that are not related to the description are omitted, and the same reference numerals in the drawings denote the same members.

Throughout the specification, when an element is referred to as " including " an element, it does not exclude other elements unless specifically stated to the contrary. The terms "part", "unit", "module", "block", and the like described in the specification mean units for processing at least one function or operation, And a combination of software.

1 shows an electrical fire prediction system according to an embodiment of the present invention.

Referring to FIG. 1, the electric fire prediction system of the present invention includes a main device 100 and at least one auxiliary device 200.

The main device 100 includes a main communication unit 110, a data storage unit 120, a data determination unit 130, a main control unit 140, a display unit 150, and a warning transmission unit 160.

The main communication unit 110 performs wired or wireless communication with at least one auxiliary device 200. The main communication unit 110 is connected to at least one auxiliary device 200 via a wired communication network such as RS232 or through a wireless communication network such as WIFI or Bluetooth to receive measurement data from at least one auxiliary device 200 do. In addition, the main communication unit 110 can receive the status data of the auxiliary device 200 from the auxiliary device 200. [

The data storage unit 120 receives measurement data and status data through the main communication unit 110 and stores the measurement data and the status data. The data storage unit 120 may store and store the transmitted measurement data and status data received from each of the at least one auxiliary device 200.

The data discrimination unit 120 analyzes the measurement data and judges the possibility of occurrence of fire from the analyzed measurement data. That is, the possibility of fire occurrence, and outputs a warning signal. At least one reference value may be preset and stored in the data discrimination unit 120 in order to determine the possibility of a fire from measurement data. The data discrimination unit 120 compares measurement data with at least one reference value, Can be determined.

The main control unit 140 manages the communication connection with the auxiliary device 200 of the communication unit 110 and outputs the measurement data stored in the data storage unit 120 through the display unit 150 or the data determination unit 120, A warning screen is displayed on the display unit 150 and the alarm sending unit 160 is controlled to send an alarm.

The main control unit 140 can also analyze the status data and the measurement data received from the auxiliary device 200 to determine whether the fire possibility determined by the data determination unit 120 is correct or erroneous information, An alarm stop signal is transmitted through the main communication unit 110 to stop the generation of the alarm by the auxiliary device 200 and the abnormal state of the auxiliary device 200 is reported to the user terminal of the manager.

The warning transmitting unit 160 outputs a warning as a sound signal under the control of the main control unit 140 or transmits a warning signal through a wired or wireless communication to a user terminal (not shown) of the system manager.

The main device 100 receives, stores, and analyzes measurement data transmitted from at least one auxiliary device 200, determines whether the measurement data is abnormal, and outputs a warning screen and an alarm. In addition, when the auxiliary device 200 generates an unnecessary alarm from the measurement data, it stops the occurrence of the alarm of the auxiliary device 200 and causes the user terminal of the manager to change the abnormal state . Accordingly, the manager can immediately notify the auxiliary device 200 of the abnormality, and can repair the auxiliary device 200.

This can solve the problem that the existing electric fire prediction system is difficult to repair quickly, and solve the problem of reducing user's reliability by frequent operation in the non-fire situation.

The auxiliary device 200 includes a sensor unit 210, a memory unit 220, an auxiliary control unit 230, a warning output unit 240, an interface unit 250, an auxiliary communication unit 260, a relay unit 270, A protection unit 280 and a blocking unit 290.

The sensor unit 210 outputs a plurality of sensed values including a voltage current sensor, an arc and spark sensor, and a wire temperature sensor. Also, in the present invention, the sensor unit 210 includes a load sensing sensor to sense the size of the load.

The memory unit 220 receives and stores a plurality of sensing values from the sensor unit 210. In particular, the memory unit 220 stores the initial load power as a reference standby power when power is supplied to each of a plurality of ports (not shown). The reference standby power can be separately stored for each of a plurality of ports.

The auxiliary control unit 230 is provided for controlling the auxiliary device 200 and analyzes the sensing value output from the sensor unit 210 and stored in the memory unit 220 to detect an interruption or an overcurrent, And outputs a warning signal in accordance with the determination result to control the relay unit 270 to individually block power supply to each port.

Also, the auxiliary controller 230 calculates the load power from the current and the voltage sensed by the sensor unit 210, compares the calculated load power with the reference standby power, and cuts off the power applied to each of the plurality of ports (not shown) The corresponding relay of the power supply 270 can be turned off to interrupt the power supply. If the load resistance value is equal to or greater than the predetermined reference load resistance value at the port where the relay is turned off and the power supply is interrupted, the relay can be turned on again to supply electric power to the port where the power supply is interrupted.

The alarm output unit 240 generates an alarm for audible and visual recognition under the control of the auxiliary control unit 230. [ The generated warning is generated until the release command is issued by the administrator or the user, or until a warning stop signal is applied in the main device 100. [

In order to improve the reliability of the fire detection system, the auxiliary control unit 230 on the electric line is used for the arc and spark monitoring, the end load side The alarm output unit 240 is controlled to output a warning at the time of overcurrent monitoring, abnormal temperature monitoring beyond the allowable range, and tripping of the terminal load breaker.

The interface unit 250 includes input means for receiving a user command. In some cases, the display unit 150 may further include image output means for outputting an image. In addition, the interface unit 250 may be implemented as a touch panel or a touch screen in which the input means and the image output means are integrated.

The auxiliary communication unit 260 may transmit the sensing values stored in the memory unit to the main device 100 as measurement data under the control of the auxiliary control unit 230 and may transmit a warning message to the user terminal of the user.

The auxiliary communication unit 260 can also be controlled by a user's terminal by using functions such as Wi-Fi and Bluetooth. Also, if it is determined that there is a possibility of a fire even if the user is at any place, a warning can be issued to the user terminal of the user. And provides state data to the main device 100 via a wired communication function such as RS232 so that an administrator can accurately analyze and repair an abnormal operation of the electric fire prediction system.

The relay unit 230 includes a plurality of relays corresponding to each of the plurality of ports, and applies or cuts off power to each of the plurality of ports under the control of the sub control unit 230.

The surge protector 280 includes a surge protector and is connected to a surge protector 280. The surge protector 280 generates a surge such as a surge protector generated by a power line, a communication line, a signal line, And various electronic devices connected to the plurality of ports of the auxiliary device 200 and the auxiliary device 200 are protected.

The blocking unit includes a plurality of switches in the form of a switch capable of manually supplying or blocking power to each port, and further includes a circuit breaker (MCCB: Molded Case Circuit Breaker ). ≪ / RTI >

The user terminal may be implemented by various information communication devices such as a computer, a mobile phone, a PDA, and a notebook smart phone.

In FIG. 1, the main device 100 is a management system for managing at least one auxiliary device 200, and can detect the failure of at least one auxiliary device 200 on the electric fire prediction system and notify the manager immediately , The system manager can quickly repair the auxiliary device 200. [ Also, the main device 100 determines the occurrence of an abnormal warning of the auxiliary device 200 and stops the occurrence of the abnormal warning, thereby increasing the reliability of the electric fire prediction system.

Here, the main device 100 may be installed in a maintenance company of an electric fire prediction system or an emergency management company such as a fire department. The auxiliary device 200 may be installed in a position where electric fire must be prevented. In some cases, a plurality of auxiliary devices 200 may be installed in one building, and one main device 100 may be installed in a management room of the building.

Although the main device 100 is shown separately for managing at least one auxiliary device 200 in the above description, when the main device 100 manages only one auxiliary device, the main device 100 and the auxiliary device 100 ) Can be integrated into one device.

2 shows a configuration of an electric fire prediction system according to an embodiment of the present invention.

2, the electric fire prediction system of the present invention includes a Surge Protective Device (SPD), a Molded Case Circuit Breaker (MCCB), a controller, a plurality of breakers BR, a plurality of relays RL, And a plurality of ports PT.

The electrical fire prediction system of FIG. 2 shows the configuration of the assistance device 200 and shows the configuration that is exposed outside in actual implementation. Although only the auxiliary device 200 is shown in FIG. 2, the configuration that is externally exposed even when the main device 100 is included may be the same as that of FIG.

The surge protection device SPD, as described above, applies a surge, which is a surge voltage, to the grounding port EPT as the surge protection part 280. [

A plurality of breakers BR and a molded case circuit breaker (MCCB) are included in the breaker 290. The breaker MCCB cuts off the power applied to the auxiliary device 200, BR block the power applied to the corresponding pod PT.

A plurality of ports (PT) are connected to a specific location requiring electric power to supply electric power.

The plurality of relays RL cut off power applied to the corresponding pods PT under the control of the control unit.

The control unit may include the memory unit 220, the auxiliary control unit 230, the alarm output unit 240, and the auxiliary communication unit 250 of FIG. The control unit includes a memory unit 220, an auxiliary control unit 230, a warning output unit 240, and an auxiliary communication unit 250 in the form of hardware or software, such as a micro controller unit (MCU) Can be implemented.

FIG. 3 shows an outline of an electric fire prediction system according to an embodiment of the present invention.

As shown in FIG. 3, the electric fire prediction system of the present invention has a plurality of visual display means (LED) and an interface unit 25 corresponding to a plurality of ports on the outside and an interface unit 25 on the outside.

The plurality of visual display means (LEDs) display the normal or abnormal status of the electronic devices connected to the corresponding ports by using LEDs of different colors such as green and red. That is, the alarm output unit 240. Although not shown, a speaker or the like may be provided as an audible display means to generate a warning sound when an abnormality occurs.

The interface unit 250 displays the current state and each set value of the electric fire prediction system so that the user can confirm the state and each set value can be modified by the user.

Here, the setting value set by the user can set the operation time on a 24-hour basis for each port. That is, it is possible to individually set the time to supply the input power to the electronic device connected to each port, and to individually set whether or not to operate in a predetermined time unit.

The electric fire prediction system according to the present invention automatically predicts and detects arcs, sparks, overloads, short circuits, and heat generated on an electric wire line and detects it, and outputs it to an administrator through SMS, ARS, bell or siren, Forecast alarm. Therefore, the administrator should check the cause of the fire before the fire occurs so that it can be removed.

4 shows a configuration of a standby power interruption circuit of the electric fire prediction system of FIG.

The electric fire prediction system of the present invention measures the load power of an electric device connected to a plurality of ports (PT) and, when it is determined that the electric device is in a standby state based on the measured load electric power, The relay (RL) blocks.

4, the standby power interruption circuit includes a first detection unit 211, a memory unit 220, an auxiliary control unit 230, a relay unit 270, an auxiliary power source PW, and a second detection unit 212 do.

In this case, the input power source IN is a power source input to the electric fire prediction system. For example, if the electric fire prediction system uses a domestic commercial power source, an AC power source of 220 V may be input.

The first detection unit 211 includes a plurality of first detectors included in the sensor unit 210 of FIG. The plurality of first detectors are provided corresponding to the number of the plurality of ports (PT), and each detects the load power of the corresponding port. That is, the voltage and the current.

When power is supplied through the corresponding port, the memory unit 220 stores the load power at which the corresponding first detector of the first detection unit 211 is initially detected as the reference standby power. At this time, the memory unit 220 separately stores the load power detected by each of the plurality of first detectors. That is, the memory unit 220 stores the number of reference standby powers corresponding to the number of currently connected electronic apparatuses. Here, the initial detected load power means a load power measured for a predetermined initial time (for example, 0.2 second) after the power is supplied to the corresponding port, and in some cases, have.

Also, the memory unit 220 can store the individual maximum reference power and the integrated maximum reference power usable in the corresponding port.

The auxiliary controller 230 receives the load power of each of the electronic apparatuses detected by the plurality of first detectors of the first detector 211, If the load power detected by the first detector is less than or equal to the corresponding reference standby power for a preset time (for example, 1 to 10 seconds), the relay blocking signal is transmitted to the relay unit 270 To the corresponding relays among the plurality of relays RL. That is, if it is determined that the load power detected by the first detector is equal to or less than the reference standby power stored in the memory unit 220, the auxiliary controller 230 determines that the connected electronic device is in the standby state. Therefore, it is possible to determine that the power consumed by the electronic apparatus is the standby power, so that the power supplied to the electronic apparatus can be cut off by transmitting the relay cutoff signal to the corresponding relay.

If the individual maximum reference power and the integrated maximum reference power are stored in the memory 220, the auxiliary controller 230 determines whether each of the load powers detected by the plurality of first detectors exceeds the individual maximum reference power, Even when the load power exceeds the individual maximum reference power, the power supply to the electronic device can be cut off by transmitting the relay cutoff signal to the corresponding relay. That is, the overcurrent and the overvoltage are prevented from being applied. If the total sum of the load powers detected by the plurality of first detectors exceeds the integrated maximum reference power, and if the sum of the load powers exceeds the integrated maximum reference power, at least one of the plurality of relays outputs the relay cut- So that the power supplied to the electronic device can be cut off. That is, it is possible to prevent an electric fire from occurring due to occurrence of an overcurrent, a short circuit, a spark, a short circuit, and the like.

Then, the auxiliary controller 230 transmits the load detection signal periodically (for example, 1 second) to the second detector corresponding to the relay to which the relay shutoff signal has been transmitted.

The relay unit 50 includes a plurality of relays RL and each of the plurality of relays RL responds to a relay shutoff signal applied from the auxiliary control unit 230 to an input power Thereby blocking the application to the corresponding electronic device LD.

The plurality of relays RL are connected in response to a reset signal output from a corresponding one of the plurality of second detectors so that the input power can be applied to the corresponding electronic device LD.

That is, each of the plurality of relays RL blocks the input power applied to the electronic device in response to the relay cutoff signal, and applies the input power cut off in response to the reset signal to the electronic device.

The second detection unit 212 is provided in the sensor unit 210 of FIG. 1 as well as the first detection unit 211 and includes a plurality of second detectors. Each of the plurality of second detectors 212 transmits And when the measured load resistance value is equal to or greater than a predetermined reference load resistance value, the reset signal is outputted to the corresponding relay (RL) To the electronic device.

Here, the reference load resistance value may be stored in each of the plurality of second detectors, or may be stored in the memory unit 220. In the above description, the second detector stores the reference load resistance value having a fixed resistance value. However, the reference load resistance value may also be calculated by the auxiliary controller 230 using the load power detected by the first detector, 220). In the present invention, the auxiliary controller 230 determines whether the electronic device is in the standby state or in the operating state, and the first detector measures the load power of the electronic device, The load resistance value can be calculated. Therefore, when the auxiliary controller 230 calculates the load resistance in the operating state of the electronic apparatus and stores the load resistance in the memory unit 220 as the reference load resistance, the reference load resistance variable that varies depending on the type and state of the connected electronic device .

Each of the plurality of second detectors may further include a switch for outputting a reset signal and at the same time for interrupting an electrical connection with the electronic device and then electrically connecting the electronic device when the corresponding relay is shut off again have. That is, each of the plurality of second detectors is electrically connected to the electronic device when the corresponding relay is turned on, and is electrically connected to the electronic device when the corresponding relay is turned off. This is because the second detector performs the operation only while the input power is not applied to the electronic device.

The auxiliary power source PW is a power source used by the plurality of second detectors of the second detection unit 212 to sense the load resistance value of the electronic device. In the present invention, the second detector measures the load resistance value of the electronic device in a state in which the relay is shut off, i.e., the input power source IN is not supplied to the electronic device. Therefore, in order to measure the load resistance value of the electronic device, a separate power source to be supplied to the electronic device is required. Since it is a power source for simply measuring the magnitude of the load resistance value, applying a high voltage power source is a waste of power because it generates unnecessary power consumption. Therefore, in the present invention, the electric fire prediction system includes an auxiliary power source PW having a voltage level (for example, 5V) lower than the input power source IN so that the second detector can measure the magnitude of the load resistance of the electronic device. do. The auxiliary power source PW may be implemented as a battery or may be implemented as a transformer that receives the input power source IN to lower the voltage level.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is evident that many alternatives, modifications and variations will be apparent to those skilled in the art.

Accordingly, the true scope of the present invention should be determined by the technical idea of the appended claims.

Claims (6)

When the power applied through the plurality of ports is equal to or less than the reference standby power, power consumption of the corresponding port is detected by the electronic device connected to the plurality of ports, And detects a temperature and arc and spark occurrence of a voltage and a current applied to the plurality of ports and a wire connected to the plurality of ports to interrupt power supply to the corresponding port, One auxiliary device; And
Receiving at least one auxiliary device from the at least one auxiliary device measurement data on the voltage and current, temperature of the electric wire, arcing and spark occurrence and status data of the at least one auxiliary device, And a main device for determining whether the at least one auxiliary device has abnormally generated an alarm, and for sending a warning stop signal to cause the at least one auxiliary device to stop generating the alarm, .
The apparatus of claim 1, wherein the at least one auxiliary device
A relay unit provided corresponding to each of the plurality of ports and having a plurality of relays that supply or block power to the corresponding plurality of ports;
A sensor unit for outputting a sensing value including a voltage current sensing sensor, an arc and spat sensing sensor, and a wire temperature sensing sensor;
A memory unit receiving and storing the sensing value from the sensor unit and storing load power initially consumed by the electronic device connected to the plurality of ports as a reference standby power;
Wherein the sensing unit analyzes the sensing value stored in the memory unit and controls the plurality of relays by controlling the plurality of relays if a power failure, an overcurrent, a rise in a wire temperature transient, an arc and a spark or a power applied through the plurality of ports is equal to or less than the reference standby power And the power supply is interrupted when the load resistance value of the electronic device connected to the port to which the power supply is interrupted is equal to or greater than a predetermined reference load resistance value, An auxiliary control unit for controlling the relay;
An alarm output unit for generating an alarm according to the control of the auxiliary control unit; And
And an auxiliary communication unit for transmitting the sensing value stored in the memory unit to the main unit as the measurement data and receiving the status data of the auxiliary unit from the auxiliary control unit and transmitting the received status data to the main unit. Prediction system.
3. The apparatus of claim 2, wherein the at least one auxiliary device
And transmits an alarm generation message to the user terminal of the user when the warning is generated through the auxiliary communication unit. 3. The apparatus of claim 2, wherein the at least one auxiliary device
And an auxiliary power source for measuring a load resistance value of the electronic device connected to the port where the power supply is interrupted.
4. The apparatus of claim 3, wherein the main device
A main communication unit for performing communication with the at least one auxiliary device;
A data storage unit for storing the measurement data and the status data received from the at least one auxiliary device;
A data discrimination unit for analyzing the measurement data and for determining the possibility of fire from the analyzed measurement data;
A warning dispenser for outputting a warning to sound or image; And
Wherein the control unit manages a communication connection between the main communication unit and the auxiliary device and verifies the discrimination result of the data discrimination unit by analyzing the status data when the data discrimination unit discriminates that a fire can occur, And a main control unit for outputting a warning through the auxiliary communication unit or transmitting the warning stop signal to the auxiliary device through the main communication unit.
The apparatus as claimed in claim 5, wherein the main device
Wherein the warning message is transmitted to the user terminal of the system manager of the electric fire prediction system when the warning is output or when the alarm stop signal is transmitted, .

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