KR100695759B1 - The simulated mine system and its control method using RFID and RF module - Google Patents

Abstract

A simulated mine system and a control method thereof using an RFID and an RF module are provided to enable a simulated mine to detect whether a soldier to be trained wears an RFID tag and an RF receiver and to simulate killing effect of a mine similarly to the actual mine. A simulated mine system using an RFID and an RF module includes an electronic anti-personal simulated mine(100) having a mechanical firing device with a pressure cone and a trip wire ring; an electronic anti-tank simulated mine(200) having a mechanical firing device with a pressure plate to detect predetermined or greater weight, an RFID reader, and an RF transceiver; a personal detector(300) worn by a soldier to detect a personal damaged situation in association with the anti-personal mine and a master sensor(500) and to transmit a detected signal via an RF line; a device detector(400) installed in a vehicle to detect a damaged situation of a device and to transmit a detected signal via the RF line; the master sensor controlled to operate the anti-personal mine and the ant-tank mine; an RF repeater station(600) to receive and transmit the RF signal; a DCNC(700) to control a communication network and a data communication network; a GIS system(750); a controller gun(800) for switching modes of the mines; and a simulated mine detector(900).

Description

The simulated mine system and its control method using RFID and RF module

1 is a conceptual diagram showing an engagement system using a simulated land mine according to the present invention,

2 is a block diagram showing a mother-in-law mine according to the present invention,

3 is a block diagram showing an anti-tank mine in accordance with the present invention,

4 is a block diagram showing a personal sensor according to the present invention,

Figure 5 is a block diagram showing a detector for equipment according to the present invention,

6 is a block diagram showing a master sensor according to the present invention;

7 is a block diagram showing a control tube pistol according to the present invention,

8 is a block diagram showing a simulated mine detector according to the present invention,

9 is a simulated mine system system operation procedure according to the present invention,

10 is a control flowchart of a DPCU according to the present invention;

11 is an exemplary view of the damage model for each simulated mine type according to the present invention.

<Description of Symbols for Main Parts of Drawings>

100: Mine Mine 110: Body

120: ignition device 121: pressure cone

122: Mock Primer 130: Takeover Iron Hook

140: primary RFID reader 150: management RFID tag

160: RF transceiver 200: anti-tank mock mine

210: body 220: pressure plate

230: Primary RFID reader 240: Management RFID tag

250: RF transceiver 300: personal sensor

310: bulletproof hair detector 320: upper body detector

330: arm detector 340: leg detector

350: ankle detector 321: detection terminal

321a: Primary RFID Tag 321b: IR Sensor

322: damage indicator 323: speaker

324: DPCU 325: trainer unit (PU)

326: RF receiver 327: RFID tag for motion detection

400: detector for equipment 410: detector belt

411: Initial RFID Tag 412: Movement Detection RFID Tag

413: RF transceiver 414: cable connector

420: connecting cable 421: connecting cable connector

430: DPCU / PU 440: damage indicator

500: master sensor 510: body

520: RF beacon emitter 530: IR sensor

540: RFID reader for motion detection 550: reader antenna

560: ROM 570: processor

580: power supply 600: radio repeater

700: communication network / DCNC 750: GIS system

800: Control Pistol 810: Body

820: function switch button 830: trigger

840 IR Launcher 900: Mine Mine Detector

910: management RFID reader 920: support

930: controller 940: speaker

950: control module 960: LCD display window

970: function conversion button 980: control unit

990: Handle 995: Selling Government

The present invention adds a new radio frequency identification (RFID) tag and reader, a radio frequency (RF) module, a microprocessor, and a program for controlling the same to personal and equipment detectors for simulated mines and engagement training. Simulated mines that can depict combat effects, such as combat, such as simulated damage effects similar to system characteristics, simulated mine detectors for detecting or recovering them, controller pistols for establishing functions, communication networks and GIS ( The present invention relates to an engagement training system and a control method using a geographical information system.

Multiple Integrated Laser Engagement System (MILES) equipment, which is currently being used for training, is a simulation equipment consisting of a personal detector, a laser launcher, and a controller.The detector attached to the target detects the laser shot from the laser launcher. After evaluating the damage considering the type of launcher and the target, it is designed and used to display the damage on the external display device.

However, due to the characteristics of the laser light, the simulation training equipment is applicable only to some weapon systems such as personal weapons, machine guns, tanks, antitank firearms, anti-aircraft weapons, cremos, etc., and it is not applicable to howitzers or mines. The laser launcher used in the current system is limited in describing the effects of landmines.

In particular, in the damage treatment of minefields, when a unit participating in the training establishes a mine laying plan and burys a simulated mine, the observation controller inputs the coordinates of the simulated minefield observed on the portable terminal. At this time, the coordinate information of the simulated minefield is stored in the data server for the GIS system in the training control center through the wired / wireless communication network and the DCNC (Data Communication Network Controller) from the portable terminal. The GIS system displays the cyber minefield graphically on the screen by using the coordinate information stored in the data server.

Afterwards, when a trainee reaches an area corresponding to a virtual cyber minefield while moving, it is measured by a GPS (Global Positioning System) worn by the trainee and stored at regular intervals (eg, 30 seconds) through a wired or wireless communication network. The location information is used to determine whether to enter the cyber minefield. If it is determined to enter the zone, the data server evaluates the damage based on the type of trainer and the type of land mines buried, and the damage is transmitted to the detector worn by the trainer through wired and wireless networks. The damage indicator in the detector then displays the damage results through some form of sound or flash. In addition, the received damage result is reported back to the data server in the training control center through the communication network.

On the other hand, when the trainer pioneers the passage using the mine detector in the zone where the simulated mine is buried, the observation controller inputs the passage coordinates pioneered in the portable terminal. The passage coordinates are stored in the data server in the training control center through wired / wireless communication network, and the GIS system uses the passage coordinates to graphically display existing cyber minefields and pioneered passages on the screen. If the trainer moves on the pioneered path coordinates, he will not be harmed.

However, the conventional minefield technology uses the difference between the minefield where the simulated minefield is installed and the cyber minefield on the data server due to the error in the coordinates of the minefield measured by the observer's naked eye, and the GPS error (for example, 2 to 50m). There is a limit to the simulation of actual battle, which is different from the actual one in judging whether to enter the minefield or passage due to the location information cycle of the trainee (eg, 30 seconds), and the simulation time that takes minutes.

The present invention is to solve the above problems, in particular applied to the direct weapons and equipment in the Miles (MILES) training system using a laser beam in limiting the expression of the minefield, first action, damage range, etc. For the mines simulated by cyber mines, the simulated mines with RFID readers and RF transmitters identify trainees with RFID tags and RF receivers through the RFID simulated mines. The purpose of the present invention is to provide an engagement training system and control method using simulated mines that can depict combats such as battles.

The present invention proposes a conventional method using a pressure horn and a ferry wire and an RFID method to describe the initial ignition of landmines. Signal transmission technology between components uses a combination of RFID transmission and reception technology and RF technology. Signals are classified into signals generated when contacting a pressure horn or a ferry wire, RFID detection signals, and RF signals, and present encoding and decoding techniques thereof. Damage assessment descriptions are handled using random numbers, relative damage rates between targets and mines. The description of the damage effect is based on the character or symbol method using the LCD display window, the alarm sound generation through the speaker, the explosion and smoke generation method using the primer, the position detection technology through the RFID signal detection, dormancy, preparation, management, and recovery modes. Can reduce operating power, improve operational status, and improve the convenience of recovery.

Engagement training control method using the simulated mines of the present invention for achieving the above object is a) the master sensor periodically radiates beacons (beacon) when personnel or equipment moves within a certain distance in the state of installation of interpersonal / anti-tank mines Detecting a signal transmitted from the RFID tag for detecting the movement of personnel and equipment for detecting the personnel and equipment to identify the movement of the personnel or equipment and sending a wake-up signal to the anti-person land mines or anti-tank vehicle mines; b) Interpersonal / anti-tank mock mines that receive a start signal are converted to the ready state and information about the types of personal or anti-tank mines, etc., upon detection of the signal of the primary RFID tag attached to the moving personnel or equipment within the detection range of the mock mines. Transmitting the sensor to a personal sensor or a device sensor; c) The signal of the radio wave type is converted into an electrical signal in the detection of personal or equipment, and the damage caused by mine type and personnel or equipment is evaluated as warrior, serious injury, minor injury, complete wave, maneuver destruction, communication destruction, etc. Depicting differently; d) In step c), the DCN, which is a communication network configured with wired or wireless communication of damage information including damage, location, and time information according to the size and environment of the radio relay station 600 and the minefield. Transmitting to a data server in the training control center via; And d) storing the damage information received by the data server in a database and displaying the engagement situation including the damage of the region, time, personnel, and equipment on the GIS system in real time. And the like.

Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings.

1 is a conceptual diagram showing an engagement training system using an RFID simulation mine according to the present invention.

Referring to the drawings, the training training (virtual combat) system using the RFID simulated mines of the present invention is a simulated mine 100, anti-tank mine 200, personal detector 300, equipment detector 400, master sensor 500, a radio relay station 600, a DCNC 700, a GIS system 750, a control officer pistol 800 and a simulated mine detector 900.

The interpersonal mines 100 are composed of a mechanical ignition device consisting of a pressure horn 121 and a ring-over wire ring 130, and an electronic ignition device consisting of an initial RFID reader 140 and an RF transceiver 160.

The anti-tank simulation mine 200 is composed of a mechanical ignition device consisting of a pressure plate 220 for sensing a predetermined weight or more, and an electronic ignition device consisting of an RFID reader 230 and an RF transceiver 160.

The personal sensor 300 is worn by the personnel, but detects the damage situation of the individual in connection with the interpersonal land mine 100 and the master sensor 500, the detected signal wirelessly through the training unit 325 It transmits to the wireless relay station 600.

The equipment detector 400 is installed in equipment such as a vehicle and a tank, and detects a damage situation of the vehicle equipment in connection with the anti-tank simulation mine 200 and the master sensor 500, and detects the detected signal using the training unit. It transmits to the wireless relay station 600 wirelessly through the (325).

The master sensor 500 transmits and controls a radio signal to operate an interpersonal / anti-tank mock mine when the personnel and equipment are within a predetermined distance.

The wireless relay station 600 transmits the radio signal of the trainer unit 325 for transmitting the engagement information transmitted to the personal sensor 100 and the equipment sensor 200 and the location information transmitted from its own GPS to a wired communication network. Or, the management and control information is wirelessly transmitted to the training unit through the communication network from the GIS system of the training control center and relayed.

The DCNC 700 is connected to the wireless relay station 600 by wire or wireless to control the wired / wireless communication network.

The GIS system 750 stores engagement information in a database of a data server in real time based on a signal transmitted from the personal sensor and the device sensor via the communication network and the DCNC 700, and displays the engagement information and location information on the screen. Graphical or textual display or engagement information or management information is collectively or individually transmitted to the simulated mines through the communication network, DCNC 700, and wireless relay station 600 for control.

The control pistol 800 detects the operation state of the master sensor 500, and controls the master sensor to switch the mode of the person 100 / anti-tank 200 simulated mines.

The mock mine detector 900 detects the signal of the management RFID tag provided in the mock mine 100 / anti-tank 200 and checks the position of the mine to recover the mine.

Figure 2 is a block diagram showing an interpersonal mines mine 100 in accordance with the present invention. Referring to the drawings, a large-scale human mine land mine denoted by the reference numeral 100 is provided with an ignition device 120 having a pressure horn 121 on the upper surface of the cylindrical body 110, and is turned over to the side of the ignition device 120. The iron wire ring 130 is provided. In addition, the inside of the body 110 through the primary RFID reader 140 for detection, the management tag 150 for recovery and the primary RFID reader 140 for detection when the trainer approaches the mock mine working distance. RF transceiver 160 for transmitting the read information wirelessly.

The initial ignition action of the interpersonal mine land mine 100 configured as described above is a mechanical method for transmitting the power of the trainer to the pressure horn 121 and the turn over wire ring 130 of the ignition device 120 in the same manner as in the actual land mine. The primary method uses an electronic method of detecting an initial fire by detecting a trainee approaching the RFID reader 140 and comparing the types of simulated mines. After determining whether the initial ignition is performed through the mechanical or electronic method, the mock mine type information is wirelessly transmitted to the RF receiver 326 of the personal sensor 300 through the RF transceiver 160.

Figure 3 is a block diagram showing an anti-tank mine in accordance with the present invention. Referring to the drawings, the anti-tank simulated mines, all of which are designated by the reference numeral 200, have a body 210 of a cylindrical body, and include a pressure plate 220 on the upper surface of the body 210 to describe the function of the initial firing action of the mine. The inside of the body 210 includes a built-in RFID reader 230, a management RFID tag 240, and an RF transceiver 250 for landmine simulation.

The anti-tank simulated mine 200 depicts an initial ignition by sensing pressure when the pressure plate 220 exceeds a predetermined weight, or for personnel detectors 300 or equipment through a primary RFID reader 230. Detects the initial ignition based on the trainer type information obtained by detecting the RFID tag for the first time attached to the detector 400, and if it is determined that the ignition is fired, it is the personnel detector or equipment detector that detects the mock mine type information within the damage. It transmits to the RF transceiver (160) (250). After that, in the personnel or equipment detector, the damage result is determined by applying the target trainer information and the damage rate table (FIG. 11) according to the simulated mine type.

The interpersonal land mine 100 or anti-tank land mine 200 are operated in three modes of sleep, ready, and management, respectively, to minimize battery usage. By doing so, it is possible to prevent some or all of the functions from being stopped by battery discharge during training.

4 is a block diagram showing a personal sensor 300 according to the present invention. Referring to the drawings, the personal sensor 300 denotes the entire body includes a bullet-proof hair detector 310, upper body detector 320, arm detector 330, leg detector 340, ankle detector 350, the actual simulation In the case of training, the individual wears the personal sensor 300 described above and judges the damage result based on the information received from the mock mine, and the GIS system 750 in the training control center through the training unit 325, 430. To be sent).

The personal sensor 300 has a detailed configuration of the detector terminal 321, the damage indicator 322 consisting of a primary RFID tag 321a which is operated for simulating landmines and an IR sensor 321b for simulating conventional laser engagement. Damage indicator speaker 323, DPCU 324, trainer unit 325, RF receiver 326, including a movement detection RFID tag 327 for operating the master sensor to detect the movement of the equipment, respectively The detectors are electrically connected to the DPCU 324, and the DPCU 324 controls and displays the damage indicator 322 and the speaker 223.

Here, a first terminal RFID tag 321a and an IR sensor 321b are built into the detection terminals of the bulletproof hair sensor and the upper body sensor manufactured to be worn on each part of the body, and the first terminal is detected on the detection terminals of the arm, leg, and ankle detector. Only RFID tags are embedded. The primary RFID tag records the type information of the personnel or equipment and transmits the recorded information when receiving the radio wave from the primary RFID reader.

The data processing control unit (DPCU) is a processor for evaluating damage according to landmine type information received from a mock mine, describing a related effect, and reporting the damage, and a trainer unit communicates with the radio relay station 600 to report the damage. It is a wireless terminal that acquires location information through radio communication and its own global positioning system (GPS), and centrally simulated results and control information in the GIS system 750.

As a principle of operation, the primary RFID tag 321a is detected by the mock mine 100 and 200, and the IR sensor 321b is intended to describe the direct fire machine through the existing IR (Infrared). Here, the simulated mines transmit their mine types through the RF transceivers 160 and 250 to inflict damage, and are received by the RF receivers 326 and 413 provided in the detector for personal 300 or equipment 400. Forward to DPCU 324. At this time, the DPCU 324 processes the received information and displays the damage result through the damage indicator 322 and the speaker 323. At this time, the trainer unit 325 transmits the damage result to the radio relay station 600.

Figure 5 is a block diagram showing a sensor for equipment according to the present invention. Referring to the drawings, the detector 400 of the present invention is a detector belt 410, a primary RFID tag 411 that works with the simulated landmines to simulate landmines, and works with the master sensor to detect the movement of the equipment Movement detection RFID tag 412, RF receiver 413, cable connector 414, connection cable 420, connection cable connector 421, DPCU / PU 430 and the damage indicator 440 . The DPCU / PU 430 attached to the equipment detector performs a function similar to that of the personal sensor with respect to the attached vehicle.

The equipment detector 400 may be used to be attached to a general vehicle and a tank, self-propelled artillery, armored vehicle, etc., the primary RFID tag 411 and the mobile sensing RFID tag 412, RF receiver 413, DPCU / PU ( 430, the damage indicator 440 performs the same function as the personal sensor 300, and the connection cable 420 is used to connect the detector belt and the DPCU / PU 430 and the damage indicator 440. In addition, in parallel with laser training, the IR sensor and the primary RFID tag for detecting the laser can be simultaneously sealed and used in the shape of the sensing terminal of the personal sensor.

6 is a block diagram showing a master sensor according to the present invention. Referring to the drawings, the master sensor 500 denoted by the entire code 500 is the RF beacon transmitter 520, IR sensor 530, the movement detection RFID reader 540, antenna 550 inside the body 510 And a ROM 560, a processor 570, and a power supply 580.

Here, when the personal sensor 300 worn by the personnel in the sleep mode, which is the first standby mode, the sensor 400 attached to the equipment moves within a certain distance, the master sensor 500 sends a detection signal beacon (beacon), Upon receiving this, the detectors 100 and 200 are switched to the ready mode, and if there is no signal detected for a predetermined time, the detector 100 and 200 are switched back to the sleep mode. The management mode is switched after receiving the management beacon signal from the master sensor 500 or the control authority 800 at the end of the training and the number of times required to receive the response signal from the simulated mine detector 900 to respond. .

The master sensor 500 is not necessary when using a mechanical initial technology such as pressure cone 121, turnover ring 130, pressure plate 220 of a person / anti-tank simulation mine 100, 200, and directly controlled by a processor. This applies only when using the electronic initial ignition technique. Therefore, this technique is a technique for saving the power consumption of the mock mine 100 (200) due to the continuous ready mode (ready mode).

7 is a block diagram showing a control gun 800 according to the present invention. Referring to the drawings, the control tube pistol includes a body 810, the function conversion button 820, the trigger 830 and the IR launch port 840. The control officer pistol includes a mine mode function conversion button 820, which is a control function key of the master sensor 500, so that the master sensor 500 can transmit a mode conversion signal of the person 100 / anti-tank 200 simulated mines, This mode is to be switched to three modes, such as sleep mode, preparation mode, management mode of interpersonal / anti-tank simulation mines according to the number of times the function conversion button 820 is pressed. In addition, it can be used as a device for checking the normal operation of the master sensor 500.

8 is a block diagram showing a simulated mine detector 900 according to the present invention. The simulated mine detectors, all of which are denoted by reference numeral 900, include a management RFID reader 910, a support 920, a controller 930, a speaker 940, a controller 950, a liquid crystal display window 960, a function conversion button ( 970, the control module 980, the handle 990, and the fixing device 995.

The simulated mine detector 900 detects a management RFID tag 150 and 240 attached to a person / anti-tank simulation mine in a management RFID reader 910 and attaches the speaker 940 to the controller 930. By providing the type and the approximate location of the mines through the control module 950 and the liquid crystal display window 960, the number of people 340 is fixed to the arm, such as the purpose of assisting recovery and the purpose of the actual mine detector. It can detect mines while moving. At this time, the handle 990 and the fixing device 995 is manufactured similar to the actual mine detector. The controller 930 is composed of a control program for controlling the system, a real-time embedded OS, a microcomputer, and a power supply.

9 is a procedure diagram showing the flow of information and the operation sequence among the components of the simulated mine system apparatus.

Referring to the drawings, the present invention, first, when the personnel 100 or anti-tank 200 simulated mines are installed when the personnel or equipment moves, the master sensor 500 periodically radiates beacons for personnel 300 And by detecting the signal transmitted from the RFID tag 327 (412) 412 for the movement detection of the equipment 400 for the detector detects the movement of the detector worn or attached to the target person or equipment and simulates a personal mine 100 or anti-tank Send a wake up signal to the mine (200).

When the man / anti-tank mock mine receives the activation signal and detects a signal from the primary RFID tag in the moving personnel or equipment, if it is judged as the initial ignition through the combination of the trainee type and the mock mine type, Information about the anti-tank mine type is transmitted to the personal sensor 300 or the equipment detector 400. In these detectors, the damage caused by personnel or equipment can be transferred, wounded, injured, slowed, and maneuvered through the information on the simulated mine type obtained from the radio wave form into an electrical signal, the trainer information obtained from the detector, and the mine damage rate table (FIG. 11). It is evaluated by destruction, communication destruction, etc. and describes the effects of damage accordingly.

In addition, the GIS system 750 is configured to transmit the damage information including the damage, location, and time information through a wireless relay station 600, a landline or wireless communication network configured according to the size and environment of the minefield zone, and the DCNC 700, a data communication network controller thereof. To be sent). The GIS system 750 stores the received damage information in a database and displays the engagement situation including the damage of the region, time, personnel and equipment in real time. In the drawing, a mode change or a mine detection signal is transmitted to the master sensor 500 through the control officer pistol 800 and the simulated mine detector 900, and the master sensor 500 switches the mode of the interpersonal / anti-tank simulated mines or Handle the mine recovery process.

10 is a flowchart illustrating an operation process of a DPCU provided in a personal sensing device or a sensor for equipment according to the present invention.

Referring to the drawings, the present invention is a digital code in the case of detecting IR (Infrared) through the IR sensor 321b of the personal sensor or the sensor belt 420 of the sensor for describing the direct fire machine through the conventional laser After converting and identifying the launcher, firearm type, and type of coal from the converted digital code (S11-S15).

The present invention recognizes the degree of injury of personnel such as total, serious injury, minor injury, safety, etc., and also recognizes the injured part of the injured person, ie, the position of the head, upper arm, and leg. At the same time as the damage is displayed on the indicator to generate a sound alarm, the trainee unit to the real-time transmission of damage results of personnel or equipment to the GIS system 750 (S16-S24).

11 is an exemplary model of damage assessment performed in a processor embedded in the DPCU. Referring to the drawings, the present invention sets the detection target, detection distance, damage range, personnel equipment, etc. for each mine type, and also calculates the damage rate according to the mine type. In other words, the personnel should be classified as safety, minor, serious, or warrior by landmine type, and the equipment should be labeled as safety, light, medium, and slow. The damage assessment model can be converted according to the purpose of use.

As described above, the present invention describes landmines in military, police and special mission fields and their application functions, and is used for monitoring and alerting facilities requiring access control such as education and training, ammunition and oil tanks, and simulation using RFID. The landmine system device and its method can be applied not only to education and training but also to various survival game sites, and to apply the killing effects of weapons similar to those of actual human weapon systems by varying the performance and type of RFID tags. Can be used for training.

In addition, the present invention can be used in conjunction with the MILES (Multiple Integrated Laser Engagement System) system that is currently being developed and used to reduce the effects of landmines killing effects such as mines that can not be described in the Miles system You can measure simulated damage effects that are similar to the characteristics of, allowing you to describe combat situations such as battles.

Claims (9)

As a training system using simulated mines, An electronic interpersonal land mine (100) including a mechanical ignition device consisting of a pressure horn and a wire iron ring, an RFID reader, and an RF transceiver; Electronic anti-tank simulation landmine 200 including a mechanical ignition device consisting of a pressure plate for sensing a predetermined weight or more and an RFID reader and an RF transceiver; A personal sensor 300 which is worn by a person but detects an injury situation of an individual in connection with the interpersonal mines and a master sensor and wirelessly transmits the detected signal; A device detector 400 installed in equipment such as a vehicle and a tank to detect damage of the equipment in connection with the anti-tank simulation mine and the master sensor, and to wirelessly transmit the detected signal; A master sensor 500 that wirelessly controls an interpersonal / anti-tank simulation mine when the personnel and equipment are within a certain distance; A wireless relay station 600 for receiving the radio signal transmitted through the training unit for transmitting the personal information of the personal sensor and the sensor for the device to a wired communication network; A DCNC 700 connected to the wireless relay station to control a communication network and a data communication network; GIS system that stores and displays damage information based on the signal transmitted from personal sensor and equipment sensor through the communication network and DCNC, or transmits the result of engagement or control simulated by central server to the sensor through communication network and DCNC. 750; A control officer pistol (800) for detecting an operation state of the master sensor and controlling the master sensor to switch the mode of the interpersonal / anti-tank simulation mine; And Engagement training system using a simulated mine, comprising :; simulated mine detector (900) to detect the signal of the RFID tag provided in the interpersonal / anti-tank mock mine to recover the location of the mine. According to claim 1, The interpersonal mines 100 When the force acts on the pressure horn and the turning wire, the sensing signal is applied to the primary RFID reader 140 so as to transmit wirelessly, and the mode is set electronically by the primary RFID tag 321a. Engagement training system using simulated mines. The method of claim 1, wherein the anti-tank mine 200 Engagement training system using a simulated mine, characterized in that by detecting the operation of the pressure plate primary RFID reader 230 operates and the mode is set electronically directly detected by the primary RFID reader. The method of claim 1, wherein each of the personal sensor and the equipment sensor, Engagement training system using simulated mines, characterized in that for determining whether to send a damage signal according to the damage type of landmines that can be received by the target (persons and equipment). According to claim 1, wherein each of the interpersonal / anti-tank simulation mines to be switched mode by the master sensor, Power supply Standby mode (power saving mode), ready mode (ready mode) for the operation of the RFID reader, management mode (stop mode) in the event of recovery and re-installation of mines Engagement training system using a simulated mine. The system of claim 1, wherein the RFID tag of the personal sensor is used as a medium for recording identification information of a trainer (person and equipment) or a type of equipment. The method of claim 1, wherein the simulated mine detector, Engagement training system using a mock mine, characterized in that for recovering by switching the mode of the RFID control mine or master sensor recovery or control training purpose by the RF method. The method of claim 1, wherein the master sensor, An RFID reader for mobile sensing that detects when a trainee (person, equipment) approaches and converts the mode into an RF signal with a mock mine device, an RF transmitter that generates an access detection signal for the trainer, access detection and identification Engagement training system using a mock mine, characterized in that it comprises a microprocessor for information processing. a) When personnel or equipment moves while the person / anti-tank mine is installed, the master sensor periodically emits a beacon and detects the signal from the RFID tag for detecting the movement of personnel and equipment and wears it on the target personnel or equipment. Detecting a movement of the attached detector and sending a wake up signal to the MMO or anti-tank mine; b) The interpersonal / anti-tank simulated mines that receive the start signal are converted to the ready state and, upon detecting the signal of the first RFID tag for the moving personnel or equipment, transmits information on the personal or anti-tank mine type to the personal detector or the equipment detector. step; c) The signal of the radio wave type is converted into an electrical signal in the detection of personal or equipment, and the damage caused by mine type and personnel or equipment is evaluated as warrior, serious injury, minor injury, complete wave, maneuver destruction, communication destruction, etc. Depicting differently; d) In the step c), the damage information including the damage, location and time information via the wireless relay station 600, the wired or wireless communication network configured according to the size of the mine ground and the environment and the DCNC which is a data communication network controller Transmitting to a GIS system; And e) storing the damage information received from the GIS system in a database and displaying the engagement situation in real time, including damage to the area, time, personnel and equipment, etc .: Engagement using mock mines, comprising: Training control method.

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