KR20120048268A - Claymore simulator using led light and a mock battle system using the claymore simulator - Google Patents

Abstract

PURPOSE: A claymore simulation apparatus using an LED(Light Emitting Diode) and simulated engagement system using the same are provided to decide a damaged state according to the number of shot times because first and second light source units are transmits simulation codes in different output strengths. CONSTITUTION: A claymore simulation apparatus(1) comprises a housing, first and second light source units(102,104), a percussion sensing unit(110), a firing control unit(120), a power supply unit(130), and a GPS(Global Positioning System) signal receiving unit. The first and second light source units are respectively arranged in the front and rear part of the housing. The first and second light source units are composed of a plurality of LED modules. The percussion sensing unit receives percussion signals from a percussion terminal arranged outside of the housing. When the percussion signals are transmitted to the firing control unit from the percussion sensing unit, the firing control unit operates in a percussion mode, thereby driving the first and second light source units. The GPS signal receiving unit receives location information from a GPS satellite. The firing control unit generates first and second driving signals for driving the first and second light source units in the percussion mode, thereby driving the first and second light source units according to the signals.

Description

Claymore simulator using LED light and a mock battle system using the claymore simulator}

The present invention relates to a simulation system using a cremore simulation apparatus and a cremore simulation apparatus, and more specifically, to simulate the operation of one of the bombs, the Cremor using an LED light source as a signal source. And a simulation engagement system that simulates a battle situation by the Cremore simulation apparatus using a signal transmitted from the Cremore simulation apparatus.

The Multiple Integrated LASER Engagement System (MILES), one of the simulated engagement systems, fires laser light in lieu of live bullets, and detects objects by hitting them with detection equipment worn by people or mounted on trucks. It is a tailored laser application training system. The aforementioned Miles system consists of a firearm simulation device equipped with a laser launcher and detection equipment equipped with sensing elements capable of detecting laser light.

The conventional Miles system simulates the operation of bombs such as grenades, land mines, cremoses, etc., and uses a laser beam, a near field RF signal, or a wireless communication network to simulate the damage caused by the operation of the bombs. Are being proposed.

Korean Patent No. 10-632503 relates to a "training laser creamo equipment", and discloses a technique for simulating the operation of the Creoa equipment using a laser light. Since the laser light is straight, the laser light source must be scanned as much as the bomb's firing range in order to simulate the explosive bomb spreading over a wide angle. Therefore, a driving motor, etc. must be added, and scanning time is further increased during the bomb explosion simulation. There is a problem that needs to be added.

In addition, Korean Patent No. 10-0815501 discloses a technique for simulating the operation of a bomb by using a wireless communication network as related to the "cramore simulation apparatus and a simulation engagement system using the cremore simulation apparatus". When using a wireless network, additional costs and efforts are required for the installation and operation of the wireless network.

An object of the present invention for solving the above problems is to provide a cramore simulation device using the LED as an optical communication source.

Another object of the present invention is to provide a sensing device that can simulate the damage according to the firing signal from the cramore simulation device using the LED.

It is still another object of the present invention to provide a simulation engagement system having a cremore simulation device using LEDs and sensing devices capable of simulating damage.

According to a first aspect of the present invention, there is provided a cramore simulation apparatus comprising: a housing having a cremore shape; A first light source unit disposed on the front of the housing and configured of a plurality of LED modules; A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules; A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing; A firing control unit which is operated in a triggering mode when the trigger signal is provided from the trigger detecting unit to drive a first light source unit and a second light source unit; A power supply unit supplying power to the first light source unit and the second light source unit; And a GPS signal receiver for receiving location information from a GPS satellite.

When the firing control unit is in the triggering mode, the firing control unit generates a first driving signal for driving the first light source unit and a second driving signal for driving the second light source unit, and according to the first and second driving signals, the first and second driving signals. Driving the light source unit, wherein the first and second driving signals are generated according to first and second simulation codes including preset cramore identification information, front and rear direction information, preset death code and explosion location information, respectively; The front and rear direction information is determined according to the arrangement positions of the first and second light sources, and the explosion position information is information on the current GPS position of the cramore provided from the GPS signal receiver.

According to a second aspect of the present invention, there is provided a cremore simulation apparatus comprising: a housing having a cremore shape; A first light source unit disposed on the front of the housing and configured of a plurality of LED modules; A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules; A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing; A wireless signal transceiver; A firing control unit operating in a preliminary preparation mode when the driving switch is turned on, and operating in a triggering mode when a trigger signal is provided from the trigger detecting unit after the preliminary preparation mode is completed; A power supply unit supplying power to the first light source unit and the second light source unit; And,

In the preliminary preparation mode of the launch control unit, the launch control unit receives the GPS position information of the current position from an external control device via a wireless signal transmission and reception, and stores in the internal memory, in the triggering mode of the launch control unit, Generating a first driving signal for driving the first light source unit and a second driving signal for driving the second light source unit, driving the first and second light source units according to the first and second driving signals, respectively; And second driving signals are generated according to first and second simulation codes including preset cramore identification information, front and rear direction information, preset death code, and explosion position information, respectively. And the location information of the second light source unit and the explosion location information is GPS location information stored in an internal memory.

According to a third aspect of the present invention, there is provided a cremore simulation apparatus comprising: a housing having a cremore shape; A first light source unit disposed on the front of the housing and configured of a plurality of LED modules; A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules; A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing; A wireless signal transceiver; A power supply unit supplying power to the first and second light source units; A firing control unit which is operated in a triggering mode when the trigger signal is provided from the trigger detecting unit to drive a first light source unit and a second light source unit to transmit a simulation code; And,

In the triggering mode of the firing control unit, the firing control unit generates a driving signal for driving the first and second light source units, drives the first and second light source units according to the driving signal, and simultaneously controls the output intensity of the power supply unit. The first and second light source units may be configured to transmit a simulation code at a plurality of preset output strengths, and the driving signal may be applied to a simulation code including preset cremor identification information and a preset death code. Is generated accordingly.

In the cramore simulation apparatus according to the third aspect described above, the firing control unit controls the power supply unit, the first light source unit, and the second light source unit in the triggering mode so that the first light source unit is configured to preset the simulation code at the first output intensity. The first light source to transmit the simulated code at a second output intensity for a second preset number of shots, and the first light source to transmit the simulated code to a third output intensity at a third preset Allow the second light source to transmit the simulation code at the fourth output intensity by the first number of shots, the second light source to transmit the simulation code at the fifth output intensity by the second number of shots, Allow the second light source to transmit the simulation code at the sixth output intensity by the third number of shots;

The first output intensity is a power intensity value at which the distance that the optical signal output from the LED module of the first light source reaches reaches to a preset death radius range of the front explosion, and the second output intensity is output from the LED module of the first light source The power intensity value is a distance that the optical signal is reached reaches a range of the floating radius of the front explosion set in advance, the third output intensity is the safety of the front explosion is set in advance the distance the optical signal output from the LED module of the first light source unit reaches The fourth power intensity is a power intensity value reaching to a radius range, the fourth output intensity is a power intensity value at which the distance from which the optical signal output from the LED module of the second light source reaches to the death radius range of the pre-set wind storm is set, and the fifth output intensity is the fifth power intensity. 2 The distance within which the optical signal output from the LED module of the light source reaches is within the range of the floating radius of the after storm. The power is a power intensity value, and the sixth output power is preferably a power intensity value in which a distance at which the optical signal output from the LED module of the second light source reaches the predetermined safety radius range of the after storm.

According to the present invention, it is possible to provide a cramore simulation apparatus using LED elements as an optical signal transmission source.

In addition, the cremore simulation apparatus according to the present invention controls the output intensity of the power supply unit so that the first light source unit and the second light source unit can transmit a simulation code with a plurality of different output strengths, so that the sensing device is damaged according to the number of hits. Can be determined.

In addition, the detection apparatus according to the present invention by using the GPS location information to determine the relative distance to the Cremor to determine whether the damage caused by the explosion of the Cremor, or detect and detect the number of times of detection of the optical signal emitted from the Cremor By using the detected number of times it can be determined whether the damage caused by the explosion of Cremore.

1 is a block diagram schematically showing the configuration of a cramore simulation apparatus using the LED according to the first embodiment of the present invention.
FIG. 2 conceptually illustrates an arrangement form and a light irradiation direction of a light source unit of the cramore simulation apparatus according to the first embodiment of the present invention.
3 is a flowchart sequentially showing the operation of the firing control unit of the cremore simulation apparatus according to the first embodiment of the present invention.
4 is a flowchart sequentially showing the operation of the launch control unit of the cremore simulation apparatus according to the third embodiment of the present invention.
FIG. 5 shows the number of transmissions according to each output intensity in the cremore simulation apparatus according to the third embodiment of the present invention.

Hereinafter, with reference to the accompanying drawings will be described in detail the configuration and operation of the Claymore (Claymore) simulation apparatus and a simulation engagement system using the same.

First Example

The cremore simulation apparatus according to the first embodiment of the present invention transmits the forward and backward direction information and the explosion position information, and determines whether damage is caused by the cremore using the received forward and backward direction information and the explosion position information. It features.

<Cremore Simulator>

1 is a block diagram schematically showing the configuration of a cramore simulation apparatus using the LED according to the first embodiment of the present invention. Referring to FIG. 1, the cramore simulation apparatus 1 according to the first embodiment of the present invention includes a light source unit 100, a trigger detection unit 110, a launch control unit 120, and a power supply unit 130 including LED modules. ), The wireless signal transmission and reception unit 140, the explosion effect simulation unit 160 may be used to simulate the operation of the cramore using the LED light.

The light source unit 100 is composed of a first light source unit 102 for simulating the explosion to the front of the cramore and a second light source unit 104 for simulating the after-storm. The first light source unit 102 is configured so that a plurality of LED modules are irradiated with light of a predetermined angle on the front of the cremore, the second light source unit 104 is a plurality of LED modules are irradiated with the light entirely on the back of the cremore. Is arranged to be configured. 2 conceptually illustrates the front explosion area and the after-storm area according to the arrangement form and the front-rear direction of the light source unit of the cremore simulation apparatus according to the first embodiment of the present invention. As shown in FIG. 2, the damage area caused by the cremore is determined according to the arrangement position and the front-rear direction of the cremore. The area in the shape of a fan (ie, the angle of damage) becomes the damage area. In addition, the frontal and rear storms of Cremor differ in radius and angle of their damage range. As shown in FIG. 2, the angle of the actual range of damage of Cremor is about 60 degrees in the front and 180 degrees in the rear, and the radius of the damage range is the radius of the wider than the rear in the front.

The trigger detecting unit 110 is connected to an external trigger device, and provides a trigger signal to the firing control unit 120 when a trigger signal is transmitted from the trigger device.

Explosive effect simulation unit 160 is provided with one or two or more of the explosion sound generating module, the flash generating module, the explosion effect module to simulate the situation that may occur during the explosion. Explosion sound generating module can simulate explosion sound that can be generated when the explosion is provided with a speaker, etc., the flash generation module can simulate the flash that can be generated when the explosion, and the explosion effect module has a smoke bomb and gunpowder inside the explosion Simulate smoke, smoke and gunpowder odors

The launch controller 120 controls the driving of the light source unit according to the trigger signal transmitted from the trigger detection unit. 3 is a flowchart sequentially showing the operation of the launch control unit according to the first embodiment of the present invention. Referring to FIG. 3, the firing control unit is operated in a preliminary preparation mode when the driving switch is turned on (step S10). In the preliminary preparation mode, the GPS position information is received from an external control device through the radio communication unit, and the received GPS information is stored in the internal memory. The GPS information stored in this way can be read and used in the triggering mode by the launch controller.

After the preliminary preparation mode is completed, if a trigger signal is transmitted from the trigger detection unit (step S20), the trigger mode is operated (step S30). In the triggering mode, the firing control unit generates a first simulation code including cremor identification information, front and rear direction information indicating a frontal explosion, death code, and explosion position information, and indicates that the cremor identification information and the after storm are generated. Generate second simulation code including forward and backward direction information, death code, and explosion location information, and perform ON and OFF operations according to '1' and '0' of the first and second simulation codes. The first and second driving signals may be generated to be repeatedly performed, and the first and second driving signals may be transmitted to the first and second light source units, respectively. Each of the first and second light source units transmits the first and second simulation codes by repeatedly turning on / off the LED modules according to the first and second driving signals. The Cremor identification information includes the information indicating that the Cremor and the Cremor serial number, etc., the front and rear direction information indicates any one of the front explosion or the after storm of the Cremor, the death code indicates the exact Cremor damage of the detection device It is a code set in advance to confirm, and the explosion location information can be read from the internal memory as GPS location information on the current location where the Cremor simulator is exploded. The launch control unit transmits the first and second driving signals to the light source unit, and then drives the explosion effect simulation unit to simulate the explosion state visually or acoustically to produce a situation in which the bomb is actually exploded.

When a collection signal is received from an external cremore collection device through a wireless signal transmission or reception, or a predetermined time has elapsed after the triggering mode is completed (step S40), the operation is performed in the cremore collection mode (step S50). In the Cremore collection mode, the launch control unit 120 checks whether a predetermined collection signal is received from an external Cremore collection device through a wireless signal transmission / reception unit 140 at predetermined time intervals. If the collection signal is received, the launch control unit 120 repeatedly transmits a pre-set collection response signal until the driving switch is turned off through the wireless signal transceiver.

<Simulation System using Cremor Simulator>

The simulation engagement system using the cremore simulation apparatus according to the first embodiment of the present invention includes a plurality of cremore simulation apparatuses and a plurality of sensing apparatuses. Sensing devices are manufactured in the form of vests or body armor, which can be worn by humans or mounted on anti-tank guns or large firearms.

The sensing device includes an internal memory, an LED sensor, a controller, a GPS signal receiver, a wireless signal transceiver, and a damage state output unit.

The internal memory stores a database in which information about a range of damage radius along the front and rear directions of the cremore is preset. The radius of damage range includes information about the radius of death range, the radius of injury and the safety radius of the front of the cremore due to the frontal explosion of the cremore, and the extent of the radius of injury and the radius of injury of the rear of the cremore by the backstorm of the cremore. And information on the safety radius range. In FIG. 2, the radius of death range, the radius of injury, and the range of safety radius due to the frontal explosion of the cremore are 'a1', 'b1' and 'c1', respectively. , Floating radius range and safety radius range are 'a2' region, 'b2' region and 'c2' region, respectively.

The LED sensing unit includes a light receiving element capable of receiving an LED signal. When each light receiving element senses an LED signal, the LED detection unit converts the LED signal into a digital signal and provides the converted LED signal to the controller.

The control unit extracts a simulation code from the LED signal, reads Cremorte identification information, front and rear direction information, death code and explosion location information from the simulation code, and receives GPS location information on the current position of the sensing device through the GPS signal receiver. Then, the information on the damage radius range corresponding to the read front and rear direction information is read from the database.

The controller determines whether damage is caused by the Cremorian explosion by using information read from the simulation code, GPS location information on the current location, and information on the read damage radius range. In the sensing device of the simulation engagement system according to the present invention, the damage providing method according to the explosion simulation of the Cremor may be implemented in various ways. According to one embodiment of the damage providing method, if the front and rear direction information indicates the front of the cremor, the explosion position information of the cremor simulator and the current position information of the sensing apparatus are compared, and if the position of the sensing apparatus is If it is within the death radius of the frontal explosion, it is judged as 'dead state', and if the position of the sensing device is within the injured radius of Cremore's frontal explosion, it is considered as 'injury state', and the position of the sensing device is the frontal explosion of Cremore. If it is within the safety radius of, it is regarded as 'safe state'. If the forward and backward direction information indicates the rear of the cremore, if the position of the sensing device is within the death radius of the rear storm of the cremore, it is determined as 'dead state', and the position of the sensing device is within the injured radius of the rear storm of the cremore. If it is, it is determined as an 'injury state', and if the position of the sensing device is within the safety radius range of the rear storm of Cremor, it is determined as a 'safe state'.

In another embodiment of the damage providing method, when the death code read out from the simulation code is equal to or more than a predetermined number of times, the above-described damage giving method may be applied to determine the death, injury, or safety state.

The control unit may determine whether the damage, and then output the determination result through the damage state output unit. The damage state output unit may be configured as a display device, a speaker, a vibration device, and the like, and outputs information provided from the controller.

2nd Example

The cremore simulation apparatus according to the second embodiment of the present invention transmits forward and backward direction information and explosion position information, and determines whether damage is caused by cremore using the received forward and backward direction information and the explosion position information. It features. In particular, the second embodiment is characterized in that the explosion location information of the Cremore simulation apparatus is provided through the GPS signal receiver.

<Cremore Simulator>

According to a second aspect of the present invention, the cramore simulation apparatus includes a first light source unit, a second light source unit, a trigger detection unit, a launch control unit, a power supply unit, a wireless signal transceiver, a GPS signal receiver, and an explosion effect simulation unit including LED modules. Equipped with LED light can simulate the operation of the cremore. The cremore simulation apparatus according to the second embodiment differs from the cremore simulation apparatus of the first embodiment in that it has a GPS signal receiver more than the cremore simulation apparatus of the first embodiment, and that there is no preliminary preparation mode in the launch controller. There is. The difference will be described below.

The GPS signal receiver of the Cremore simulation apparatus receives the GPS position information of the current position from the GPS satellites and provides it to the launch controller at the request of the launch controller.

When the trigger signal is transmitted from the trigger detecting unit, the launch controller 120 operates in the trigger mode. In the triggering mode, the firing control unit generates a first simulation code including cremor identification information, front and rear direction information indicating a frontal explosion, a death code, and explosion position information, and generates a cremor identification information and a post storm. Generate second simulation code including forward and backward direction information, death code, and explosion location information, and perform ON and OFF operations according to '1' and '0' of the first and second simulation codes. The first and second driving signals may be generated to be repeatedly performed, and the first and second driving signals may be transmitted to the first and second light source units, respectively. The first and second light source units repeatedly turn on / off the LED modules according to the first and second driving signals, respectively, to transmit the first and second simulation codes. The Cremor identification information includes the information indicating that the Cremor and the Cremor serial number, etc., the front and rear direction information indicates any one of the front explosion or the after storm of the Cremor, the death code indicates the exact Cremor damage of the detection device The code is set in advance to confirm, the explosion location information may include GPS location information as the current location information that the Cremor simulator is exploded. The GPS location information may be received from the GPS signal receiver and used. The launch control unit transmits the driving signal to the light source unit, and then drives the explosion effect simulation unit to simulate the explosion state visually or acoustically to produce a situation in which the bomb is actually exploded.

If a collection signal is received from an external cremore collection device before a trigger signal is received, or a predetermined time elapses after the trigger mode is completed, the unit operates in the cremore collection mode. Since the cremore collection mode is the same as that of the first embodiment, redundant description is omitted.

<Simulation System using Cremor Simulator>

The simulation engagement system using the cremore simulation apparatus according to the second embodiment of the present invention includes a plurality of cremore simulation apparatuses and a plurality of sensing apparatuses. Since the sensing apparatus according to the second embodiment is the same as those of the first embodiment, the overlapping description is omitted.

The third Example

The cremore simulation apparatus according to the third embodiment of the present invention sequentially provides an optical signal a predetermined number of times while adjusting the power intensity provided to the light source unit, and the sensing device explodes the cremore according to the number of times the optical signal is detected. It is characterized by determining whether or not damage.

<Cremore Simulator>

Cremor simulation apparatus according to a third embodiment of the present invention includes a first light source unit, a second light source unit, a trigger detection unit, a launch control unit, a power supply unit, a wireless signal transmission unit, an explosion effect simulation unit comprising LED modules, Light can be used to simulate the behavior of Cremore. The cremore simulation apparatus according to the third embodiment is different from that of the cremore simulation apparatus according to the first embodiment, and the cremore simulation apparatus according to the first embodiment has no GPS signal receiver. It is different from the device. Therefore, the description of the same components as the description of the first embodiment will be omitted, and the operation of the launch control unit different from the first embodiment will be mainly described.

The firing control unit according to the third embodiment controls the driving of the first and second light source units according to the trigger signal transmitted from the trigger detecting unit, and controls the power supply unit to supply power to the first and second light source units, thereby controlling the power supply unit. The power provided to the first and second light source units is controlled. Hereinafter, an operation of the launch control unit according to the third embodiment will be described in detail with reference to FIG. 4. 4 is a flowchart sequentially showing the operation of the launch control unit of the cremore simulation apparatus according to the third embodiment of the present invention.

Referring to FIG. 4, the firing control unit operates in the triggering mode when a trigger signal is transmitted from the trigger detecting unit after the driving switch is turned on. In the triggering mode, the firing control unit generates a simulation code including cremor identification information and a death code, and drives to repeatedly perform ON and OFF operations according to '1' and '0' of the simulation code. By generating a signal and driving the first and second light source units according to the driving signal, a simulation code is fired using the first and second light source units. The firing control unit simultaneously controls the output intensity of the power supply unit and drives the first light source unit and the second light source unit to launch the simulation code a plurality of times at different output intensities.

The operation in the triggering mode will be described in detail with reference to FIG. 4. First, in order to simulate the frontal explosion using the first light source, the firing controller controls the output intensity of the power supply and the first light source to control the first light source. The simulated code is fired by the first output intensity by the first preset number of shots (L times) (S500), and the simulated code by the second output intensity is fired by the second preset number of shots (M times) (S510). In step S520, the simulation code is sequentially fired by a third predetermined number of firings (N times) at a third output intensity. Here, the first output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the first light source reaches reaches to a preset death radius range of the front explosion, and the second output intensity is from the LED module of the first light source The power intensity value is a distance in which the output optical signal reaches the range of the floating radius of the front explosion set in advance, and the third output intensity is the distance the optical signal output from the LED module of the first light source reaches. The power intensity value reaches the safety radius range. The first number of shots, the second number of shots, and the third number of shots may be different values, or may all be the same value. Fig. 5 shows the number of shots of each output intensity of the cremore simulation apparatus according to the third embodiment of the present invention. Referring to FIG. 5, the sensing device in the death radius range may be hit by a maximum number of first shots (L times) + second shots (M times) + third shots (N times), and a radius of injury range. The sensing device at can be shot up to a maximum number of second shots (M times) + the third number of shots (N times), and the sensing device within a safe radius can be shot up to a third number of shots (N times). There will be.

Next, the firing control unit controls the output intensity of the power supply unit and the second light source unit to simulate the after-storm by using the second light source unit so that the second light source unit simulates the simulation code at the fourth output intensity (L times). As many times as possible (S530), and transmits the simulation code at the fifth output intensity by the second number of shots (M times) (S540), and sequentially copies the simulation code at the sixth output intensity by the third number of shots (N times). Transmit to (S550). Here, the fourth output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the second light source reaches reaches to the death radius range of the pre-set wind storm, and the fifth output intensity is output from the LED module of the second light source. The power intensity value is a distance that the light signal reaches to the floating radius range of the pre-set after storm, and the sixth output intensity is the safety radius range of the after-storm set by the distance that the light signal output from the LED module of the second light source reaches in advance This is the power intensity value.

The firing control unit drives the power supply unit and the first and second light source units to fire the simulation code a plurality of times at different output intensities, and then drives the explosion effect simulation unit to visually or acoustically simulate the explosion state of the cremore. The situation is as if Cremore exploded.

If a collection signal is received from an external cremore collection device before a trigger signal is received, or a predetermined time elapses after the trigger mode is completed, the unit operates in the cremore collection mode. Since the cremore collection mode is the same as that of the first embodiment, redundant description is omitted.

<Simulation System using Cremor Simulator>

The simulation engagement system using the cremore simulation apparatus according to the third embodiment of the present invention is configured similarly to the simulation engagement system according to the first embodiment. However, since only operations of the controllers of the sensing devices are partially different, the differences will be mainly described.

The sensing device includes an internal memory, an LED detector, a controller, a wireless signal transceiver, and a damage state output unit. The internal memory stores a preset database of information on the number of hits to simulate damage caused by the frontal and rear storms of Cremor. The information on the number of hits stored in the database includes a 'death frequency range' indicating a death state, a 'injury frequency range' indicating an injury state and a 'safe frequency range' indicating a safety state. The death frequency range is preferably set in the range of "(second shot count + third shot count) <shot count ≤ (first shot count + second shot count + third shot count)", and the incidence frequency range Is preferably set in the range of "third shot count <shot count ≤ (second shot count + third shot count)", and the safety frequency range is each in the range of "0 <shot count <third shot count". It is preferable to be set.

When the control unit receives the LED light signal, the control unit extracts a simulation code of the received signal, and reads Cremor identification information, front and rear direction information, and death code from the simulation code. At this time, when the death code is detected once from the LED light signal, it is determined that one time has been hit, and when the death code is detected N times, it is determined that it has been hit N times. Therefore, the number of hits of the sensing device is determined according to the number of times of detection of the death code detected from the detected optical signals. Next, information about the number of hits for simulating the damage of the cremore is read from the database, and whether the damage caused by the cremore is determined using the hit count and the information read from the database. For example, if the number of hits is included in the frequency range of death is determined to have died by the explosion of Cremore, if the number of hits is included in the range of frequency of injury is determined to be injured by the explosion of Cremore, the number of hits If it falls within the safe frequency range, it is considered safe from the explosion of Cremor.

The sensing device according to the present embodiment determines whether the damage is caused by the cramor according to the number of hits according to the received LED light signal without a separate GPS position calculation process.

Although the present invention has been described above with reference to preferred embodiments thereof, this is merely an example and is not intended to limit the present invention, and those skilled in the art do not depart from the essential characteristics of the present invention. It will be appreciated that various modifications and applications not illustrated above are possible in the scope. Differences related to such modifications and applications should be construed as being included in the scope of the present invention as defined in the appended claims. .

The cremore simulation apparatus and the simulation engagement system using the same according to the present invention can be used in military training systems or in entertainment fields such as survival games.

1: Cremore mock device
100: light source
102: first light source
104: second light source
110: trigger detection unit
120: launch control
130: power supply
140: wireless signal transceiver
160: explosion effect simulation

Claims (13)

A housing having a cremore shape;
A first light source unit disposed on the front of the housing and configured of a plurality of LED modules;
A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules;
A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing;
A firing control unit which is operated in a triggering mode when the trigger signal is provided from the trigger detecting unit to drive a first light source unit and a second light source unit;
A wireless signal transceiver;
A power supply unit supplying power to the first light source unit and the second light source unit;
A GPS signal receiver for receiving location information from a GPS satellite;
The firing control unit may be configured to generate a first driving signal for driving the first light source unit and a second driving signal for driving the second light source unit when the triggering mode is triggered, and according to the first and second driving signals. Driving the first and second light sources,
The first and second driving signals are generated according to the first and second simulation codes including preset cramore identification information, front and rear direction information, preset death code, and explosion location information, respectively. Is information indicating one of the front explosion and the after storm of the Cremore, the explosion location information is a Cremor simulation apparatus using the LED, characterized in that the current GPS position information of the Cremor provided from the GPS signal receiver.
A housing having a cremore shape;
A first light source unit disposed on the front of the housing and configured of a plurality of LED modules;
A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules;
A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing;
A wireless signal transceiver;
A firing control unit operating in a preliminary preparation mode when the driving switch is turned on, and operating in a triggering mode when a trigger signal is provided from the trigger detecting unit after the preliminary preparation mode is completed;
A power supply unit supplying power to the first light source unit and the second light source unit;
In the pre-preparation mode of the launch control unit, the launch control unit receives the GPS position information of the current position from the external control device via a wireless signal transceiver, and stores in the internal memory,
In the triggering mode of the launch control unit, a first driving signal for driving the first light source unit and a second driving signal for driving the second light source unit are generated, and the first and second light source units are generated according to the first and second driving signals. Drives each,
The first and second driving signals are generated according to the first and second simulation codes including preset cramore identification information, front and rear direction information, preset death code, and explosion location information, respectively. Is information indicating one of the front explosion and the after storm of the Cremore, wherein the explosion position information is a GPS simulation device using the LED, characterized in that the GPS position information stored in the internal memory.
A housing having a cremore shape;
A first light source unit disposed on the front of the housing and configured of a plurality of LED modules;
A second light source unit disposed on a rear surface of the housing and configured of a plurality of LED modules;
A trigger detection unit configured to receive a trigger signal from a trigger terminal disposed outside the housing;
A wireless signal transceiver;
A power supply unit supplying power to the first and second light source units;
A firing control unit which is operated in a triggering mode when the trigger signal is provided from the trigger detecting unit to drive a first light source unit and a second light source unit to transmit a simulation code;
In the triggering mode of the firing control unit, the firing control unit generates a driving signal for driving the first and second light source unit, and drives the first and second light source unit in accordance with the drive signal and at the same time By controlling the output intensity, characterized in that the first and second light source to transmit a simulation code to a plurality of preset output intensity,
And the driving signal is generated according to a simulation code including preset cremor identification information and a preset death code.
The method according to claim 3, wherein the firing control unit controls the power supply unit, the first light source unit and the second light source unit in the triggering mode so that the first light source unit transmits the simulation code by a first predetermined number of firing times at a first output intensity, The first light source unit transmits the simulation code at a second output intensity by a preset second firing frequency, and the second light source unit transmits the simulation code at the fourth output intensity by the first firing frequency, and the second light source unit The cramore simulation apparatus using the LED, characterized in that to transmit the simulation code by the second number of times at the fifth output intensity.
The method of claim 4, wherein the first output intensity is a power intensity value at which a distance that an optical signal output from the LED module of the first light source reaches reaches a death radius range of a frontal explosion set in advance.
The second output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the first light source reaches reaches the floating radius range of the frontal explosion set in advance,
The fourth output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the second light source reaches reaches the death radius range of the after storm, which is preset.
The fifth output intensity is a power level simulation device using the LED, characterized in that the distance that the light signal output from the LED module of the second light source reaches the predetermined range of the floating radius of the after storm.
The method according to claim 3, wherein the firing control unit controls the power supply unit, the first light source unit and the second light source unit in the triggering mode so that the first light source unit transmits the simulation code by a first predetermined number of firing times at a first output intensity, The first light source to transmit the simulation code at a second output intensity by a second preset number of firings, and the first light source to transmit the simulation code at a third output intensity by a third preset number of shots,
Cause the second light source to transmit the simulation code at the fourth output intensity by the first number of shots, the second light source to transmit the simulation code at the fifth output intensity by the second number of shots, and the second light source to sixth Cremor simulation apparatus using the LED, characterized in that to transmit the simulation code by the number of times the output intensity.
The method of claim 6, wherein the first output intensity is a power intensity value that the distance that the optical signal output from the LED module of the first light source reaches the range of the death radius of the frontal explosion in advance,
The second output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the first light source reaches reaches the floating radius range of the frontal explosion set in advance,
The third output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the first light source reaches reaches to the safety radius range of the frontal explosion set in advance,
The fourth output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the second light source reaches reaches the death radius range of the after storm, which is preset.
The fifth output intensity is a power intensity value in which the distance that the optical signal output from the LED module of the second light source reaches reaches the floating radius range of the after-storm, which is preset.
The sixth output intensity is a cramore simulation device using the LED, characterized in that the distance that the light signal output from the LED module of the second light source reaches the predetermined safety radius range of the after storm.
The cramore simulation apparatus according to any one of claims 1 to 3, further comprising an explosion effect simulation unit,
The firing control unit drives the explosion effect simulation unit after driving the first and the second light source unit in the triggering mode, using the LED. The apparatus of claim 8, wherein the explosion effect simulation unit comprises one or more of an explosion sound generating module, a flash generating module, and an explosion effect module including smoke bombs or gunpowder. The fire control according to any one of claims 1 to 3, wherein the firing control unit receives a preset collection signal from an external cremore collecting device through a wireless signal transmitting / receiving unit before the triggering mode or enters the cremore collecting mode after completing the triggering mode. Will work,
In the Cremore collection mode, the firing control unit checks every predetermined time whether a preset collection signal is received from an external Cremore collection device through a wireless signal transmission / reception unit, and if the collection signal is received, the preset collection response signal is received. Cremore simulation device using the LED, characterized in that for transmitting repeatedly until the drive switch is turned off through the wireless signal transceiver. In the simulated engagement system comprising a cremore simulation device for providing an LED light signal and a sensing device for detecting the damage by sensing the LED light signal from the cremore simulation device, the sensing device,
An internal memory in which a database in which information about a damage radius range along the front and rear directions of the cramore is set is stored;
An LED sensor configured to receive LED light signals and convert the LED light signals into digital signals when the LED light signals are received;
A GPS signal receiver for receiving location information from a GPS satellite;
When the LED light signal is received from the LED detection unit, a control unit for determining whether or not the damage caused by the cramore according to the received LED light signal;
Equipped with
When the LED light signal is received, the control unit extracts a simulation code from the LED light signal, reads Cremor identification information, front and rear direction information, death code and explosion position information from the simulation code, and detects the current position of the sensing device from the GPS signal receiver. Receive GPS location information for the device, read information about the damage radius range corresponding to the front and rear direction information from the internal memory, the information read from the simulation code, the GPS location information for the current location and the read damage Simulation system using the information on the radius range to determine whether the damage caused by the Cremor simulation device.
In the simulated engagement system comprising a cremore simulation device for providing an LED light signal and a sensing device for detecting the damage by sensing the LED light signal from the cremore simulation device, the sensing device,
An internal memory in which a database in which reference information for determining damage caused by the cramore simulation apparatus is set is stored;
An LED sensor configured to receive LED light signals and convert the LED light signals into digital signals when the LED light signals are received;
Detects a simulated code from the LED light signals received by the LED detection unit, extracts a death code from the simulated code, and determines the number of shots according to the number of times the death code is extracted, and determines the number of shots and the database. A control unit for determining whether damage caused by the cremore simulation apparatus is based on the reference information;
Simulated engagement system comprising a.
The method of claim 12, wherein the reference information of the database stored in the internal memory includes a death frequency range and an injury frequency range according to the number of hits.
The controller determines that the determined number of hits has been killed by the cremore simulator when the number of hits is within the range of death frequency, and determines that the determined number of hits has been injured by the cremore simulator when the number of hits is within the range of injury frequency. Mock Engagement System.

Images