KR20240026024A - Remote mine activation apparatus and remote mine system - Google Patents

Abstract

A remote mine activation device according to an embodiment of the present invention includes a case having an internal space capable of mounting a conventional mine including a mine pressure plate that strikes a detonator, and is installed in the case and positioned at a predetermined distance from the mine pressure plate; , a pressurizing part that moves by external pressure and explodes the conventional mine by hitting the mine pressure plate, and a mine activating part that controls the pressurizing part to activate the conventional mine, and the mine activating part includes a loading signal sent from the outside or A signal receiver that wirelessly receives a control signal including a safety signal, and a loaded state in which the pressurizer can hit the mine pressure plate or a loaded state in which the pressurizer cannot hit the mine pressure plate according to the loading signal or the safety signal, respectively. It includes a state conversion unit that converts to a safe state.

Description

REMOTE MINE ACTIVATION APPARATUS AND REMOTE MINE SYSTEM}

The present invention relates to a remote mine activating device and a remote mine system including the same, and more specifically, to a remote mine activating device applied to conventional mines and a remote mine system including the same.

In general, conventional mines such as M14 anti-personnel mines and M15 anti-tank mines are subject to the Convention on Prohibitions or Restrictions on the Use of Certain Conventional Weapons Which May Be Deemed to Be Excessively Injurious or to Have Indiscriminate Effects (CCW). Even though there is a lot of inventory due to the same international treaty, it is not being utilized.

To complement this, dispersal mines and long-distance control bombs were developed. Spray-type mines are mines that are installed by launch in a spaced area using a dispersal means, and remote-operated control bombs detect the approach or contact of an unidentified object through the main body detection device, and when the operator identifies this as an enemy, the remote control bomb is deployed remotely. It is an intelligent ammunition that destroys enemies by exploding grenades.

However, in the case of conventional land mines and spray-type land mines, they are exploded by a mechanical device, so there is a risk of accidental explosion as the enemy cannot be identified. In addition, in the case of conventional mines and spray-type mines, the planting and disarming procedures are difficult and time-consuming due to the possibility of accidental explosions during planting and disarming.

In addition, remote control bombs include various equipment such as GPS signals, surveillance equipment, and information transmission devices, so they are expensive and bulky, so there is a risk of exposure when installed on the ground, and the effectiveness of concealment and camouflage is reduced. Additionally, the remotely operated control bomb is powered by a primary battery that operates for up to 72 hours, so its utilization time is short. In addition, the use of projectile-type remotely operated control bombs is low in areas with many shielding structures, such as forest areas and urban areas, and remote operation is limited due to difficulty in observation. In addition, remote control bombs require the operator to identify enemies, so there are limitations in operation if it is difficult to observe with the naked eye or surveillance equipment.

The technical problem to be achieved by the spirit of the present invention is to provide a remote mine activation device that is low cost, has small standby power, and can be remotely switched to a loaded or safe state, and a remote mine system including the same.

A remote mine activation device according to an embodiment of the present invention is a case capable of mounting a conventional mine including a mine pressure plate that strikes a detonator, is installed in the case, and is located at a predetermined distance from the mine pressure plate, and is subject to external pressure. It includes a pressurizing part that moves and explodes the conventional mine by hitting the mine pressure plate, and a mine activator that controls the pressurizing part to activate the conventional mine, and the mine activating part includes a loading signal or a safety signal sent from the outside. a signal receiver for wirelessly receiving a control signal, and converting the pressurizer to a loaded state in which the pressurizer can hit the mine pressure plate or a safe state in which the pressurizer cannot hit the mine pressure plate, respectively, according to the loading signal or the safety signal. It includes a state conversion unit.

The pressurizing part is installed on the upper part of the case and moves by external pressure to reduce the gap with the mine pressure plate, a loader main body, a loader ball installed in the lower part of the loader main body and hitting the mine pressure plate, It may include a loader support part that extends from the electric main body and supports the loader main body, and an elastic member that supports the loader support part and maintains the loader hammer and the mine pressure plate at a predetermined distance.

The state conversion unit is connected to the signal receiver and includes a drive motor that drives according to the control signal, and moves by the drive motor to block the loader main body from approaching the mine pressure plate so that the loader's hammer is moved to the mine pressure plate. It may include a hitting blocking unit that blocks hitting and converts it into the safe state.

The mine pressure plate protrudes to the outside of the case, the loader main body surrounds the mine pressure plate, and the loader pestle is located outside the case and may face the mine pressure plate.

The conventional mine further includes a protruding rod that extends from the mine pressure plate and protrudes, and the state change unit further includes a protruding rod adjusting portion that folds the protruding rod in the safe state and unfolds the protruding rod in the loaded state, The protruding rod adjusting unit may include an auxiliary motor connected to the signal receiver and driven according to the control signal, and a conversion member that moves by the auxiliary motor and folds or unfolds the protruding rod.

The signal receiving unit is installed outside the case and may include an antenna that wirelessly receives the control signal, and a circuit unit that connects the antenna and the state conversion unit and controls the state conversion unit according to the control signal.

In addition, a remote mine system according to another embodiment of the present invention includes a plurality of conventional mines including a mine pressure plate for striking a detonator, a plurality of remote mine activating devices respectively installed on the plurality of conventional mines, the plurality of conventional mines, and An integrated mine activator located spaced apart from the plurality of remote mine activators and connected to the plurality of conventional mines and the plurality of remote mine activators to activate the plurality of conventional mines, and the plurality of remote mine activators and a conductive wire connecting the integrated mine activation unit, wherein the remote mine activation device includes a case capable of mounting the conventional mine, and is installed in the case and positioned at a predetermined distance from the mine pressure plate, and is subject to external pressure. and a pressurizing unit that moves to explode the conventional mine by hitting the mine pressure plate, wherein the integrated mine activation unit includes a signal receiver that wirelessly receives a control signal including a loading signal or safety signal transmitted from the outside, and the loading unit. It includes a state conversion unit that converts the pressurizing unit into a loaded state in which the pressurizing unit can hit the mine pressure plate or a safe state in which the pressurizing unit cannot hit the mine pressure plate according to a signal or a safety signal, respectively.

The remote mine activating device and the remote mine system including the same according to an embodiment of the present invention can remotely control the safety state or loading state by the mine activating part, thereby enabling identification of enemies.

In addition, since it is installed on a conventional mine in a controlled environment in the rear and stored, transported, and buried in a safe state, there is no risk of misfire and it is dismantled in a safe state, eliminating the risk of misfire during landmine burial and dismantlement.

In addition, since existing conventional mines are used, manufacturing costs are low. Therefore, mass production is easy and it can be supplied to small units that are difficult to receive support from dispersal mines or remotely operated control bombs, and stability is greatly guaranteed, allowing active mine operation even in small units.

In addition, since the mine active part is installed with a simple structure, it can be used for a long time with low standby power.

In addition, since it can be buried, problems due to the terrain do not occur when spraying, and since it uses a conventional mine that strikes from the bottom up, it is possible to overcome the limitation of the killing radius of a projectile type remotely operated control bomb, and concealment and camouflage are guaranteed. do.

In addition, since the loading and safety status of the minefield can be adjusted remotely, the operator does not need to check directly, unlike remotely operated control bombs that require operator confirmation when detonated, thereby reducing dependence on the operator.

Additionally, since neutralization measures exist, it does not constitute a violation of the Convention on Certain Conventional Weapons (CCW).

1 is a diagram for explaining a remote mine activation device according to an embodiment of the present invention.
Figure 2 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.
Figure 3 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.
Figure 4 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.
Figure 5 is a diagram for explaining a remote mine system according to another embodiment of the present invention.

Hereinafter, with reference to the attached drawings, embodiments of the present invention will be described in detail so that those skilled in the art can easily practice the present invention. The invention may be implemented in many different forms and is not limited to the embodiments described herein.

Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.

1 is a diagram for explaining a remote mine activation device according to an embodiment of the present invention.

As shown in FIG. 1, the remote mine activator according to an embodiment of the present invention includes a case 100, a pressurizing unit 200, a mine activating unit 300, and a battery unit 400.

Case 100 can be equipped with a conventional mine 10. The conventional mine 10 may include a mine pressure plate 11 that strikes the detonator. The mine pressure plate 11 may be located inside the case 100. Conventional mines 10 may include M14 anti-personnel mines, etc.

The pressing unit 200 may be installed in the internal space of the case 100. The pressing unit 200 may be positioned at a predetermined distance from the mine pressure plate 11. The pressurizing unit 200 can explode the conventional mine 10 by hitting the mine pressure plate 11 due to external pressure caused by a person or a car.

The pressing unit 200 may include a loader main body 210, a loader pestle 220, a loader support part 230, and an elastic member 240.

The loader body 210 is installed at the top of the case 100 and a portion of it may be exposed to the outside. Therefore, it can move vertically downward due to external pressure caused by people or vehicles. In this case, the gap between the loader main body 210 and the mine pressure plate 11 can be reduced.

The loader strike 220 is installed to protrude from the lower part of the loader main body 210 and can strike the mine pressure plate 11 by moving the loader main body 210 due to external pressure. This loader 220 may be located inside the case 100.

The loader support portion 230 may extend from a side end of the loader main body 210 to support the loader main body 210. The loader main body 210, the loader pestle 220, and the loader support portion 230 may be formed as one piece, but are not necessarily limited thereto, and may be formed separately and fastened to each other.

The elastic member 240 supports the loader main body 210 and can keep the loader hammer 220 and the mine pressure plate 11 spaced apart at a predetermined distance. The elastic member 240 may be installed on the bottom surface of the case 100. This elastic member 240 may include a spring or the like.

The mine activation unit 300 can activate the conventional mine 10 by controlling the pressurizing unit 200.

The mine activation unit 300 may include a signal reception unit 310 and a state conversion unit 320.

The signal receiver 310 may wirelessly receive a control signal including a loading signal or a safety signal transmitted from an external device. External devices may include walkie-talkies or dedicated transmitters.

The signal receiving unit 310 may include an antenna 311 and a circuit unit 312.

The antenna 311 is installed outside the case 100 and can receive control signals wirelessly. The antenna may be a coil-type antenna, but is not necessarily limited thereto, and antennas of various structures are possible.

The circuit unit 312 is installed inside the case 100 and can connect the antenna 311 and the state conversion unit 320. Accordingly, the circuit unit 312 can control the state conversion unit 320 according to the control signal. This circuitry 312 may include a channel setter 30 that sets a frequency channel to operate.

The state conversion unit 320 can convert the state to a loaded state or a safe state, respectively, according to the received loading signal or safety signal. The loaded state may be a state in which the pressurizing part 200 can hit the mine pressure plate 11, and the safe state may be a state in which the pressurizing part 200 cannot hit the mine pressure plate 11.

The state conversion unit 320 may include a driving motor 321, a hitting blocking unit 322, and a mounting unit 323.

The drive motor 321 is connected to the signal receiver 310 and can be driven according to the control signal.

The hitting blocking unit 322 may be screw-coupled with the rotation axis of the driving motor 321. The hitting blocking portion 322 may have a latch shape. Therefore, the hitting blocking unit 322 can move horizontally and reciprocally by the rotational movement of the rotation axis of the drive motor 321. At this time, when the drive motor 321 receives the safety signal, the hitting blocking unit 322 moves between the loader main body 210 and the mine pressure plate 11, so the hitting blocking unit 322 moves between the loader main body ( 210) can be blocked from approaching the mine pressure plate 11. Accordingly, the loader ball 220 protruding from the lower part of the loader main body 210 blocks the mine pressure plate 11 from hitting the mine pressure plate 11, thereby maintaining a safe state.

And, when the drive motor 321 receives the loading signal, the strike blocking unit 322 comes out between the loader main body 210 and the mine pressure plate 11, so the loader main body 210 and the mine pressure plate ( 11) There will be no obstacles between them. Accordingly, the loader strike 220 protruding from the lower part of the loader main body 210 is in a loaded state capable of hitting the mine pressure plate 11.

The mounting portion 323 is installed on the bottom of the case 100 and can support the driving motor 321 and the hitting blocking portion 322. Accordingly, the mounting unit 323 can set the vertical positions of the drive motor 321 and the strike blocking unit 322 to a position corresponding to the position between the loader main body 210 and the mine pressure plate 11.

The mine activation unit 300 may further include a power control unit (not shown). The power control unit may be connected to the signal receiver 310 so that the signal receiver 310 is turned on only at certain times. For example, the power control unit is a mechanical device such as a spring, and can cause the signal receiver 310 to be turned on for only 1 minute out of 10 minutes. Therefore, standby power can be minimized.

The battery unit 400 is installed inside the case 100 and can provide power to the mine activation unit 300.

In this way, the remote mine activator according to an embodiment of the present invention can remotely control the safe state or the loaded state by the mine activator. Therefore, when a safety signal is received and a safe state is reached, it does not explode even if an ally or civilian steps on it, making it possible to identify enemies.

In addition, since it is installed on a conventional mine in a controlled environment in the rear and stored, transported, and buried in a safe state, there is no risk of misfire and it is dismantled in a safe state, eliminating the risk of misfire during landmine burial and dismantlement.

In addition, since existing conventional mines are used, manufacturing costs are low. Therefore, mass production is easy and it can be supplied to small units that are difficult to receive support from dispersal mines or remotely operated control bombs, and stability is greatly guaranteed, allowing active mine operation even in small units.

In addition, since the mine active part is installed with a simple structure, it can be used for a long time with low standby power.

In addition, since it can be buried, problems due to the terrain do not occur when spraying, and since it uses a conventional mine that strikes from the bottom up, it is possible to overcome the limitation of the killing radius of a projectile type remotely operated control bomb, and concealment and camouflage are guaranteed. do.

In addition, since the loading and safety status of the minefield can be adjusted remotely, the operator does not need to check directly, unlike remotely operated control bombs that require operator confirmation when detonated, thereby reducing dependence on the operator.

Additionally, since neutralization measures exist, it does not constitute a violation of the Convention on Certain Conventional Weapons (CCW).

Meanwhile, in the above embodiment, the elastic member is installed on the bottom of the case, but another embodiment in which the elastic member is installed on the mounting part is also possible.

Hereinafter, with reference to FIG. 2, a remote mine activation device according to another embodiment of the present invention will be described in detail.

Figure 2 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.

The other embodiment shown in FIG. 2 is substantially the same as the one embodiment shown in FIG. 1 except for the installation structure of the elastic member, so repeated descriptions will be omitted.

As shown in FIG. 2, a remote mine activator according to another embodiment of the present invention includes a case 100, a pressurizing unit 200, a mine activating unit 300, and a battery unit 400.

The case 100 can be equipped with a conventional mine 10, and the conventional mine 10 can include an M15 anti-tank mine, etc.

The pressing unit 200 may include a loader main body 210, a loader pestle 220, a loader support part 230, and an elastic member 240. The elastic member 240 may be installed on the mounting portion 323.

The mine activation unit 300 may include a signal reception unit 310 and a state conversion unit 320. The state conversion unit 320 may include a driving motor 321, a hitting blocking unit 322, and a mounting unit 323. The mounting portion 323 extends in the horizontal direction from the inner wall of the case 100 and may support the driving motor 321, the hitting blocking portion 322, and the elastic member 240.

Meanwhile, in the embodiment shown in FIG. 2, the mine pressure plate of the conventional mine is located inside the case, so the loader air is also located inside the case. However, the mine pressure plate of the conventional mine protrudes to the outside of the case and the loader air is Another embodiment located outside the case is also possible.

Below, with reference to FIG. 3, a remote mine activation device according to another embodiment of the present invention will be described in detail.

Figure 3 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.

Another embodiment shown in FIG. 3 is substantially the same as the other embodiment shown in FIG. 2 except for the structure of the pressing portion, so repeated description will be omitted.

As shown in FIG. 3, a remote mine activator according to another embodiment of the present invention includes a case 100, a pressurizing unit 200, a mine activating unit 300, and a battery unit 400.

The case 100 can be equipped with a conventional mine 10, and the conventional mine 10 can include an M16A1 anti-personnel mine, etc. The mine pressure plate 11 of the conventional mine 10 has a fuse structure and may protrude to the outside of the case 100.

The pressing unit 200 may include a loader main body 210, a loader pestle 220, a loader support part 230, and an elastic member 240.

The loader main body 210 may be installed outside the case 100. This loader main body 210 may have a cylindrical shape with an internal space, and a mine pressure plate 11 may be located in the internal space. That is, the loader main body 210 may surround the mine pressure plate 11.

The loader strike 220 is located at the top of the loader main body 210 and may face the mine pressure plate 11. This loader 220 may be located outside of the case 100.

Therefore, the mine pressure plate 11 can be struck by moving vertically downward due to external pressure caused by a person or a car.

The loader support portion 230 is located at the bottom of the loader main body 210 and can support the loader main body 210. The loader main body 210, the loader pestle 220, and the loader support portion 230 may be formed as one piece, but are not necessarily limited thereto, and may be formed separately and fastened to each other.

The elastic member 240 may be installed on the mounting portion 323. The mounting portion 323 extends in the horizontal direction from the inner wall of the case 100 and may support the driving motor 321, the hitting blocking portion 322, and the elastic member 240.

Meanwhile, in the embodiment shown in FIG. 3, the mine pressure plate of the conventional mine is located inside the loader main body, but the mine pressure plate of the conventional land mine is extended from the mine pressure plate of the conventional mine and includes a protruding rod that protrudes to the outside of the loader main body. Another embodiment of application is also possible.

Below, with reference to FIG. 4, a remote mine activation device according to another embodiment of the present invention will be described in detail.

Figure 4 is a diagram for explaining a remote mine activation device according to another embodiment of the present invention.

Another embodiment shown in FIG. 4 is substantially the same as the other embodiment shown in FIG. 3 except for the structure of the state conversion unit, so repeated description will be omitted.

As shown in FIG. 4, a remote mine activator according to another embodiment of the present invention includes a case 100, a pressurizing part 200, a mine activating part 300, and a battery part 400.

The case 100 can be equipped with a conventional mine 10, and the conventional mine 10 can include an M442 anti-tank mine, etc. The mine pressure plate 11 of the conventional mine 10 may protrude to the outside of the case 100. The conventional mine 10 may include a protruding rod 12 that extends from the mine pressure plate 11 and protrudes. The protrusion bar 12 includes a lower protrusion bar 12a connected to the mine pressure plate 11, an upper protrusion bar 12b connected to the lower protrusion bar 12a and having a longer length than the lower protrusion bar 12a, and a lower protrusion bar 12. It may include a rotation hinge 12c that rotatably couples the protruding rod 12a and the upper protruding rod 12b to each other.

The pressing unit 200 may include a loader main body 210, a loader pestle 220, a loader support part 230, and an elastic member 240.

The loader main body 210 may be installed outside the case 100. This loader main body 210 may have a cylindrical shape with an internal space, and a mine pressure plate 11 may be located in the internal space. That is, the loader main body 210 may surround the mine pressure plate 11.

The loader strike 220 is located at the top of the loader main body 210 and may face the mine pressure plate 11. This loader 220 may be located outside of the case 100.

The loader support portion 230 is located at the bottom of the loader main body 210 and can support the loader main body 210. The loader main body 210, the loader pestle 220, and the loader support portion 230 may be formed as one piece, but are not necessarily limited thereto, and may be formed separately and fastened to each other.

The elastic member 240 may be installed on the mounting portion 323. The mounting portion 323 extends in the horizontal direction from the inner wall of the case 100 and may support the driving motor 321, the hitting blocking portion 322, and the elastic member 240.

The mine activation unit 300 may include a signal reception unit 310 and a state conversion unit 320.

The state conversion unit 320 may include a driving motor 321, a hitting blocking unit 322, a mounting unit 323, and a protruding rod adjusting unit 324.

The protruding rod control unit 324 can fold the protruding rod 12 in a safe state and unfold the protruding rod in a loaded state.

The protruding rod adjusting unit 324 is connected to the signal receiving unit 310 and includes an auxiliary motor 51 driven according to a control signal, and a conversion member that moves by the auxiliary motor 51 and folds or unfolds the protruding rod 12. (52) may be included.

The conversion member 52 moves by the auxiliary motor 51 and rotates the rotation hinge 12c to rotate the upper protruding bar 12b, thereby folding or unfolding the protruding bar 12.

Therefore, in the safe state, the protruding rod 12 is folded, and in the loaded state, the conversion member 52 rotates the upper protruding rod 12b to unfold the protruding rod 12. Therefore, in a safe state, the protruding rod is folded, making it difficult for external pressure to be applied, thereby preventing detonation, and since the protruding rod is folded and not visible from the outside, a camouflage effect can also be obtained.

Meanwhile, in the embodiment shown in FIGS. 1 to 4, a mine activator is installed for each conventional mine, but an integrated mine activator is connected to a plurality of conventional mines through a conductive wire and acts integrally on the plurality of conventional mines. Installed remote mine systems are also possible.

Below, with reference to FIG. 5, a remote mine system according to another embodiment of the present invention will be described in detail.

Figure 5 is a diagram for explaining a remote mine system according to another embodiment of the present invention.

As shown in Figure 5, a remote mine system according to another embodiment of the present invention includes a plurality of conventional mines 10, a plurality of remote mine activators 20, an integrated mine activator 50, and a conductive wire. Includes (60).

The plurality of conventional mines (10) may include M14 anti-personnel mines (10a), M16A1 anti-personnel mines (10b), M442 anti-tank mines (10c), M15 anti-tank mines (10d), etc. These plural conventional mines 10 may be buried spaced apart from each other.

A plurality of remote mine activating devices 20 may be installed on a plurality of conventional mines 10, respectively.

Each remote mine activation device 20 includes a case 100 capable of mounting a conventional mine 10, and is installed in the case 100 and is positioned at a predetermined distance from the mine pressure plate 11, and is activated by external pressure. It may include a pressurizing part 200 that moves to explode the conventional mine 11 by hitting the mine pressure plate 11.

The integrated mine activator 50 may be positioned spaced apart from the plurality of conventional mines 10 and the plurality of remote mine activators 20. In addition, the integrated mine activation unit 50 is connected to a plurality of remote mine activation devices 20 through a conductive wire 60 to activate a plurality of conventional mines.

The integrated mine activation unit 50 may include a signal reception unit 310 and a state conversion unit 320.

The signal receiver 310 may wirelessly receive a control signal including a loading signal or a safety signal transmitted from an external device. The signal receiving unit 310 may include an antenna 311 and a circuit unit 312.

The state conversion unit 320 can convert the state to a loaded state or a safe state, respectively, according to the received loading signal or safety signal. The state conversion unit 320 may include a driving motor 321, a hitting blocking unit 322, and a mounting unit 323.

The structure of the signal receiver 310 in FIG. 5 is substantially the same as the structure of the signal receiver in the above embodiment, and the structure of the state converter 320 in FIG. 5 is also substantially the same as the structure of the state converter in the above embodiment, so repetition Any necessary explanations are omitted.

In this way, the state of a plurality of conventional mines can be converted to a loaded state or a safe state using a plurality of remote mine activation devices 20 installed on each of the plurality of conventional mines using the integrated mine activation unit 50. .

In this case, multiple conventional mines can be activated using a single signal receiver and state change unit, rather than separately installing a signal receiver and state change unit in each conventional mine, thereby reducing the manufacturing cost of a remote mine activation device. .

In addition, since the signal receiver and state change unit are not separately installed in each conventional mine, the volume of the signal receiver and state change unit can be maximized. Therefore, it is possible to install a large capacity battery and operate it for several months.

In addition, it is economical because each conventional mine can be reused as long as the signal receiver and state conversion unit are not damaged.

Although the preferred embodiments of the present invention have been described above, the present invention is not limited thereto, and can be implemented with various modifications within the scope of the claims, the detailed description of the invention, and the accompanying drawings. It is natural that it falls within the scope of the invention.

100: case 200: pressurizing part
210: Loader main body 220: Loader ball
230: loader support 240: elastic member
300: mine active unit 310: signal receiving unit
311: antenna 312: circuit part
320: State conversion unit 321: Drive motor
322: impact blocking unit 323: mounting unit

Claims (7)

A case capable of carrying a conventional mine, including a mine pressure plate that strikes the detonator;
A pressurizing part installed in the case and positioned at a predetermined distance from the mine pressure plate, moves by external pressure to strike the mine pressure plate to explode the conventional mine,
A mine activation unit that controls the pressurizing unit to activate the conventional mine.
Including,
The mine active section is
A signal receiver that wirelessly receives control signals including loading signals or safety signals sent from the outside, and
A state conversion unit that converts a loaded state in which the pressurizing unit can hit the mine pressure plate or a safe state in which the pressurizing unit cannot hit the mine pressure plate according to the loading signal or the safety signal, respectively.
A remote mine activation device, including. According to claim 1,
The pressurizing part is
A loader body installed on the upper part of the case and moved by external pressure to reduce the gap with the mine pressure plate,
A loader ball installed at the lower part of the loader main body and hitting the mine pressure plate,
A loader support portion extending from the loader main body and supporting the loader main body, and
An elastic member that supports the loader support unit and maintains the loader hammer and the mine pressure plate at a predetermined distance apart.
A remote mine activation device, including. According to claim 2,
The state conversion unit
A driving motor connected to the signal receiver and driven according to the control signal, and
A strike blocking unit that moves by the drive motor and blocks the loader main body from approaching the mine pressure plate to block the loader's hammer from hitting the mine pressure plate and converts it to the safe state.
A remote mine activation device, including. According to claim 3,
The mine pressure plate protrudes to the outside of the case,
The loader body surrounds the mine pressure plate,
The remote mine activating device of claim 1, wherein the loader bore is located outside the case and faces the mine pressure plate. According to claim 3,
The conventional mine further includes a protruding rod extending from the mine pressure plate,
The state conversion unit further includes a protrusion rod adjusting unit that folds the protrusion rod in the safe state and unfolds the protrusion rod in the loaded state,
The protruding rod control unit
An auxiliary motor connected to the signal receiver and driven according to the control signal, and
A conversion member that moves by the auxiliary motor and folds or unfolds the protruding rod.
A remote mine activation device, including. According to claim 3,
The signal receiver is
An antenna installed outside the case and wirelessly receiving the control signal, and
A circuit unit that connects the antenna and the state conversion unit and controls the state conversion unit according to the control signal.
A remote mine activation device, including. A plurality of conventional mines containing mine pressure plates striking the detonator;
A plurality of remote mine activation devices installed on each of the plurality of conventional mines,
An integrated mine activator located spaced apart from the plurality of conventional mines and the plurality of remote mine activating devices and connected to the plurality of conventional mines and the plurality of remote mine activating devices to activate the plurality of conventional mines, and
Conductive wire connecting the plurality of remote mine activators and the integrated mine activator
Including,
The remote mine activation device is
A case capable of mounting the above conventional mines, and
A pressurizing part installed in the case and located at a predetermined distance from the mine pressure plate, moves by external pressure and hits the mine pressure plate to explode the conventional mine.
Including,
The integrated mine active section
A signal receiver that wirelessly receives control signals including loading signals or safety signals sent from the outside, and
A state conversion unit that converts a loaded state in which the pressurizing unit can hit the mine pressure plate or a safe state in which the pressurizing unit cannot hit the mine pressure plate according to the loading signal or the safety signal, respectively.
Including remote mine systems.

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