Unexploded bomb laser destroyer device

Abstract

The invention discloses an unexploded bomb laser destroyer device, belonging to the field of unexploded bomb laser destruction. An integrated control box is arranged in a box body component, a mobile power supply is arranged under the integrated control box, an electric push rod and a lens mechanism are arranged in an outer shell, the electric push rod is horizontally installed inside the outer shell, a group of lens heat dissipation components are penetrated on the lens mechanism, the lens heat dissipation components are closely attached to the lens mechanism and penetrate the outer shell and are fixedly connected with each other, so as to solve the problem that the fan heat dissipation adopted by the lens of the existing equipment during operation, the external dust blows into the inside of the lens, which will directly affect the emission of the laser, and the shock wave in the process of bomb explosion will act on the laser destroyer, causing the laser destroyer to topple over, resulting in the internal lens mechanism being broken and damaged, and the bomb still has the possibility of active explosion in the process of not exploding after being thrown, threatening the life of the operator, and is mainly used in the destruction of unexploded bombs.

Description

Technical Field

[0001] The invention relates to the technical field of unexploded ammunition destruction, in particular to an unexploded ammunition laser destroyer device. Background Art

[0002] During military exercises, there is a certain probability that ammunition will not explode after being fired. However, eliminating these unexploded ordnances is risky and technically difficult. These unexploded ordnances pose a great safety hazard and are likely to explode under the influence of the external environment, seriously threatening the safety of surrounding personnel and equipment. Therefore, measures need to be taken to destroy these unexploded ordnances as soon as possible. Currently, laser destroyers are used for destruction. With the development of laser technology, it has become possible to destroy unexploded ordnances by laser irradiation ablation. Unexploded ordnance laser destroyers use wireless transmission modules to remotely operate the laser transmitter in a safe area through a handheld control terminal to achieve long-distance and rapid destruction of unexploded ordnances, avoid direct contact between personnel and dangerous ordnance, and achieve full automation. They are highly safe, have low work intensity, improve the efficiency of ammunition destruction and disposal, and reduce environmental pollution and resource consumption. When the existing laser destroyer is working, the lens will absorb a large amount of heat in a short period of time. This... Such heat cannot be discharged, which will directly cause damage to the lens. The existing method of using a fan to dissipate heat in the porous structure of the outer shell can directly take away a large amount of heat energy, but it will also blow external dust into the lens, which will directly affect the emission of the laser. In serious cases, the lens needs to be disassembled and cleaned before it can be used again. During the explosion of the bomb, the shock wave will act on the laser destroyer, causing the laser destroyer to topple over. The laser destroyer has no buffer device, which will cause the internal lens mechanism to shatter and be damaged, and it cannot be used anymore. At the same time, there is still the possibility of active explosion in the process of the bomb not exploding after being thrown. The radius lethality generated by the explosion will directly affect the operator. Even if the operator wears protective clothing, there is a risk of being hit by fragments and other objects, which will seriously threaten the operator's life. In response to the above problems, our company has proposed an unexploded bomb laser destroyer device. Summary of the invention

[0003] Purpose of the invention: The purpose of the present invention is to provide a laser destroyer device for unexploded bombs to solve the technical problems that when the existing laser destroyer is working, the fan used for heat dissipation of the lens causes external dust to blow into the inside of the lens, which will directly affect the emission of the laser. During the explosion of the bomb, the shock wave will act on the laser destroyer, causing the laser destroyer to topple over, resulting in the internal lens mechanism being broken and damaged. At the same time, when the bomb is thrown but not exploded, there is still the possibility of active explosion, which directly threatens the life of the operator.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical scheme: an unexploded bomb laser destroyer device, comprising a tripod, a theodolite, a cooling fan, a shell, an outlet connection pipe, a camera, a signal receiving line, a box assembly, an integrated control box, a mobile power supply, an electric push rod and a lens mechanism, wherein the tripod is provided with a theodolite, the shell is installed on the theodolite, a cooling fan is provided below the shell and the cooling fan is connected to the shell through a connecting rod, an outlet connection pipe and a camera are respectively installed on the shell, and a signal receiving line is installed on the camera, characterized in that: an integrated control box is provided in the box assembly, a mobile power supply is provided below the integrated control box, an electric push rod and a lens mechanism are provided in the shell, the electric push rod is transversely installed inside the shell, the mobile power supply is respectively connected to the cooling fan, the camera, the electric push rod and the lens mechanism through electric wires passing through the outlet connection pipe, a group of lens heat dissipation components are provided through the lens mechanism, the lens heat dissipation components are closely attached to the lens mechanism and the lens heat dissipation components are fixedly connected through the shell and the shell, the shock wave generated during the explosion acts on the device to cause it to topple, and the lens heat dissipation components can also play a buffering role to protect the internal lens.

[0005] Furthermore, the box assembly includes a base plate, an upper cover plate, a vertical plate I, a triangular plate I, a vertical plate II and a triangular plate II. A group of vertical plates II are vertically arranged on the vertical plate I, and a group of triangular plates II are vertically arranged on the vertical plate II. The triangular plates I and II are two congruent right triangles, and the hypotenuses of the triangular plates I and II are abutted against each other to form a rectangular shape. A group of buckles are arranged on the base plate and the upper cover plate, and a group of lap grooves are arranged on the vertical plate I and the vertical plate II. The buckles and the lap grooves are clamped together. T-slots are arranged on the triangular plates I and II, and the inner surfaces of the T-slots are provided with anti-slip patterns. A handle is arranged on one side of the upper cover plate, and a group of parallel T-rails and eight-shaped T-rails are arranged on the other side. The eight-shaped T-rail is between the parallel T-rails. The parallel T-rails and the eight-shaped T-rails are provided with anti-slip patterns, and the anti-slip patterns can prevent the triangular plates I and II from escaping from the parallel T-rails and the eight-shaped T-rails.

[0006] Furthermore, the lens mechanism includes a multi-stage lens barrel, an optical lens, a zoom lens barrel, a zoom lens and a laser head. A group of optical lenses are arranged in the multi-stage lens barrel. One end of the multi-stage lens barrel extends out of the outer shell and the other end is installed with a zoom lens barrel. The zoom lens is arranged in the zoom lens barrel. A slit is also provided on the zoom lens barrel. A vertical rod is vertically installed below the zoom lens and the vertical rod passes through the slit and is vertically fixed to the telescopic rod of the electric push rod. A laser head is installed on the side of the zoom lens barrel. The laser head is fixedly connected to the outlet connecting pipe and the laser head is connected to the electric wire. Lens heat dissipation components are evenly arranged on the multi-stage lens barrel and the zoom lens barrel.

[0007] Furthermore, the lens heat dissipation assembly includes a sleeve, a claw, and a heat dissipation cylindrical block. A group of claws are evenly installed on the sleeve mouth. The outer wall of the sleeve is fixedly connected to the outer shell. A heat dissipation cylindrical block is arranged inside the sleeve. Conformal heat dissipation blocks are tightly fitted on both sides of the multi-stage lens barrel and the zoom lens barrel. The conformal heat dissipation blocks are tightly attached to the multi-stage lens barrel and the zoom lens barrel and can quickly transfer heat energy. One end of the heat dissipation cylindrical block is connected to the conformal heat dissipation block as a whole. A group of heat dissipation bent fins are arranged circumferentially on the center of the cross-section of the other end of the heat dissipation cylindrical block, and the heat dissipation bent fins are integrated with the heat dissipation cylindrical block, and the heat dissipation bent fins are stuck in the claws.

[0008] Furthermore, the number of the claws is 4, which can enable better air flow.

[0009] Furthermore, the heat dissipation cylindrical block, the conformal heat dissipation block and the heat dissipation curved sheet are all made of a copper-based graphene composite material, which has excellent thermal conductivity and the advantage of being light in weight.

[0010] Compared with the prior art, the present invention has the following beneficial effects:

[0011] (1) Through the structural design of the present invention, the integrated control box is operated to make the laser head work, the electric push rod is extended and retracted to adjust the zoom lens in the zoom lens barrel to converge the laser into the optimal state and start to hit the unexploded bomb, and the heat absorbed by the optical lens and the zoom lens is quickly transferred to the multi-stage lens barrel and the zoom lens barrel, and the multi-stage lens barrel and the zoom lens barrel then pass the heat energy through the conformal heat dissipation block in the lens heat dissipation assembly, through the heat dissipation cylindrical block, and finally through the heat dissipation curved plate to dissipate the heat energy into the air. At the same time, the cooling fan works to blow cold air to the heat dissipation curved plate, and the heat absorbed by the optical lens and the zoom lens is quickly dissipated, thereby protecting the lens. The head adopts hole-free heat dissipation to prevent dust from entering. When heat enters the conformal heat dissipation block, heat dissipation cylindrical block, and heat dissipation curved sheet, the internal molecules expand due to heat, causing the overall volume to expand, and the heat dissipation curved sheet becomes more curved, increasing air flow and making heat dissipation more efficient. When the laser head no longer emits laser, no heat enters the conformal heat dissipation block, heat dissipation cylindrical block, and heat dissipation curved sheet, causing the internal molecules to expand due to heat, and the heat dissipation curved sheet returns to the set curved state, which is protected during transportation. If the shock wave generated by the explosion acts on the device and causes it to topple over, the lens heat dissipation assembly can also act as a buffer to protect the internal lens.

[0012] (2) Through the structural design of the present invention, the upper cover plate, the whole composed of the vertical plate I and the triangle plate I, and the whole composed of the vertical plate II and the triangle plate II of the box assembly are removed respectively, the T-slot of the triangle plate I is inserted into the eight-shaped T-rail, and then the T-slot of the triangle plate II is inserted into the parallel T-rail. The operator operates the handle to vertically cover the head area to play a protective role and ensure life safety. The shock wave generated by the explosion is diverted from both sides of the vertical plate I and the vertical plate II to prevent the staff from falling due to the front shock wave. At the same time, the box assembly can also be used normally to place the integrated control box and the mobile power supply. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 It is the working state diagram of the present invention;

[0014] Figure 2 It is a structural diagram of the outlet connecting tube, the camera instrument, the signal receiving line, the electric push rod and the lens mechanism of the present invention;

[0015] Figure 3 For the present invention Figure 2 A in the enlarged view;

[0016] Figure 4 It is a structural diagram of the outlet connecting tube, the camera instrument, the signal receiving line, the electric push rod, the lens mechanism and the lens heat dissipation assembly of the present invention;

[0017] Figure 5 For the present invention Figure 4 A side view of the cross section taken along line B-B';

[0018] Figure 6 It is a front view of the lens heat dissipation assembly of the present invention;

[0019] Figure 7 It is a side view of the lens heat dissipation assembly of the present invention;

[0020] Figure 8 A three-dimensional diagram of a box assembly of the present invention;

[0021] Fig. 9 A three-dimensional diagram of the integrated control box and mobile power supply of the present invention;

[0022] Fig.10 A three-dimensional diagram of the base plate of the present invention;

[0023] Fig.11 It is a three-dimensional diagram of the vertical plate Ⅰ and the triangular plate Ⅰ of the present invention;

[0024] Fig.12 It is a three-dimensional diagram of the vertical plate II and the triangular plate II of the present invention;

[0025] Fig.13 For the present invention Fig.12 The enlarged view of point C in the figure;

[0026] Fig.14 A three-dimensional diagram of the upper cover plate of the present invention;

[0027] Fig.15 It is a three-dimensional diagram of the combined state of the upper cover plate, vertical plate I, triangular plate I, vertical plate II and triangular plate II. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] Example 1

[0030] See also Figure 1-Figure 15 As shown: an unexploded bomb laser destroyer device, comprising a tripod 1, a theodolite 2, a cooling fan 2-1, a housing 3, an outlet connection pipe 4, a camera 5, a signal receiving line 6, a box assembly 7, an integrated control box 8, a mobile power supply 9, an electric push rod 10 and a lens mechanism 11, wherein the theodolite 2 is arranged on the tripod 1, the housing 3 is installed on the theodolite 2, a cooling fan 2-1 is arranged below the housing 3 and the cooling fan 2-1 is connected to the housing 3 through a connecting rod 2-2, the outlet connection pipe 4 and the camera 5 are respectively installed on the housing 3, and the camera 5 is installed on the signal receiving line 6. The characteristics are: an integrated control box 8 is arranged in the box assembly 7, a mobile power supply 9 is arranged under the integrated control box 8, an electric push rod 10 and a lens mechanism 11 are arranged in the outer shell 3, the electric push rod 10 is horizontally installed inside the outer shell 3, the mobile power supply 9 is connected with the cooling fan 2-1, the camera 5, the electric push rod 10 and the lens mechanism 11 respectively through electric wires passing through the outlet connecting pipe 4, a group of lens heat dissipation components 12 are arranged through the lens mechanism 11, the lens heat dissipation components 12 are close to the lens mechanism 11 and the lens heat dissipation components 12 pass through the outer shell 3 and are fixedly connected with the outer shell 3.

[0031] The box assembly 7 includes a base plate 7-1, an upper cover plate 7-2, a vertical plate Ⅰ 7-3, a triangular plate Ⅰ 7-4, a vertical plate Ⅱ 7-5 and a triangular plate Ⅱ 7-6. A group of vertical plates Ⅱ 7-5 is vertically arranged on the vertical plate Ⅰ 7-3, and a group of triangular plates Ⅱ 7-6 is vertically arranged on the vertical plate Ⅱ 7-5. The triangular plates Ⅰ 7-4 and Ⅱ 7-6 are two congruent right triangles, and the hypotenuses of the triangular plates Ⅰ 7-4 and Ⅱ 7-6 are two opposite sides of each other to form a rectangular shape. A group of buckles 7-7 are arranged on the base plate 7-1 and the upper cover plate 7-2. A group of overlap grooves 7-8 are arranged on plate I 7-3 and vertical plate II 7-5, and the buckle 7-7 is clamped with the overlap groove 7-8, and T-slots 7-9 are arranged on the triangular plate I 7-4 and triangular plate II 7-6, and the inner surface of the T-slot 7-9 is provided with anti-skid grooves, and a handle 7-10 is arranged on one side of the upper cover plate 7-2, and a group of parallel T-rails 7-11 and S-shaped T-rails 7-12 are arranged on the other side, and the S-shaped T-rails 7-12 are between the parallel T-rails 7-11, and the parallel T-rails 7-11 and the S-shaped T-rails 7-12 are provided with anti-skid grooves.

[0032] The lens mechanism 11 includes a multi-stage lens barrel 13, an optical lens 14, a zoom lens barrel 15, a zoom lens 16 and a laser head 19. A group of optical lenses 14 are arranged in the multi-stage lens barrel 13. One end of the multi-stage lens barrel 13 extends out of the housing 3 and the other end is equipped with a zoom lens barrel 15. The zoom lens 16 is arranged in the zoom lens barrel 15. A slit 17 is also provided on the zoom lens barrel 15. A vertical rod 18 is vertically installed below the zoom lens 16 and the vertical rod 18 passes through the slit 17 and is vertically fixed to the telescopic rod of the electric push rod 10. A laser head 19 is installed on the side of the zoom lens barrel 15. The laser head 19 is fixedly connected to the outlet connecting pipe 4 and the laser head 19 is connected to the electric wire. The lens heat dissipation assembly 12 is evenly arranged on the multi-stage lens barrel 13 and the zoom lens barrel 15.

[0033] The lens heat dissipation assembly 12 includes a sleeve 20, a claw 21, and a heat dissipation cylindrical block 22. A group of claws 21 are evenly installed on the tube mouth of the sleeve 20. The outer wall of the sleeve 20 is fixedly connected to the outer shell 3. A heat dissipation cylindrical block 22 is arranged inside the sleeve 20. Conformal heat dissipation blocks 23 are tightly fitted on both sides of the multi-stage lens barrel 13 and the zoom lens barrel 15. One end of the heat dissipation cylindrical block 22 is connected to the conformal heat dissipation block 23 as a whole. A group of heat dissipation bent fins 24 are arranged circumferentially in the cross-section center of the other end of the heat dissipation cylindrical block 22, and the heat dissipation bent fins 24 are integrated with the heat dissipation cylindrical block 22, and the heat dissipation bent fins 24 are stuck in the claws 21.

[0034] The number of the claws 21 is 4.

[0035] The heat dissipation cylindrical block 22, the conformal heat dissipation block 23 and the heat dissipation curved sheet 24 are all made of copper-based graphene composite materials.

[0036] The working principle of the present invention is as follows: determine the position of the unexploded bomb and set up the equipment, first open the tripod 1, install the theodolite 2 on the tripod 1, install the cooling fan 2-1, the housing 3, the outlet connecting pipe 4, the camera 5, the signal receiving line 6, the electric push rod 10, the lens mechanism 11 and the lens heat dissipation assembly 12 on the theodolite 2, remove the upper cover plate 7-2 of the box assembly 7, the whole composed of the vertical plate I 7-3 and the triangle plate I 7-4, and the whole composed of the vertical plate II 7-5 and the triangle plate II 7-6, respectively, insert the T-slot 7-9 of the triangle plate I 7-4 into the eight-shaped T-rail 7-12, and then install the triangle The T-slot 7-9 of plate II 7-6 is inserted into the parallel T-rail 7-11, the operator operates the handle 7-10 to vertically raise the cover plate 7-2 to cover the head area, the mobile power supply 9 is connected to the cooling fan 2-1, the camera 5, the electric push rod 10 and the lens mechanism 11 through the wires passing through the outlet connecting pipe 4, the staff operates the integrated control box 8 to make the camera 5 work, adjusts the camera 5 with one hand to determine the precise position of the unexploded bomb, the camera 5 feeds back the picture data to the integrated control box 8 in real time through the signal receiving line 6, after confirming that no one has entered the striking area, the integrated control box 8 is operated to make the laser head 19 work, and the electric push rod 10 is operated to make the laser head 19 work. The force push rod 10 is extended and retracted to adjust the zoom lens 16 in the zoom lens barrel 15 to converge the laser into the optimal state and start to hit the unexploded bomb. The staff stays away from the operating equipment. The heat absorbed by the optical lens 14 and the zoom lens 16 is quickly transferred to the multi-stage lens barrel 13 and the zoom lens barrel 15. The multi-stage lens barrel 13 and the zoom lens barrel 15 then pass the heat energy through the conformal heat dissipation block 23 in the lens heat dissipation assembly 12, through the heat dissipation cylindrical block 22, and finally through the heat dissipation curved plate 24 to dissipate the heat energy into the air. At the same time, the cooling fan 2-1 works to blow cold air to the heat dissipation curved plate 24, which quickly dissipates the heat absorbed by the optical lens 14 and the zoom lens 16, thereby protecting the lens. When heat enters the conformable heat sink block 23, the heat sink cylindrical block 22, and the heat sink curved sheet 24, the internal molecules expand due to heat, causing the overall volume to expand, and the heat sink curved sheet 24 becomes more curved, increasing air flow and making heat dissipation more efficient. After the destruction of unexploded bombs is completed, the laser head 19 no longer emits laser light, and no heat enters the conformable heat sink block 23, the heat sink cylindrical block 22, and the heat sink curved sheet 24, causing the internal molecules to expand due to heat. The heat sink curved sheet 24 returns to the set curved state, which is protected during the transportation process. If the shock wave generated by the explosion acts on the device to cause it to topple, the lens heat dissipation assembly 12 can also play a buffering role to protect the internal lens.

[0037] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. An unexploded bomb laser destroyer device, comprising a tripod (1), a theodolite (2), a cooling fan (2-1), a housing (3), an outlet connection pipe (4), a camera (5), a signal receiving line (6), a box assembly (7), an integrated control box (8), a mobile power supply (9), an electric push rod (10) and a lens mechanism (11), wherein the theodolite (2) is arranged on the tripod (1), the housing (3) is mounted on the theodolite (2), a cooling fan (2-1) is arranged below the housing (3) and the cooling fan (2-1) is connected to the housing (3) via a connecting rod (2-2), the outlet connection pipe (4) and the camera (5) are respectively mounted on the housing (3), and the signal receiving line (6) is mounted on the camera (5), characterized in that: An integrated control box (8) is arranged inside the box assembly (7), a mobile power source (9) is arranged below the integrated control box (8), an electric push rod (10) and a lens mechanism (11) are arranged inside the housing (3), the electric push rod (10) is installed transversely inside the housing (3), the mobile power source (9) is connected to the cooling fan (2-1), the camera (5), the electric push rod (10) and the lens mechanism (11) respectively through electric wires passing through the outlet connection pipe (4), a group of lens heat dissipation components (12) are arranged through the lens mechanism (11), and the lens heat dissipation components (12) are tightly connected to the cooling fan (2-1), the camera (5), the electric push rod (10) and the lens mechanism (11). The lens mechanism (11) is attached and the lens heat dissipation assembly (12) passes through the housing (3) and is fixedly connected to the housing (3). The lens mechanism (11) comprises a multi-stage lens barrel (13), an optical lens (14), a zoom lens barrel (15), a zoom lens (16) and a laser head (19). A group of optical lenses (14) are arranged in the multi-stage lens barrel (13). One end of the multi-stage lens barrel (13) extends out of the housing (3) and the other end is provided with a zoom lens barrel (15). The zoom lens (16) is arranged in the zoom lens barrel (15). A slit (17) is also provided on the zoom lens barrel (15). A vertical rod (18) is vertically installed below the zoom lens (16), and the vertical rod (18) passes through the slit (17) and is vertically fixed to the telescopic rod of the electric push rod (10). A laser head (19) is installed on the side of the zoom lens barrel (15), and the laser head (19) is fixedly connected to the outlet connecting pipe (4) and the laser head (19) is connected to the electric wire. A lens heat dissipation assembly (12) is evenly arranged on the multi-stage lens barrel (13) and the zoom lens barrel (15), and the lens heat dissipation assembly (12) includes a sleeve (20), a clamping claw (21), and a heat dissipation cylindrical block (22). The sleeve (20) is evenly installed at the pipe mouth A group of claws (21) are provided, the outer wall of the sleeve (20) is fixedly connected to the outer shell (3), a heat dissipation cylindrical block (22) is arranged inside the sleeve (20), and the two sides of the multi-stage lens barrel (13) and the zoom lens barrel (15) are respectively and tightly fitted with conformal heat dissipation blocks (23), one end of the heat dissipation cylindrical block (22) is connected to the conformal heat dissipation block (23) as a whole, and a group of heat dissipation bent fins (24) are arranged in the circumferential direction of the center of the cross section of the other end of the heat dissipation cylindrical block (22), and the heat dissipation bent fins (24) are formed as a whole with the heat dissipation cylindrical block (22), and the heat dissipation bent fins (24) are clamped in the claws (21).

2. The unexploded bomb laser destroyer device according to claim 1, characterized in that: The box assembly (7) comprises a base plate (7-1), an upper cover plate (7-2), a vertical plate I (7-3), a triangular plate I (7-4), a vertical plate II (7-5) and a triangular plate II (7-6); a group of vertical plates II (7-5) is vertically arranged on the vertical plate I (7-3); a group of triangular plates II (7-6) is vertically arranged on the vertical plate II (7-5); the triangular plates I (7-4) and the triangular plates II (7-6) are two congruent right triangles, and the hypotenuses of the triangular plates I (7-4) and the triangular plates II (7-6) are mutually abutted to form a rectangular shape; a group of buckles (7-7) are arranged on the base plate (7-1) and the upper cover plate (7-2); A group of lap grooves (7-8) are arranged on the vertical plate I (7-3) and the vertical plate II (7-5), the buckle (7-7) is matched and clamped with the lap grooves (7-8), the triangular plate I (7-4) and the triangular plate II (7-6) are both provided with T-shaped grooves (7-9), the inner surface of the T-shaped grooves (7-9) is provided with anti-skid grooves, a handle (7-10) is arranged on one side of the upper cover plate (7-2), and a group of parallel T-shaped rails (7-11) and eight-shaped T-shaped rails (7-12) are arranged on the other side, the eight-shaped T-shaped rails (7-12) are between the parallel T-shaped rails (7-11), and the parallel T-shaped rails (7-11) and the eight-shaped T-shaped rails (7-12) are both provided with anti-skid grooves.

3. The unexploded bomb laser destroyer device according to claim 1, characterized in that: The number of the claws (21) is four.

4. The unexploded bomb laser destroyer device according to claim 3, characterized in that: The heat dissipation cylindrical block (22), the conformal heat dissipation block (23) and the heat dissipation curved sheet (24) are all made of copper-based graphene composite materials.

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