Optical-mechanical-electrical sighting scope comprehensive test system and method

Abstract

The application relates to the technical field of scope testing, in particular to an opto-mechanical-electrical scope comprehensive testing system and method, which comprises a testing table, a falling test mechanism, a vibration test mechanism and an auxiliary test mechanism. The fixing of the opto-mechanical-electrical scope to be tested is completed by using a scope clamp, a height adjusting guide rail is started, a connecting plate drives a push plate to descend, the push plate exerts force on the scope clamp, the elastic assembly is in a compression state under the force, a rotating assembly is started, a rotating disc is driven to rotate, the push plate is separated from the top of the scope clamp, the scope clamp is reset under the restoring force of the elastic assembly, the impact test of the opto-mechanical-electrical scope is simulated by the restoring force of the restoring force of the elastic assembly, the influence of the forward reset thrust of the firearm recoil spring on the opto-mechanical-electrical scope is simulated by adopting the above structure, and the test of the opto-mechanical-electrical scope is more comprehensive.

Description

Technical Field

[0001] This invention relates to the field of scope testing technology, and in particular to an opto-electro-mechanical scope integrated testing system and method. Background Technology

[0002] Opto-electro-mechanical sights, also known as electro-optical sights, are devices that combine optical, mechanical, and electronic components to achieve precise aiming. When using an opto-electro-mechanical sight, it is common for the sight or the weapon to fall to the ground due to the user's carelessness. Therefore, before leaving the factory, sights generally undergo drop impact tests to study the effects of drops on the sight. Furthermore, during repeated transfers or transportations, the sight may sway from side to side, so it is necessary to study the effects of bumps or swaying on the sight.

[0003] Therefore, patent document CN103674464A discloses a comprehensive testing platform for a sight, including a base and a main column. The main column has vertical first guide rails on both sides and sliders that can slide along the first guide rails. The sliders are fixedly connected to the sight via a first clamp. A horizontally extendable second guide rail, perpendicular to the first guide rail, is located in the middle of the main column. A detachable second clamp, which can slide along the second guide rail, is mounted on the second guide rail. The other end of the second clamp is fixedly connected to the sight. A detachable impact baffle is fixed at the connection between the first and second guide rails. With this structure, the slider drives the sight to slide up and down along the first guide rail, impacting the base and simulating a drop test. The second clamp drives the sight to slide left and right along the second guide rail, impacting the impact baffles on both sides and simulating a vibration test. This multi-functional platform saves costs and space. During use, only simple disassembly and assembly are required, making it convenient to use.

[0004] However, the existing comprehensive testing platform for sights can only conduct drop tests and vibration tests on opto-mechatronic sights, which is not comprehensive enough for testing opto-mechatronic sights. Summary of the Invention

[0005] The purpose of this invention is to provide a comprehensive testing system and method for opto-mechatronic sights, which aims to solve the technical problem that existing sight testing stands can only perform drop tests and vibration tests on opto-mechatronic sights, and the testing of opto-mechatronic sights is not comprehensive enough.

[0006] To achieve the above objectives, the present invention provides an opto-mechatronic sight integrated testing system, including a test platform, a drop test mechanism, a vibration test mechanism, and an auxiliary test mechanism, wherein the drop test mechanism and the vibration test mechanism are provided on the test platform; The auxiliary testing mechanism includes a test frame, an elastic component, a force-applying plate, a scope clamp, a height adjustment rail, a connecting plate, a mounting base, a rotating component, a rotating disk, and a push plate. The test frame is installed on one side of the test platform. The elastic component is located at the bottom of the test frame, and the force-applying plate is located on the elastic component. The scope clamp is located on the upper surface of the force-applying plate. The height adjustment rail is installed at the top of the test frame, and the connecting plate is located at the output end of the height adjustment rail. The mounting base is installed on the connecting plate, and the rotating disk is rotatably mounted at the end of the mounting base. The rotating component is located inside the mounting base, and the output end of the rotating component is mechanically driven by the rotating disk. The push plate is located on the side of the rotating disk away from the mounting base, and the push plate is located above the scope clamp.

[0007] The height adjustment guide rail includes a guide rail body, a sliding seat, and a drive assembly. The guide rail body is mounted on the test frame. The sliding seat is slidably disposed on the side of the guide rail body facing the scope clamp. The drive assembly is disposed inside the guide rail body. The output end of the drive assembly is connected to the sliding seat. The connecting plate is disposed on the sliding seat.

[0008] The drive assembly includes a servo motor, a threaded rod, and a ball screw nut assembly. The servo motor is installed inside the guide rail body. The output end of the servo motor is provided with the threaded rod, and the ball screw nut assembly is provided on the threaded rod. The ball screw nut assembly is connected to the sliding seat.

[0009] The rotating assembly includes a drive motor and an output gear. The rotating disk has a driven tooth on one side inside the mounting base. The drive motor is installed inside the mounting base, and the output gear is provided at the output end of the drive motor. The output gear meshes with the driven tooth.

[0010] The elastic component includes a mounting plate and a compression spring. The mounting plate is mounted on the bottom of the test frame via multiple connecting rods. The compression spring is mounted on the mounting plate, and the force-applying plate is located at the top of the compression spring.

[0011] The drop test mechanism includes a vertical slide rail, a first slider, and a first electrically controlled clamp. The vertical slide rail is installed inside the test platform, the first slider is slidably mounted on the vertical slide rail, and the first electrically controlled clamp is mounted on the first slider.

[0012] The vibration testing mechanism includes a transverse slide rail, a second slider, and a second electrically controlled clamp. The transverse slide rail is installed inside the test bench, and the second slider is slidably mounted on the transverse slide rail. The second electrically controlled clamp is mounted on the second slider, and impact baffles are provided at both ends of the transverse slide rail.

[0013] The opto-electro-mechanical sight integrated testing system also includes an auxiliary support component. The auxiliary support component is provided at the end of the threaded rod away from the servo motor. One end of the auxiliary support component is located outside the threaded rod, and the other end of the auxiliary support component is installed inside the guide rail body.

[0014] The auxiliary support component includes a fixing block, a support block, and a support ring. The fixing block is provided at one end of the support block, and the support ring is provided at the other end of the support block. The support ring is located outside the threaded rod, and the fixing block is detachably connected to the guide rail body.

[0015] This invention also provides a comprehensive testing method for opto-mechatronic sights, applied to the comprehensive testing system for opto-mechatronic sights as described above, comprising the following steps: The opto-electro-mechanical sight to be tested is placed in the test platform, and the opto-electro-mechanical sight is subjected to a drop test using the drop test mechanism and a vibration test using the vibration test mechanism. The scope clamp is used to fix the opto-electro-mechanical scope to be tested. The height adjustment rail is activated, and the push plate is driven to descend through the connecting plate. The push plate applies force to the scope clamp, so that the elastic component is under compression. The rotating assembly is activated, causing the rotating disk to rotate, which causes the push plate to disengage from the top of the scope holder. The scope holder is then reset under the restoring force of the elastic assembly. The impact test on the opto-electro-mechanical scope is performed by mimicking the forward resetting force of a firearm recoil spring through the restoring force of the elastic assembly.

[0016] This invention discloses a comprehensive testing system and method for an opto-mechatronic sight, comprising a test platform, a drop test mechanism, a vibration test mechanism, and an auxiliary test mechanism. The auxiliary test mechanism includes a test frame, an elastic component, a force-applying plate, a sight clamp, a height adjustment rail, a connecting plate, a mounting base, a rotating component, a rotating disk, and a push plate. The sight clamp secures the opto-mechatronic sight to be tested. The height adjustment rail is activated, causing the push plate to descend via the connecting plate. The push plate applies force to the sight clamp, compressing the elastic component. The rotating component is activated, causing the rotating disk to rotate, disengaging the push plate from the top of the sight clamp. The sight clamp resets under the restoring force of the elastic component. The restoring force of the elastic component simulates the impact test of a gun recoil spring's forward reset force on the opto-mechatronic sight. This structure simulates the effect of a gun recoil spring's forward reset force on the opto-mechatronic sight, making the testing of the sight more comprehensive. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the structure of the opto-mechatronic sight integrated testing system according to the first embodiment of the present invention.

[0019] Figure 2 This invention provides Figure 1 A magnified view of the local structure at point A.

[0020] Figure 3 This is a schematic diagram of the auxiliary testing mechanism in the first embodiment of the present invention.

[0021] Figure 4 This invention provides Figure 3 A magnified view of the local structure at point B.

[0022] Figure 5 This is a schematic diagram of the disassembled structure of the rotating disk and the mounting base in the first embodiment of the present invention.

[0023] Figure 6 This is a partial structural schematic diagram of the auxiliary testing mechanism in the second embodiment of the present invention.

[0024] Figure 7 This is a flowchart of the steps in the integrated testing method for opto-mechatronic sights provided by the present invention.

[0025] 101-Test stand, 102-Test frame, 103-Force plate, 104-Sight scope fixture, 105-Connecting plate, 106-Mounting base, 107-Rotating disk, 108-Push plate, 109-Guide rail body, 110-Sliding seat, 111-Servo motor, 112-Threaded rod, 113-Ball screw nut pair, 114-Drive motor, 115-Output gear, 116-Mounting plate, 117-Compression spring, 118-Vertical slide rail, 119-First slider, 120-First electric control fixture, 121-Transverse slide rail, 122-Second slider, 123-Second electric control fixture, 124-Impact baffle, 125-Driven gear, 126-Connecting rod, 201-Fixing block, 202-Support block, 203-Support ring. Detailed Implementation

[0026] Embodiments of the present invention are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, and should not be construed as limiting the present invention.

[0027] First embodiment: Please see Figures 1 to 5 ,in Figure 1 This is a schematic diagram of the structure of the opto-mechatronic sight integrated testing system of the first embodiment. Figure 2 yes Figure 1 A magnified view of the local structure at point A. Figure 3 This is a schematic diagram of the auxiliary testing mechanism in the first embodiment. Figure 4 yes Figure 3 A magnified view of the local structure at point B. Figure 5 This is a schematic diagram of the disassembled structure of the rotating disk and the mounting base in the first embodiment.

[0028] This invention provides a comprehensive testing system for opto-mechatronic sights, comprising a test platform 101, a drop test mechanism, a vibration test mechanism, and an auxiliary test mechanism. The auxiliary test mechanism includes a test frame 102, an elastic component, a force application plate 103, a sight clamp 104, a height adjustment guide rail, a connecting plate 105, a mounting base 106, a rotating component, a rotating disk 107, and a push plate 108. The height adjustment guide rail includes a guide rail body 109, a sliding base 110, and a drive component. The drive component includes a servo motor 111, a threaded rod 112, and a ball screw and nut assembly 113. The rotating component includes a drive motor 114 and an output gear 115. The elastic component includes a mounting plate 116 and a compression spring 117. The drop test mechanism includes a vertical slide rail 118, a first slider 119, and a first electrically controlled clamp 120. The vibration test mechanism includes a horizontal slide rail 121, a second slider 122, and a second electrically controlled clamp 123. The aforementioned solution addresses the problem that the existing integrated testing platform 101 for sights can only perform drop and vibration tests on opto-mechatronic sights, and its testing capabilities for opto-mechatronic sights are not comprehensive enough. It is understood that the aforementioned solution can be applied to the structure of integrated testing equipment for opto-mechatronic sights.

[0029] In this specific embodiment, the vertical slide rail 118 is installed inside the test bench 101, and the first slider 119 is slidably mounted on the vertical slide rail 118. The first electrically controlled clamp 120 is mounted on the first slider 119. The horizontal slide rail 121 is installed inside the test bench 101, and the second slider 122 is slidably mounted on the horizontal slide rail 121. The second electrically controlled clamp 123 is mounted on the second slider 122. Impact baffles 124 are provided at both ends of the horizontal slide rail 121 to hold the optomechanical components to be tested. The electronic sight is placed on the first electronically controlled clamp 120. After adjusting the height of the first electronically controlled clamp 120 through the cooperation of the vertical slide rail and the first slider 119, the first electronically controlled clamp 120 releases the sight, and the sight falls from a height, thus completing the drop test of the sight. The opto-mechanical sight to be tested is placed on the second electronically controlled clamp 123. Through the cooperation of the horizontal slide rail 121 and the second slider 122, the sight impacts the two impact baffles 124, thus completing the vibration test of the sight.

[0030] The test frame 102 is mounted on one side of the test bench 101. The elastic component is located at the bottom of the test frame 102, and a force-applying plate 103 is mounted on the elastic component. A scope clamp 104 is mounted on the upper surface of the force-applying plate 103. A height-adjusting guide rail is mounted at the top of the test frame 102. A connecting plate 105 is located at the output end of the height-adjusting guide rail. A mounting base 106 is mounted on the connecting plate 105. A rotating disk 107 is rotatably mounted at the end of the mounting base 106. A rotating component is located inside the mounting base 106, and the output end of the rotating component is mechanically driven by the rotating disk 107. A push plate 108 is located on the side of the rotating disk 107 away from the mounting base 106, and the push plate 108 is positioned near the scope clamp. Above 104, the scope clamp 104 is used to fix the opto-electro-mechanical scope to be tested. The height adjustment guide rail is activated, and the push plate 108 is driven to descend through the connecting plate 105. The push plate 108 applies force to the scope clamp 104, so that the elastic component is under compression. The rotating component is activated, which drives the rotating disk 107 to rotate, so that the push plate 108 is disengaged from above the scope clamp 104. The scope clamp 104 resets under the action of the restoring force of the elastic component. The restoring force of the elastic component simulates the impact test of the forward reset thrust of the recoil spring on the opto-electro-mechanical scope. With the above structure, the impact of the forward reset thrust of the recoil spring on the opto-electro-mechanical scope can be simulated, making the test of the opto-electro-mechanical scope more comprehensive.

[0031] Secondly, the guide rail body 109 is mounted on the test frame 102. The guide rail body 109 has a sliding seat 110 slidably mounted on the side facing the scope clamp 104. The sliding seat 110 is provided with the connecting plate 105. The servo motor 111 is mounted inside the guide rail body 109. The output end of the servo motor 111 is provided with the threaded rod 112. The threaded rod 112 is provided with the ball screw nut pair 113. The ball screw nut pair 113 is connected to the sliding seat 110. When the servo motor 111 is started, it drives the threaded rod 112 to rotate. Since the ball screw nut pair 113 is connected to the sliding seat 110, it drives the sliding seat 110 to slide on the guide rail body 109. The height of the mounting base 106 is then adjusted by the connecting plate 105.

[0032] Meanwhile, the rotating disk 107 is provided with a driven tooth 125 on one side inside the mounting base 106. The drive motor 114 is installed inside the mounting base 106, and the output end of the drive motor 114 is provided with an output gear 115. The output gear 115 meshes with the driven tooth 125. When the drive motor 114 is started, the output gear 115 is driven to rotate. Since the output gear 115 meshes with the driven tooth 125, the rotating disk 107 is driven to rotate on the mounting base 106.

[0033] In addition, the mounting plate 116 is installed at the bottom of the test frame 102 via multiple connecting rods 126. The compression spring 117 is provided on the mounting plate 116, and the force-applying plate 103 is located at the top of the compression spring 117. The mounting plate 116 is installed by means of the connecting rods 126. Since the force-applying plate 103 is located at the top of the compression spring 117, the compression spring 117 deforms when the force-applying plate 103 is subjected to force and descends.

[0034] When using the opto-mechatronic sight integrated testing system of this embodiment, the opto-mechatronic sight to be tested is placed on the first electronically controlled clamp 120. After adjusting the height of the first electronically controlled clamp 120 through the cooperation of the vertical slide rail and the first slider 119, the first electronically controlled clamp 120 releases the sight, and the sight falls from a height, thereby completing the drop test of the sight. The opto-mechatronic sight to be tested is then placed on the second electronically controlled clamp 123. Through the cooperation of the horizontal slide rail 121 and the second slider 122, the sight impacts the two impact baffles 124, thereby completing the vibration test of the sight. The sight clamp 104 is used to fix the opto-mechatronic sight to be tested. Once the height adjustment guide rail is activated, the push plate 108 is lowered via the connecting plate 105. The push plate 108 applies force to the scope clamp 104, causing the elastic component to be compressed. The rotating component is then activated, causing the rotating disk 107 to rotate, disengaging the push plate 108 from the scope clamp 104. The scope clamp 104 resets under the restoring force of the elastic component. The restoring force of the elastic component simulates the impact test of the forward reset thrust of a firearm recoil spring on the opto-electro-mechanical scope. By adopting the above structure, the impact of the forward reset thrust of a firearm recoil spring on the opto-electro-mechanical scope can be simulated, making the testing of the opto-electro-mechanical scope more comprehensive.

[0035] Second embodiment: Based on the first embodiment, please refer to Figure 6 , Figure 6This is a partial structural diagram of the auxiliary testing mechanism in the second embodiment.

[0036] The present invention provides an opto-electro-mechanical sight integrated testing system, which also includes an auxiliary support component, comprising a fixing block 201, a support block 202, and a support ring 203.

[0037] In this specific embodiment, the threaded rod 112 is provided with an auxiliary support at one end away from the servo motor 111. One end of the auxiliary support is located outside the threaded rod 112, and the other end of the auxiliary support is installed inside the guide rail body 109. The auxiliary support provides auxiliary support for the threaded rod 112, making the structure more stable when the threaded rod 112 rotates.

[0038] The support block 202 has a fixing block 201 at one end and a support ring 203 at the other end. After the support ring 203 is placed outside the threaded rod 112, the fixing block 201 is fixed inside the guide rail body 109, thereby completing the installation of the auxiliary support component.

[0039] When using the opto-electro-mechanical sight integrated testing system of this embodiment, after the support ring 203 is set outside the threaded rod 112, the fixing block 201 is fixed inside the guide rail body 109, thereby completing the installation of the auxiliary support component. The threaded rod 112 is provided with auxiliary support by the setting of the auxiliary support component, so that the structure of the threaded rod 112 is more stable when it rotates.

[0040] Please see Figure 7 The present invention also provides a method for comprehensive testing of opto-mechatronic sights, applied to the comprehensive testing system for opto-mechatronic sights as described above, comprising the following steps: S1: Place the opto-electromechanical sight to be tested in the test platform 101, and use the drop test mechanism to conduct a drop test on the opto-electromechanical sight, and use the vibration test mechanism to conduct a vibration test on the opto-electromechanical sight; S2: The scope clamp 104 is used to fix the opto-electro-mechanical scope to be tested. The height adjustment guide rail is activated, and the push plate 108 is driven to descend through the connecting plate 105. The push plate 108 applies force to the scope clamp 104, so that the elastic component is under compression. S3: Activate the rotating component to drive the rotating disk 107 to rotate, causing the push plate 108 to disengage from above the scope clamp 104. The scope clamp 104 resets under the action of the restoring force of the elastic component. The impact test on the opto-electro-mechanical scope is simulated by the restoring force of the elastic component mimicking the forward reset thrust of the recoil spring of a firearm.

[0041] In this embodiment, the opto-mechanical sight to be tested is placed on the first electronically controlled clamp 120. After adjusting the height of the first electronically controlled clamp 120 by cooperating with the vertical slide rail and the first slider 119, the first electronically controlled clamp 120 releases the sight, causing it to drop from a height, thus completing the drop test. The opto-mechanical sight to be tested is then placed on the second electronically controlled clamp 123. Through the cooperation of the horizontal slide rail 121 and the second slider 122, the sight impacts the two impact baffles 124, thus completing the vibration test. The sight clamp 104 is used to fix the opto-mechanical sight to be tested. The high-speed... The angle adjustment guide rail, through the connecting plate 105, drives the push plate 108 to descend. The push plate 108 applies force to the scope clamp 104, causing the elastic component to be compressed. The rotating component is activated, driving the rotating disk 107 to rotate, causing the push plate 108 to disengage from the top of the scope clamp 104. The scope clamp 104 resets under the restoring force of the elastic component. The restoring force of the elastic component simulates the impact test of the forward reset thrust of a gun recoil spring on the opto-electro-mechanical scope. Using the above structure, the impact of the forward reset thrust of a gun recoil spring on the opto-electro-mechanical scope can be simulated, making the test of the opto-electro-mechanical scope more comprehensive.

[0042] The above description discloses only one preferred embodiment of the present invention, and should not be construed as limiting the scope of the present invention. Those skilled in the art will understand that all or part of the processes of the above embodiments can be implemented, and equivalent changes made in accordance with the claims of the present invention are still within the scope of the invention.

Claims

1. A comprehensive testing system for an opto-mechatronic sight, comprising a test platform, a drop testing mechanism, and a vibration testing mechanism, wherein the drop testing mechanism and the vibration testing mechanism are disposed on the test platform, characterized in that, It also includes auxiliary testing organizations; The auxiliary testing mechanism includes a test frame, an elastic component, a force-applying plate, a scope clamp, a height adjustment rail, a connecting plate, a mounting base, a rotating component, a rotating disk, and a push plate. The test frame is installed on one side of the test platform. The elastic component is located at the bottom of the test frame, and the force-applying plate is located on the elastic component. The scope clamp is located on the upper surface of the force-applying plate. The height adjustment rail is installed at the top of the test frame, and the connecting plate is located at the output end of the height adjustment rail. The mounting base is installed on the connecting plate, and the rotating disk is rotatably mounted at the end of the mounting base. The rotating component is located inside the mounting base, and the output end of the rotating component is mechanically driven by the rotating disk. The push plate is located on the side of the rotating disk away from the mounting base, and the push plate is located above the scope clamp.

2. The opto-mechatronic sight integrated testing system as described in claim 1, characterized in that, The height adjustment guide rail includes a guide rail body, a sliding seat, and a drive assembly. The guide rail body is mounted on the test frame. The sliding seat is slidably disposed on the side of the guide rail body facing the scope clamp. The drive assembly is disposed inside the guide rail body. The output end of the drive assembly is connected to the sliding seat. The connecting plate is disposed on the sliding seat.

3. The opto-mechatronic sight integrated testing system as described in claim 2, characterized in that, The drive assembly includes a servo motor, a threaded rod, and a ball screw nut assembly. The servo motor is installed inside the guide rail body. The output end of the servo motor is provided with the threaded rod, and the ball screw nut assembly is provided on the threaded rod. The ball screw nut assembly is connected to the sliding seat.

4. The opto-mechatronic sight integrated testing system as described in claim 1, characterized in that, The rotating assembly includes a drive motor and an output gear. The rotating disk has a driven tooth on one side inside the mounting base. The drive motor is installed inside the mounting base, and the output gear is provided at the output end of the drive motor. The output gear meshes with the driven tooth.

5. The opto-mechatronic sight integrated testing system as described in claim 1, characterized in that, The elastic component includes a mounting plate and a compression spring. The mounting plate is mounted on the bottom of the test frame via multiple connecting rods. The compression spring is mounted on the mounting plate, and the force-applying plate is located at the top of the compression spring.

6. The opto-mechatronic sight integrated testing system as described in claim 1, characterized in that, The drop test mechanism includes a vertical slide rail, a first slider, and a first electrically controlled clamp. The vertical slide rail is installed inside the test platform, the first slider is slidably mounted on the vertical slide rail, and the first electrically controlled clamp is mounted on the first slider.

7. The opto-mechatronic sight integrated testing system as described in claim 1, characterized in that, The vibration testing mechanism includes a transverse slide rail, a second slider, and a second electrically controlled clamp. The transverse slide rail is installed inside the test bench, and the second slider is slidably mounted on the transverse slide rail. The second electrically controlled clamp is mounted on the second slider, and impact baffles are provided at both ends of the transverse slide rail.

8. The opto-mechatronic sight integrated testing system as described in claim 3, characterized in that, The opto-electro-mechanical sight integrated testing system also includes an auxiliary support component. The auxiliary support component is provided at the end of the threaded rod away from the servo motor. One end of the auxiliary support component is located outside the threaded rod, and the other end of the auxiliary support component is installed inside the guide rail body.

9. The opto-mechatronic sight integrated testing system as described in claim 8, characterized in that, The auxiliary support component includes a fixing block, a support block, and a support ring. The fixing block is provided at one end of the support block, and the support ring is provided at the other end of the support block. The support ring is located outside the threaded rod, and the fixing block is detachably connected to the guide rail body.

10. A method for optomechanical riflescope integrated testing, applied to the optomechanical riflescope integrated testing system according to claim 1, characterized in that, Includes the following steps: The opto-electro-mechanical sight to be tested is placed in the test platform, and the opto-electro-mechanical sight is subjected to a drop test using the drop test mechanism and a vibration test using the vibration test mechanism. The scope clamp is used to fix the opto-electro-mechanical scope to be tested. The height adjustment rail is activated, and the push plate is driven to descend through the connecting plate. The push plate applies force to the scope clamp, so that the elastic component is under compression. The rotating assembly is activated, causing the rotating disk to rotate, which causes the push plate to disengage from the top of the scope holder. The scope holder is then reset under the restoring force of the elastic assembly. The impact test on the opto-electro-mechanical scope is performed by mimicking the forward resetting force of a firearm recoil spring through the restoring force of the elastic assembly.

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