An automated optical lens correction device for a sight

Abstract

This invention provides an automated optical lens correction device for a sight, comprising: a base; a positioning mechanism; an optical path simulation and vision inspection mechanism; a multi-dimensional adjustment mechanism; a first adjustment mechanism; a second adjustment mechanism; and a curing mechanism. The positioning mechanism clamps the product. The first and second adjustment mechanisms enter from the side. A collimator on the optical path simulation and vision inspection mechanism generates a simulated optical path that passes vertically through the sight, providing a simulated long-distance reference target. The simulated optical path passes through a beam splitter. Two perpendicularly positioned vision cameras on the optical path simulation and vision inspection mechanism converge the field of view to the reference target generated by the collimator. The first and second adjustment mechanisms adjust the adjusting screws on the sight, thereby aligning the red dot of the sight with the reference target. After correction, the lens on the sight is cured with adhesive by the curing mechanism. This method offers high correction efficiency and high accuracy.

Description

Technical Field

[0001] This invention belongs to the field of aiming device testing technology, and in particular relates to an automated optical lens correction device for aiming devices. Background Technology

[0002] A sight (also known as an optical sight, aiming device, or rifle sight) is an optical instrument used to improve shooting accuracy. It is typically mounted on firearms, crossbows, telescopes, stage lights, or other shooting weapons. Its core function is to help the user observe the target more clearly and improve the hit rate.

[0003] During the production process, the lens in the sight needs to be calibrated and inspected. Currently, calibration is performed manually by visual inspection, which is not only inefficient but also prone to errors and unstable. Summary of the Invention

[0004] The purpose of this invention is to provide an automated optical lens correction device for a sight, so as to solve the problems mentioned in the background art.

[0005] In view of this, the present invention provides an automated optical lens correction device for a sight, comprising:

[0006] Base;

[0007] A positioning mechanism used to hold the sight being tested;

[0008] An optical path simulation and visual inspection mechanism is set on the base, and a positioning mechanism is set in the middle of the optical path simulation and visual inspection mechanism. The optical path simulation and visual inspection mechanism is used to generate a simulated optical path to generate a reference target center that coincides with the red dot of the sight for adjustment.

[0009] A multi-dimensional adjustment mechanism is set on the base and located next to the optical path simulation and visual inspection mechanism. It is used to hold the aiming device and realize six-dimensional swing adjustment.

[0010] The first adjustment mechanism is located on the base and outside the optical path simulation and visual inspection mechanism, and is used to turn the adjustment screw on the outer side of the aiming device.

[0011] The second adjustment mechanism is located on the base and outside the optical path simulation and visual inspection mechanism. It is used to turn the adjustment screw on the other side of the sight. Through the cooperation of the first adjustment mechanism and the second adjustment mechanism, the red dot of the sight is adjusted to coincide with the reference target center.

[0012] A curing mechanism, located on the base, is used to apply adhesive to the lens on the calibrated sight.

[0013] In a further embodiment of the present invention, the positioning mechanism includes a clamp body seat, a reference seat is fixed on the clamp body seat, and two clamping cylinders are provided on the clamp body seat. The aiming device is placed on the reference seat, and the aiming device is fixedly constrained on the reference seat by the two clamping cylinders.

[0014] In a further embodiment of the present invention, the reference base is provided with an adsorption hole, which is connected to a vacuum generator to generate negative pressure and adsorb the aiming device. The fixture body is also provided with a first cylinder, the output end of which is connected to a probe. The fixture body is also provided with a power supply, the probe is connected to the power supply, and the other end of the probe makes conductive contact with the power supply part of the aiming device to supply power to the aiming device.

[0015] In a further embodiment of the present invention, the optical path simulation and visual inspection mechanism includes a first bracket, which is fixed on a base. A collimator is fixed to the top of the first bracket, and a second bracket is also fixed on the first bracket. A beam splitter is fixed to the front end of the second bracket, and a visual camera is provided at both the rear end and the bottom end of the second bracket. The two visual cameras take pictures from the side and bottom of the beam splitter, respectively. The collimator is used to generate a vertical simulated optical path that is directed toward the beam splitter. The beam splitter is used to converge the fields of view of the two visual cameras to the target of the collimator. The collimator generates a reference target and the target of the collimator are located in the same field of view for correction.

[0016] In a further embodiment of the present invention, the multi-dimensional adjustment mechanism includes a first support base, a second support base, a third support base, a fourth support base, a fifth support base, a first rotating assembly, a second rotating assembly, a third rotating assembly, and a clamping assembly. The first support base is fixed on the base. The second support base is movably connected to the first support base along the Y direction. The third support base is movably connected to the second support base along the X direction. The fourth support base is vertically fixed on the third support base. The fifth support base is movably connected to the fourth support base along the Z direction. The clamping assembly is mounted on one side of the first rotating assembly and is used to clamp the sight. The first rotating assembly is capable of rotating along the Z direction. The second rotating assembly is connected to the first rotating assembly and drives the first rotating assembly to rotate along the Y direction. The second rotating assembly is connected to the third rotating assembly. The third rotating assembly is connected to the fifth support base and drives the first rotating assembly, the second rotating assembly, and the clamping assembly to rotate along the X direction.

[0017] In a further embodiment of the present invention, the first rotating assembly, the second rotating assembly, and the third rotating assembly are identical. The third rotating assembly includes a second cylinder, a first positioning plate, and a second positioning plate. The first positioning plate is slidably disposed on a fifth support seat, and the second positioning plate is slidably disposed on the first positioning plate. A sixth support seat is provided on the first positioning plate, and the second rotating assembly is disposed on the sixth support seat. The second cylinder is mounted on the fifth support seat, and its output end is driven to connect to the side of the first positioning plate. The first positioning plate and the second positioning plate are engaged by an arc-shaped surface, so that when the second cylinder pushes the first positioning plate to move, it pushes the second positioning plate to rotate along the X direction.

[0018] In a further embodiment of the present invention, the first adjustment mechanism is identical to the second adjustment mechanism. The first adjustment mechanism includes a first slide, a second slide, a third slide, a torque motor, a dynamic torque sensor, and a bit. The first slide is fixed on the base, the second slide is slidably disposed on the first slide, the third slide is movably disposed on the second slide, the torque motor is fixed on the top of the third slide, the dynamic torque sensor is connected to the output end of the torque motor, and the bit is fixed on the other end of the dynamic torque sensor. The bit is used to twist the adjustment screw on the sight.

[0019] In a further embodiment of the present invention, the curing mechanism includes a slide cylinder mounted on the fixture body seat, the slide cylinder being located above the positioning mechanism, and the UV lamp being mounted on the slide cylinder via a fixing seat.

[0020] In a further embodiment of the present invention, the base is a marble base, and rubber vibration damping pads are fixed around the bottom of the base.

[0021] In a further embodiment of the present invention, the base is mounted on a frame, and the frame is provided with an outer cover, which is provided with buttons and indicator lights.

[0022] The beneficial effects of this invention are:

[0023] This aiming device mainly includes: a positioning mechanism, an optical path simulation and vision inspection mechanism, a multi-dimensional adjustment mechanism, a first adjustment mechanism, a second adjustment mechanism, and a curing mechanism. The aiming device is fed into the positioning mechanism for clamping. The first and second adjustment mechanisms allow for side-view entry. A collimator on the optical path simulation and vision inspection mechanism generates a simulated optical path that passes vertically through the aiming device, providing a simulated long-distance reference target. The simulated optical path passes through a beam splitter, and two vertically positioned vision cameras on the optical path simulation and vision inspection mechanism converge the field of view to the reference target generated by the collimator. The first and second adjustment mechanisms adjust the adjusting screws on the aiming device, aligning the red dot of the aiming device with the reference target. The multi-dimensional adjustment mechanism clamps the aiming device and drives it to swing in six degrees of freedom, achieving omnidirectional parallax detection and correction. After correction, the lens on the aiming device is cured with adhesive by the curing mechanism, maintaining the product's optimal performance. The device boasts high correction efficiency and accuracy. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0025] Figure 2 This is a schematic diagram of an automated optical lens correction device for a sight;

[0026] Figure 3 This is a schematic diagram of the positioning mechanism;

[0027] Figure 4 This is a schematic diagram of the optical path simulation and visual inspection mechanism;

[0028] Figure 5 This is a schematic diagram of the multi-dimensional adjustment mechanism;

[0029] Figure 6 This is a schematic diagram of the first regulating mechanism;

[0030] Figure 7 This is a schematic diagram of the curing mechanism;

[0031] Figure 8 This is a structural diagram of the base. Detailed Implementation

[0032] The technical solutions in the embodiments of this application are clearly described below. Obviously, the described embodiments are only some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application are within the scope of protection of this application.

[0033] This embodiment provides an automated optical lens correction device for a sight, including:

[0034] The base 1 is preferably a marble base 1, and rubber vibration damping pads 10 are fixed around the bottom of the base 1. The base 1 supports the entire equipment, effectively ensuring the flatness and rigidity of the base 1, isolating external vibration, and thus improving the accuracy of the calibration. The base 1 is set on the frame 11, and the frame 11 is provided with an outer cover 12. The outer cover 12 is provided with buttons 13 and indicator lights 14.

[0035] Positioning mechanism 2 is used to hold the sight being tested;

[0036] The optical path simulation and visual inspection mechanism 3 is set on the base 1, and the positioning mechanism 2 is set in the middle of the optical path simulation and visual inspection mechanism 3. The optical path simulation and visual inspection mechanism 3 is used to generate a simulated optical path to generate a reference target center that coincides with the red dot of the aiming device for adjustment.

[0037] A multi-dimensional adjustment mechanism 4 is set on the base 1 and located next to the optical path simulation and visual inspection mechanism 3. It is used to hold the aiming device and realize six-dimensional swing adjustment.

[0038] The first adjustment mechanism 5 is located on the base 1 and outside the optical path simulation and visual inspection mechanism 3, and is used to turn the adjustment screw on the outer side of the aiming device.

[0039] The second adjustment mechanism 6 is located on the base 1 and outside the optical path simulation and visual inspection mechanism 3. It is used to turn the adjustment screw on the other side of the sight. The first adjustment mechanism 5 and the second adjustment mechanism 6 cooperate to adjust the red dot of the sight to coincide with the reference target.

[0040] The curing mechanism 7 is provided on the base 1 and is used to cure the lens on the corrected sight with glue.

[0041] In a further embodiment of the present invention, the positioning mechanism 2 includes a clamp body seat 20, a reference seat 21 fixed on the clamp body seat 20, two clamping cylinders 22 on the clamp body seat 20, and an adsorption hole on the reference seat 21. The adsorption hole is connected to a vacuum generator to generate negative pressure and adsorb the aiming device. The aiming device is placed on the reference seat 21, and the aiming device is fixed and constrained on the reference seat 21 by the two clamping cylinders 22. When the product is loaded onto the reference seat 21, the vacuum generator generates negative pressure to firmly fix the product on the reference seat 21 through the adsorption hole, and at the same time, the clamping cylinders 22 fix the product again, achieving double fixation.

[0042] In this embodiment, the fixture body 20 is further provided with a first cylinder 23, the output end of the first cylinder 23 is connected to a probe 24, the fixture body 20 is also provided with a power supply 25, the probe 24 is connected to the power supply 25, and the other end of the probe 24 is in conductive contact with the power supply part of the sight to provide power to the sight, thereby providing 3V power to the sight, so as to facilitate the sight to generate a red dot.

[0043] In this embodiment, the optical path simulation and visual inspection mechanism 3 further includes a first support 30, which is fixed to the base 1. A collimator 31 is fixed to the top of the first support 30. A second support 32 is also fixed to the first support 30. A beam splitter 33 is fixed to the front end of the second support 32. A visual camera 34 is provided at both the rear end and the bottom end of the second support 32. The two visual cameras 34 take pictures from the side and bottom of the beam splitter 33, respectively. The collimator 31 is used to generate a perpendicular simulated optical path directed towards the beam splitter 33. The beam splitter 33 is used to converge the fields of view of the two vision cameras 34 to the target of the collimator 31. The collimator 31 generates a reference target and the target of the collimator 31 are located in the same field of view for correction. The collimator 31 generates a simulated light path that passes vertically through the aiming device and provides a simulated long-distance reference target. The simulated light path passes through the beam splitter 33. The two vision cameras 34, which are set vertically on the optical path simulation and vision detection mechanism 3, converge the fields of view to the reference target generated by the collimator 31 to perform red dot coincidence correction and parallax detection.

[0044] Furthermore, the optical path simulation and visual inspection mechanism 3 uses two vertically arranged visual cameras 34 (side and bottom) to simultaneously capture optical defects (such as scratches, bubbles, uneven coating, etc.) of the sight lens in the horizontal and vertical directions through the light path refraction of the beam splitter 33. When the simulated light path of the collimator 31 passes through the lens, if there are defects, it will cause abnormal light path scattering or refraction. The visual camera 34 captures the abnormal shadows or light spot deformation of the target image. Combined with algorithm analysis, the defect type and location are determined, thereby achieving high-precision coordinate positioning and deviation quantification in the two-dimensional plane of the sight.

[0045] Two vision cameras 34 capture the image shape of the red dot from different perspectives (side and bottom). For example, the horizontal camera detects whether the horizontal edge of the red dot is straight, and the vertical camera detects the vertical symmetry of the red dot (such as whether there is distortion such as one side being flattened or the other side being rounded). Red dot shape distortion can cause deviation between the "aiming point" and the "point of impact" during actual aiming (e.g., the center of the distorted red dot is not the actual center of the optical path). This design simultaneously detects distortion during the calibration process. If the distortion exceeds a threshold, an alarm is triggered to prevent defective products from entering the next process and reduce potential accuracy risks in subsequent use. This achieves simultaneous detection of the shape distortion and symmetry of the sight's red dot.

[0046] Two vertically positioned vision cameras 34 capture the position coordinates of the reference target and the sight's red dot in the X-axis (horizontal) and Y-axis (vertical) directions, respectively, via a beam splitter prism 33. Combined with image algorithms, they can accurately calculate the offset of the red dot relative to the reference target in the two-dimensional plane (e.g., an X-axis offset of 0.02mm and a Y-axis offset of 0.01mm), rather than simply determining whether they "coincide." Traditional calibration can only determine the approximate overlap by visual inspection or a single camera, and cannot quantify the offset data. This design provides precise two-dimensional coordinate deviation values ​​to guide the first adjustment mechanism 5 and the second adjustment mechanism 6 in "targeted adjustment" (e.g., adjusting the torsion angle of the corresponding adjustment screw according to the X-axis offset), further improving calibration accuracy.

[0047] In this embodiment, the multi-dimensional adjustment mechanism 4 further includes a first support base 40, a second support base 41, a third support base 42, a fourth support base 43, a fifth support base 44, a first rotating assembly 45, a second rotating assembly 46, a third rotating assembly 47, and a clamping assembly 48. The first support base 40 is fixed to the base 1. The second support base 41 is movably connected to the first support base 40 along the Y direction. The third support base 42 is movably connected to the second support base 41 along the X direction. The fourth support base 43 is vertically fixed to the third support base 42. The fifth support base 44 is movably connected to the fourth support base 43 along the Z-axis. The clamping assembly 48 is mounted on one side of the first rotating assembly 45. The clamping assembly 48 is used to clamp the sight. The first rotating assembly 45 is capable of rotating along the Z-axis. The second rotating assembly 46 is connected to the first rotating assembly 45 and drives the first rotating assembly 45 to rotate along the Y-axis. The second rotating assembly 46 is connected to the third rotating assembly 47, which is connected to the fifth support base 44. The third rotating assembly 47 drives the first rotating assembly 45 to rotate along the Y-axis. A rotating assembly 45, a second rotating assembly 46, and a clamping assembly 48 rotate along the X-axis. The first rotating assembly 45, the second rotating assembly 46, and the third rotating assembly 47 are identical. The third rotating assembly 47 includes a second cylinder 470, a first positioning plate 471, and a second positioning plate 472. The first positioning plate 471 is slidably mounted on a fifth support base 44, and the second positioning plate 472 is slidably mounted on the first positioning plate 471. A sixth support base 49 is provided on the first positioning plate 471, and the second rotating assembly 46 is mounted on the sixth support base 49. The second cylinder 470 is mounted on the fifth support base 44 and its output end is connected to the side of the first positioning plate 471. The first positioning plate 471 and the second positioning plate 472 are connected by an arc-shaped surface, so that when the second cylinder 470 pushes the first positioning plate 471 to move, it pushes the second positioning plate 472 to rotate along the X direction. After the sight is clamped by the multi-dimensional adjustment mechanism 4, it can move linearly along the XYZ axes and rotate around the XYZ axes, for a total of six degrees of freedom. The software algorithm is used to calculate and then drive the sight to adjust its degrees of freedom to achieve the correction effect.

[0048] When the multi-dimensional adjustment mechanism 4 drives the sight to perform six-dimensional swing adjustments (such as rotation around the X, Y, and Z axes), the two vertically positioned vision cameras 34 always track the relative position of the red dot and the reference target from a vertical perspective. For example, when the sight tilts around the X-axis, the bottom camera focuses on the vertical offset, and the side camera focuses on the horizontal offset, ensuring that deviations in the two-dimensional plane can be completely captured in any posture. If only a single camera or a non-vertically positioned camera is used, image loss may occur due to viewpoint obstruction or optical path offset when the sight swings. The vertically positioned camera covers the detection needs of all postures in the two-dimensional plane, ensuring "no blind spots" in monitoring during multi-dimensional adjustment and providing data support for parallax correction in all postures.

[0049] Furthermore, two independent sets of image data are generated for the same reference bullseye and red dot. The consistency of the two sets of data is compared using an algorithm (e.g., whether the X-axis offset is within the allowable error range), eliminating misjudgments caused by lens contamination or optical path interference from a single camera. Single-camera detection carries a "single-point failure risk" (e.g., dust on the lens causing image blurring, leading to misjudgment as red dot offset). The vertical dual-camera design improves the reliability of detection results and reduces correction errors caused by equipment malfunctions through data cross-validation.

[0050] In this embodiment, the first adjustment mechanism 5 is identical to the second adjustment mechanism 6. The first adjustment mechanism 5 includes a first slide 50, a second slide 51, a third slide 52, a torque motor 53, a dynamic torque sensor 54, and a bit 55. The first slide 50 is fixed on the base 1, the second slide 51 is slidably disposed on the first slide 50, and the third slide 52 is movably disposed on the second slide 51. The torque motor 53 is fixed on the top of the third slide 52, the dynamic torque sensor 54 is connected to the output end of the torque motor 53, and the bit 55 is fixed on the other end of the dynamic torque sensor 54. The bit 55 is used to twist the adjustment screw on the sight. According to the relative position of the red dot and the reference target, the adjustment screw is adjusted by the bit 55 until the red dot and the reference target coincide. At the same time, the dynamic torque sensor 54 generates a torque curve of the twisting process, thereby judging the performance of the red dot adjustment process of the product, including straightness, damping, and whether there is any jump.

[0051] In this embodiment, the curing mechanism 7 further includes a slide cylinder 70 mounted on the fixture body seat 20. The slide cylinder 70 is located above the positioning mechanism 2. The UV lamp 71 is mounted on the slide cylinder 70 via a fixing seat 72. After calibration, the adhesive on the aiming device is cured to maintain the product's optimal performance.

[0052] The reference base 21 of the positioning mechanism 2 fixes the sight through the adsorption hole and the clamping cylinder 22. After the first cylinder 23 drives the probe 24 to power the sight and generate a red dot, the clamping component 48 of the multi-dimensional adjustment mechanism 4 clamps the sight and swings it in six degrees of freedom. At this time, the collimator 31 of the optical path simulation and vision detection mechanism 3 generates a reference target. After refraction by the beam splitter 33, two vertically set vision cameras 34 capture the offset of the red dot from the target in real time at different swing angles. At the same time, the bits 55 of the first adjustment mechanism 5 and the second adjustment mechanism 6 adjust the adjustment screw under the monitoring of the dynamic torque sensor 54, record the correspondence between the torque change and the offset at different angles, and combine the data to generate the dynamic response curve of the sight in all attitudes. This curve can reflect the accuracy stability of the sight when subjected to external force or angle change, solving the problem that traditional calibration can only achieve static alignment and cannot evaluate the dynamic accuracy in actual use. When the UV lamp 71 of the curing mechanism 7 cures the lens, the vision camera 34... The slight drift of the red dot position during the curing process is monitored simultaneously to supplement data for dynamic performance analysis.

[0053] The embodiments described above are not limited to the specific implementation methods described above. Unless otherwise specified, the embodiments and features described in the embodiments of this application are combined with each other. This application is not limited to the specific implementation methods described above. The specific implementation methods described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims. All of these forms are within the protection scope of this application.

Claims

1. An automated optical lens correction device for a sight, characterized in that, include: Base; A positioning mechanism used to hold the sight being tested; An optical path simulation and visual inspection mechanism is set on the base, and a positioning mechanism is set in the middle of the optical path simulation and visual inspection mechanism. The optical path simulation and visual inspection mechanism is used to generate a simulated optical path to generate a reference target center that coincides with the red dot of the sight for adjustment. A multi-dimensional adjustment mechanism is set on the base and located next to the optical path simulation and visual inspection mechanism. It is used to hold the aiming device and realize six-dimensional swing adjustment. The first adjustment mechanism is located on the base and outside the optical path simulation and visual inspection mechanism, and is used to turn the adjustment screw on the outer side of the aiming device. The second adjustment mechanism is located on the base and outside the optical path simulation and visual inspection mechanism. It is used to turn the adjustment screw on the other side of the sight. Through the cooperation of the first adjustment mechanism and the second adjustment mechanism, the red dot of the sight is adjusted to coincide with the reference target center. A curing mechanism, located on the base, is used to cure the lens on the corrected sight with adhesive. The optical path simulation and visual inspection mechanism includes a first bracket fixed on a base. A collimator is fixed to the top of the first bracket. A second bracket is also fixed on the first bracket. A beam splitter is fixed to the front end of the second bracket. A visual camera is provided at the rear end and the bottom of the second bracket. The two visual cameras take pictures from the side and bottom of the beam splitter, respectively. The collimator is used to generate a vertical simulated optical path that is directed toward the beam splitter. The beam splitter is used to converge the fields of view of the two visual cameras to the target of the collimator. The collimator generates a reference target and the target of the collimator are located in the same field of view for calibration. The multi-dimensional adjustment mechanism includes a first support base, a second support base, a third support base, a fourth support base, a fifth support base, a first rotating assembly, a second rotating assembly, a third rotating assembly, and a clamping assembly. The first support base is fixed on the base. The second support base is movably connected to the first support base along the Y direction. The third support base is movably connected to the second support base along the X direction. The fourth support base is vertically fixed on the third support base. The fifth support base is movably connected to the fourth support base along the Z direction. The clamping assembly is mounted on one side of the first rotating assembly and is used to clamp the sight. The first rotating assembly is capable of rotating along the Z direction. The second rotating assembly is connected to the first rotating assembly and drives the first rotating assembly to rotate along the Y direction. The second rotating assembly is connected to the third rotating assembly. The third rotating assembly is connected to the fifth support base and drives the first rotating assembly, the second rotating assembly, and the clamping assembly to rotate along the X direction.

2. The automated optical lens correction device for a sight according to claim 1, characterized in that, The positioning mechanism includes a clamp body base, a reference base is fixed on the clamp body base, and two clamping cylinders are provided on the clamp body base. The aiming device is placed on the reference base base, and the aiming device is fixed and constrained on the reference base base by the two clamping cylinders.

3. The automated optical lens correction device for a sight according to claim 2, characterized in that, The reference base has an adsorption hole connected to a vacuum generator to generate negative pressure and adsorb the aiming device. The fixture body is also equipped with a first cylinder, the output end of which is connected to a probe. The fixture body is also equipped with a power supply, the probe is connected to the power supply, and the other end of the probe makes conductive contact with the power supply part of the aiming device to supply power to the aiming device.

4. The automated optical lens correction device for a sight according to claim 3, characterized in that, The first rotating assembly, the second rotating assembly, and the third rotating assembly are identical. The third rotating assembly includes a second cylinder, a first positioning plate, and a second positioning plate. The first positioning plate is slidably mounted on a fifth support seat, and the second positioning plate is slidably mounted on the first positioning plate. A sixth support seat is provided on the first positioning plate, and the second rotating assembly is mounted on the sixth support seat. The second cylinder is mounted on the fifth support seat, and its output end is driven to connect to the side of the first positioning plate. The first positioning plate and the second positioning plate are connected by an arc-shaped surface, so that when the second cylinder pushes the first positioning plate to move, it pushes the second positioning plate to rotate along the X direction.

5. The automated optical lens correction device for a sight according to claim 4, characterized in that, The first adjustment mechanism is identical to the second adjustment mechanism. The first adjustment mechanism includes a first slide, a second slide, a third slide, a torque motor, a dynamic torque sensor, and a bit. The first slide is fixed on the base, the second slide is slidably disposed on the first slide, and the third slide is movably disposed on the second slide. The torque motor is fixed on the top of the third slide, the dynamic torque sensor is connected to the output end of the torque motor, and the bit is fixed on the other end of the dynamic torque sensor. The bit is used to turn the adjustment screw on the sight.

6. The automated optical lens correction device for a sight according to claim 5, characterized in that, The curing mechanism includes a slide cylinder mounted on the fixture body seat. The slide cylinder is located above the positioning mechanism, and the UV lamp is mounted on the slide cylinder via a fixed seat.

7. The automated optical lens correction device for a sight according to claim 1, characterized in that, The base is a marble base, and rubber vibration damping pads are fixed around the bottom of the base.

8. The automated optical lens correction device for a sight according to claim 7, characterized in that, The base is mounted on the frame, and the frame is equipped with an outer cover, which has buttons and indicator lights.

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