Calibration device for laser optical sight

Abstract

The present invention discloses a calibration device for a laser optical sight, which relates to the technical field of optical sights. The device comprises an optical sight body with a cylindrical hollow rod structure, an optical lens group for focusing and adjusting a light beam fixedly connected to an outer wall of one side of the optical sight body, an optical window for observing the alignment of a target and a laser light spot fixedly connected to an outer wall of one end of the optical sight body away from the optical lens group, a protective structure for protecting internal components fixedly connected to the outer wall of the laser emitter, an optical path guiding mechanism provided at the inner bottom end of the protective structure, light intensity feedback mechanisms provided on both sides of the inner wall of the protective structure, and a light speed expansion mechanism provided on the outer wall of one end of the protective structure. By cooperating with a connecting plate and an adapter plate, the optical path guiding mechanism can provide a multi-point adjustment function, which helps to correct the directional deviation of the light beam and ensure that the light beam is transmitted along a predetermined path.

Description

Technical Field

[0001] The present invention relates to the technical field of optical sights, and in particular to a calibration device for laser optical sights. Background Art

[0002] With the continuous advancement of science and technology, laser optical sights have been widely used in military, hunting, precision measurement and high-end optical research fields. The core function of a laser sight is to provide users with high-precision target locking capabilities through the collaboration of laser beams and optical systems. However, with the diversification of usage requirements and the complexity of environmental conditions, traditional laser optical sights have gradually exposed some problems, such as beam offset, spot diffusion, insufficient brightness, and reduced aiming stability. These problems not only affect the user's operating experience, but may also have an adverse effect on the success rate of the mission. Therefore, in order to solve these problems, a calibration device for laser optical sights came into being;

[0003] There are still the following defects in specific use:

[0004] 1. Beam deviation can lead to inaccurate target positioning, especially in long-range shooting or precision measurement, where small angular deviations can translate into significant positioning errors. Environmental vibrations or thermal expansion and contraction can cause the alignment accuracy of the optical system or mechanical structure to decrease, thereby affecting the stability and focusing performance of the laser beam. Vibration and thermal expansion and contraction can change the relative position of optical components, causing the beam spot position on the target to change.

[0005] 2. When the signal received by the reflector is weak, the detection equipment has difficulty distinguishing the characteristics of the light beam, such as direction and intensity. In an automatic calibration or closed-loop feedback system, a weak signal will make it impossible for the system to accurately adjust the direction or intensity of the light beam. A light beam with insufficient brightness may not form a clear light spot or light spot on the target.

[0006] In view of this, the present invention proposes a calibration device for a laser optical sight to remedy and improve the shortcomings of the prior art. Summary of the Invention

[0007] In order to solve the above technical problems, the present invention provides a calibration device for a laser optical sight to solve the technical problems raised in the above background technology.

[0008] To achieve the above objectives, the technical solution adopted by the present invention is as follows: a calibration device for a laser optical sight, comprising an optical sight body of a cylindrical hollow rod structure, an optical lens group for focusing and adjusting a light beam fixedly connected to an outer wall of one side of the optical sight body, an optical window for observing the alignment between a target and a laser light spot fixedly connected to an outer wall of an end of the optical sight body away from the optical lens group, a beam adjustment knob for adjusting the brightness range and diffusion degree of the light beam rotatably connected to the top of the optical lens group, a laser emitter for generating a laser beam fixedly connected to the outer wall of the right side of the optical sight body, a protective structure for protecting internal components fixedly connected to the outer wall of the laser emitter, an optical path guiding mechanism provided at the inner bottom end of the protective structure, light intensity feedback mechanisms provided on both sides of the inner wall of the protective structure, and a light speed expansion mechanism provided on the outer wall of one end of the protective structure;

[0009] The light path guiding mechanism is used to correct the direction deviation of the light beam to ensure that the light beam is transmitted along the predetermined path;

[0010] The light intensity feedback mechanism is used to reflect part of the light beam in real time and monitor its brightness;

[0011] The light speed expansion mechanism is used to control the energy distribution of the light beam so as to increase the power density of the light beam.

[0012] Furthermore, the optical path guiding mechanism includes a motor box body fixedly connected to the bottom end surface of the protective structure, one side outer wall of the motor box body is rotatably connected to a short rod, the outer wall of the short rod at one end away from the motor box body is rotatably connected to a connecting rod, the inner wall of the connecting rod at one end away from the short rod is rotatably connected to an inner rod, the inner rod at one end away from the connecting rod is fixedly connected to a center plate, the outer wall of the center plate at one end away from the inner rod is rotatably connected to an adapter plate, two adapter plates are symmetrically arranged around the central axis of the center plate, the outer walls of the two adapter plates at one end away from the center plate are rotatably connected to the outer plate, the outer walls of the two outer plates on one side away from the adapter plate are both provided with a connecting plate, and the lower end surface of one of the outer plates is fixedly connected to an obstacle bottom block.

[0013] Furthermore, the outer walls of the two adapter plates and the outer plate are provided with a plurality of circular through holes, and the sides of the two connecting plates away from the outer plate are fixedly connected to the inner wall of the protective structure.

[0014] Furthermore, the two connecting plates are provided with slide rails inside, the two outer plates are slidably connected to the slide rails inside the connecting plates, the end of the obstacle bottom block away from the outer plate is provided with a concave and convex surface, and the initial position of the two outer plates is on the same horizontal plane as the laser emitter.

[0015] The cam is fixedly connected to the outer walls of both sides of the center plate, and the outer wall of the cam is away from the center plate, and a wedge wheel is fixedly connected to the bottom end of the wedge wheel away from the cam, and a half-axis disk is provided. A contact block is provided below the cam, and the outer wall of the contact block is fixedly connected to a connecting rod on one side away from the cam, and the outer wall of one end of the connecting rod away from the contact block is rotatably connected to a crank, and the outer wall of one end of the crank away from the connecting rod is rotatably connected to a deflecting rod, and the outer wall of one end of the deflecting rod away from the crank is rotatably connected to the rotating rod, and the outer wall of one end of the rotating rod away from the deflecting rod is rotatably connected to a double-headed clip, and the outer wall of one end of the double-headed clip away from the rotating rod is rotatably connected to a swinging rod, and the outer wall of one end of the swinging rod away from the double-headed clip is fixedly connected to an extrusion block, and the outer wall of the extrusion block away from the swinging rod is slidably connected to a fixed column, and the outer wall of one end of the fixed column away from the extrusion block is fixedly connected to a long block, and the upper end of the half-axis disk is fixedly connected to a disc, and a plurality of reflectors are slidably connected to the side of the disc away from the half-axis disk.

[0016] Furthermore, a cylindrical obstacle column is provided at the top end of the outer wall of the side of the wedge wheel away from the cam, and a convex arc surface is provided at the bottom end of the outer wall of the side of the wedge wheel away from the cam. The side of the half-shaft disk away from the wedge wheel is rotatably connected to the bottom end surface of the protective structure, and a plurality of concave arc surfaces are provided at the top end of the outer wall of the half-shaft disk. The convex arc surface provided at the bottom end of the outer wall of the side of the wedge wheel away from the cam fits together with the plurality of concave arc surfaces provided at the top end of the outer wall of the half-shaft disk. The outer wall of the half-shaft disk is evenly provided with a plurality of square concave surfaces, and the size of the cylindrical obstacle column provided at the top end of the outer wall of the side of the wedge wheel away from the cam is adapted to the size of the plurality of square concave surfaces evenly provided on the outer wall of the half-shaft disk.

[0017] Furthermore, the side of the contact block away from the cam is rotatably connected to the bottom surface of the protective structure, the initial position of the contact block conflicts with the bottom outer wall of the cam, the end of the long block away from the fixed column is fixedly connected to the bottom surface of the protective structure, and the surface of the reflector is covered with fluorescent powder.

[0018] Furthermore, the light speed expansion mechanism includes a support block on the bottom end surface of the protective structure, the outer wall of the support block on one side away from the protective structure is slidably connected to an electric telescopic rod, the outer wall of the top end of the electric telescopic rod on the side away from the support block is fixedly connected to a touch switch, the top end of the support block on the side away from the electric telescopic rod is fixedly connected to a top plate, the inside of the top plate is clamped with a card rod, the end of the card rod away from the top plate is rotatably connected to a double-headed rod, a square plate is provided above the support block, two double-headed rods are symmetrically provided about the central axis of the square plate, the two double-headed rods are rotatably connected to a deflected rod at one end away from the card rod, the outer walls of the two deflected rods at one end away from the double-headed rods are fixedly connected to a rod blocking block, and the end of the top plate away from the double-headed rod is rotatably connected to a long rod.

[0019] Furthermore, the initial position of the surface of the touch switch conflicts with the obstacle bottom block, the upper surface of the top plate is provided with a cylindrical groove, and the clamping rod is clamped in the cylindrical groove provided on the upper surface of the top plate.

[0020] Furthermore, the side of the square plate away from the support block is fixedly connected to the inner wall of the protective structure, one end of the long rod is rotatably connected to the outer wall of one end of one of the top plates, and the outer walls of the two rod-blocking blocks are provided with multiple through holes.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] (1) The present invention utilizes the connection plate and the adapter plate to cooperate with each other, and the optical path guiding mechanism can provide a multi-point adjustment function, which helps to correct the directional deviation of the light beam and ensure that the light beam is transmitted along the predetermined path; the optical path guiding mechanism can gradually expand or compress the light beam during the emission process to adjust the light energy density distribution and avoid the problem of too high energy in the center of the light beam and too low energy at the edge; the light path guiding mechanism causes a slight disturbance in the light beam path to avoid the phenomenon of light beam superposition caused by multiple reflections; the light path guiding mechanism can evenly distribute the light beam energy to a larger range, thereby alleviating the problem of local overheating of optical components; the movement of the light path guiding mechanism can disperse the stress points of the mechanical structure and reduce the single-point stress concentration when fixing the optical components; during the light beam emission process, the light path guiding mechanism can adjust the path to avoid directly exposing the high-power area of ​​the light beam and reduce safety risks;

[0023] (2) The present invention utilizes a reflector and a cam to cooperate with each other. Through the light intensity feedback mechanism, it can reflect part of the light beam in real time and monitor its brightness. This detection method enables the system to dynamically adjust the light beam output to avoid the light beam being too weak to affect the working effect; the light intensity feedback mechanism automatically enhances the brightness of the light beam. The reflector can be adjusted according to the feedback signal to ensure that the light beam always maintains sufficient brightness to improve the visibility of the light spot; through the light intensity feedback mechanism, the light beam path can be adjusted without affecting other operations. This flexibility enables the system to make fine adjustments when facing environmental changes (such as temperature, humidity, etc.), thereby maintaining a stable light beam intensity and preventing the light beam from weakening due to environmental changes; through the adjustment and reflection of the reflector, excessive diffusion and loss of the light beam during transmission are avoided. Accurately guiding the light beam to the reflection position can effectively maintain the concentration and intensity of the light beam and avoid energy waste. This mechanism not only improves the brightness, but also improves the utilization efficiency of the light beam; the gap deflection of the reflector can fine-tune the angle of the light beam to ensure that it is correctly focused on the target and improve the aiming accuracy. At the same time, the reflection detection function also provides real-time feedback on deviations, helping to automatically correct the beam direction and ensure that the target is always within the beam range. By combining a certain material with the beam to reflect the detection, the reflectivity can be increased, improving the efficiency of the beam reflected on the reflector. This design optimizes detection and reflection efficiency, reduces energy loss caused by beam attenuation, and further enhances the brightness of the light spot on the target.

[0024] (3) The present invention utilizes a rod-type block and an electric telescopic rod to cooperate with each other, and through the light speed expansion mechanism, it can effectively reduce the risk of the light beam deviating from the predetermined trajectory and ensure the focusing quality of the light beam; by adding the light speed expansion mechanism, it can ensure that the light beam passes through the appropriate optical element, thereby maintaining the high brightness and clarity of the light beam; by adjusting the contact area, the energy distribution of the light beam can be controlled, thereby improving the power density of the light beam; controlling the contact area can ensure that the contact area between the light beam and the transmission medium is appropriate, avoiding excessive energy loss and improving the overall system efficiency; through the light speed expansion mechanism, the brightness distribution of the light beam can be made more uniform, avoiding the phenomenon of uneven light spot and inconsistent brightness, thereby improving the quality and reliability of laser applications; by controlling the contact area that the light beam finally passes through, it can effectively disperse heat, avoid overheating and component damage, and improve the service life of the equipment; BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a schematic diagram of the main three-dimensional structure of the present invention;

[0026] Figure 2 It is a schematic diagram of the partial three-dimensional structure of the light path guiding mechanism of the present invention;

[0027] Figure 3 This is a partial three-dimensional structural diagram of the positional relationship between the connecting rod and the inner rod of the present invention;

[0028] Figure 4 This is a partial three-dimensional structural diagram of the positional relationship between the connecting plate and the outer plate of the present invention;

[0029] Figure 5 It is a partial three-dimensional structural diagram of the positional relationship between the cam and the wedge wheel of the present invention;

[0030] Figure 6 This is a partial three-dimensional structural diagram of the positional relationship between the reflector and the extrusion block of the present invention;

[0031] Figure 7 This is a partial three-dimensional structural diagram of the position relationship between the support block and the clamping rod of the present invention;

[0032] Figure 8 It is a schematic diagram of the partial three-dimensional structure of the position relationship between the rod-belt block and the offset rod of the present invention.

[0033] The numbers in the figure are: 1. Optical sight body; 11. Optical lens group; 12. Optical window; 13. Beam adjustment knob; 14. Protective structure; 15. Laser emitter; 2. Light path guide mechanism; 21. Motor housing; 22. Short rod; 23. Connecting rod; 24. Inner rod; 25. Center plate; 26. Adapter plate; 27. Outer plate; 28. Connecting plate; 29. ​​Obstacle bottom block; 3. Light intensity feedback mechanism; 31. Cam; 32. Wedge wheel; 33. Half shaft disk; 34. Contact block; 35. Connecting rod; 36. Crank; 37. Deflecting rod; 38. Rotating rod; 39. Double-headed buckle; 310. Swinging rod; 311. Extrusion block; 312. Fixed column; 313. Long block; 314. Disc; 315. Reflector; 4. Light speed expansion mechanism; 41. Support block; 42. Electric telescopic rod; 43. Touch switch; 44. Top plate; 45. Clamping rod; 46. Double-headed rod; 47. Deflecting rod; 48. Rod block; 49. Long rod; 410. Square plate. DETAILED DESCRIPTION

[0034] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts shall fall within the scope of protection of the present invention.

[0035] Embodiments of the present invention

[0036] A calibration device for laser optical sights, reference Figure 1As shown, the optical sight comprises an optical sight body 1 having a cylindrical hollow rod structure, an optical lens assembly 11 for focusing and adjusting a light beam being fixedly connected to an outer wall of one side of the optical sight body 1, an optical window 12 for observing the alignment between a target and a laser spot being fixedly connected to an outer wall of an end of the optical sight body 1 away from the optical lens assembly 11, a beam adjustment knob 13 for adjusting the brightness range and spread of the light beam being rotatably connected to the top of the optical lens assembly 11, a laser emitter 15 for generating a laser beam being fixedly connected to an outer wall of the right side of the optical sight body 1, and a protective structure 14 for protecting internal components being fixedly connected to an outer wall of the laser emitter 15;

[0037] In view of the above-mentioned calibration device for a laser optical sight, it can be specifically implemented as follows:

[0038] The bottom of the protective structure 14 is provided with a light path guiding mechanism 2, the inner walls of the protective structure 14 are provided with light intensity feedback mechanisms 3, and the outer wall of one end of the protective structure 14 is provided with a light speed expansion mechanism 4;

[0039] refer to Figure 2 As shown, the light path guiding mechanism 2 is used to correct the direction deviation of the light beam to ensure that the light beam is transmitted along the predetermined path;

[0040] refer to Figure 3 As shown, the light path guiding mechanism 2 includes a motor box 21 fixedly connected to the bottom end surface of the protective structure 14, a short rod 22 is rotatably connected to the outer wall of one side of the motor box 21, the outer wall of the end of the short rod 22 away from the motor box 21 is rotatably connected to the connecting rod 23, the inner wall of the end of the connecting rod 23 away from the short rod 22 is rotatably connected to the inner rod 24, the end of the inner rod 24 away from the connecting rod 23 is fixedly connected to the center plate 25, the outer wall of the end of the center plate 25 away from the inner rod 24 is rotatably connected to the adapter plate 26, two adapter plates 26 are symmetrically provided with the central axis of the center plate 25, the outer walls of the ends of the two adapter plates 26 away from the center plate 25 are both rotatably connected to the outer plates 27, the outer walls of the two outer plates 27 on the side away from the adapter plate 26 are both provided with a connecting plate 28, and the lower end surface of one of the outer plates 27 is fixedly connected to the obstacle bottom block 29;

[0041] refer to Figure 3 As shown, the outer walls of the two adapter plates 26 and the outer plate 27 are provided with a plurality of circular through holes, and the two connecting plates 28 are fixedly connected to the inner wall of the protective structure 14 on the side away from the outer plate 27;

[0042] refer to Figure 4 As shown, the two connecting plates 28 are provided with slide rails inside, and the two outer plates 27 are slidably connected to the slide rails provided inside the connecting plates 28. The ends of the barrier bottom blocks 29 away from the outer plates 27 are provided with concave and convex surfaces. The initial positions of the two outer plates 27 are on the same horizontal plane as the laser emitter 15.

[0043] Summary 1: Compared with the existing technology, errors will occur in the emission of light beams when the environment vibrates or the equipment expands and contracts thermally. The optical path guiding mechanism 2 of the present invention can provide multi-point adjustment functions, which helps to correct the directional deviation of the light beam and ensure that the light beam is transmitted along the predetermined path; the optical path guiding mechanism 2 can allow the light beam to gradually expand or compress during the emission process to adjust the light energy density distribution to avoid the problem of too high energy in the center of the light beam and too low energy at the edge; through the optical path guiding mechanism 2, the light beam path is slightly disturbed to avoid the phenomenon of light beam superposition caused by multiple reflections; the optical path guiding mechanism 2 can evenly distribute the light beam energy to a larger range, thereby alleviating the problem of local overheating of optical components; the movement of the optical path guiding mechanism 2 can disperse the force points of the mechanical structure and reduce single-point stress concentration when fixing optical components; during the light beam emission process, the optical path guiding mechanism 2 can adjust the path to avoid directly exposing the high-power area of ​​the light beam and reduce safety risks.

[0044] refer to Figure 5 Shown, the light intensity feedback mechanism 3, for real-time reflection of part of the light beam and monitoring its brightness;

[0045] refer to Figure 5 As shown, the light intensity feedback mechanism 3 includes a cam 31 rotatably connected to the outer walls of both sides of the center plate 25, a wedge wheel 32 is fixedly connected to the outer wall of the cam 31 away from the center plate 25, a half shaft disk 33 is provided at the bottom end of the wedge wheel 32 away from the cam 31, a contact block 34 is provided below the cam 31, a connecting rod 35 is fixedly connected to the outer wall of the contact block 34 away from the cam 31, a crank 36 is rotatably connected to the outer wall of one end of the connecting rod 35 away from the contact block 34, a deflecting rod 37 is rotatably connected to the outer wall of the end of the crank 36 away from the connecting rod 35, and a rotating rod 38 is rotatably connected to the outer wall of the end of the deflecting rod 37 away from the crank 36. The outer wall of the end of the rotating rod 38 away from the deflection rod 37 is rotatably connected to a double-headed buckle 39, and the outer wall of the end of the double-headed buckle 39 away from the rotating rod 38 is rotatably connected to a swing rod 310. The outer wall of the end of the swing rod 310 away from the double-headed buckle 39 is fixedly connected to an extrusion block 311. The outer wall of the extrusion block 311 away from the swing rod 310 is slidably connected to a fixed column 312. The outer wall of the fixed column 312 away from the extrusion block 311 is fixedly connected to a long block 313. The upper end of the half-shaft disk 33 is fixedly connected to a circular disk 314. A plurality of reflective mirrors 315 are slidably connected to the circular disk 314 on the side away from the half-shaft disk 33.

[0046] refer to Figure 6As shown, a cylindrical obstacle column is provided at the top end of the outer wall of the side of the wedge wheel 32 away from the cam 31, and a convex arc surface is provided at the bottom end of the outer wall of the side of the wedge wheel 32 away from the cam 31. The side of the half-shaft disc 33 away from the wedge wheel 32 is rotatably connected to the bottom end surface of the protective structure 14, and a plurality of concave arc surfaces are provided at the top end of the outer wall of the half-shaft disc 33. The outer wall of the half-shaft disc 33 is evenly provided with a plurality of square concave surfaces, and the size of the cylindrical obstacle column provided at the top end of the outer wall of the side of the wedge wheel 32 away from the cam 31 is adapted to the size of the plurality of square concave surfaces evenly provided on the outer wall of the half-shaft disc 33.

[0047] refer to Figure 6 As shown, the contact block 34 is rotatably connected to the bottom surface of the protective structure 14 at a side away from the cam 31. The initial position of the contact block 34 conflicts with the outer wall of the bottom end of the cam 31. The end of the long block 313 away from the fixing column 312 is fixedly connected to the bottom surface of the protective structure 14. The surface of the reflector 315 is covered with phosphor.

[0048] Summary 2: Compared to existing technologies, which suffer from insufficient beam brightness and weaken the signal reflected by reflector 315, the present invention utilizes a light intensity feedback mechanism 3 to reflect a portion of the beam in real time and monitor its brightness. This detection method enables the system to dynamically adjust beam output, preventing a weak beam from affecting operational performance. The light intensity feedback mechanism 3 automatically enhances beam brightness. Reflector 315 adjusts based on the feedback signal to ensure the beam always maintains sufficient brightness, enhancing the visibility of the light spot. The light intensity feedback mechanism 3 allows the beam path to be adjusted without affecting other operations. This flexibility allows the system to fine-tune the beam in response to environmental changes such as temperature and humidity, maintaining stable beam intensity and preventing beam weakening due to environmental fluctuations. The adjustment and reflection of reflector 315 prevent excessive beam diffusion and loss during transmission. Accurately directing the beam to the reflection location effectively maintains beam focus and intensity, avoiding energy waste. This mechanism not only improves brightness but also enhances beam utilization efficiency. The intermittent deflection of reflector 315 fine-tunes the beam angle to ensure it is correctly focused on the target, improving aiming accuracy. At the same time, the reflection detection function also provides real-time feedback on deviations, helping to automatically correct the beam direction and ensure that the target remains within the beam range. By combining the reflection detection of a certain material with the beam, the reflectivity can be increased, improving the efficiency of the beam reflected by the reflector 315. This design optimizes detection and reflection efficiency, reduces energy loss caused by beam attenuation, and further enhances the brightness of the light spot on the target.

[0049] refer to Figure 7As shown, the light speed expansion mechanism 4, for controlling the energy distribution of the light beam to enhance the power density of the light beam;

[0050] refer to Figure 7 As shown, the light speed expansion mechanism 4 includes a support block 41 on the bottom surface of the protective structure 14, and the outer wall of the support block 41 on the side away from the protective structure 14 is slidably connected to an electric telescopic rod 42, and the outer wall of the top of the electric telescopic rod 42 on the side away from the support block 41 is fixedly connected to a touch switch 43, and the top of the support block 41 on the side away from the electric telescopic rod 42 is fixedly connected to a top plate 44, and a card rod 45 is clamped inside the top plate 44, and the end of the card rod 45 away from the top plate 44 is rotatably connected to a double-headed rod 46, and a square plate 410 is provided above the support block 41, and two double-headed rods 46 are symmetrically provided with the central axis of the square plate 410, and the ends of the two double-headed rods 46 away from the card rod 45 are rotatably connected to a deflected rod 47, and the outer walls of the ends of the two deflected rods 47 away from the double-headed rods 46 are fixedly connected to a rod block 48, and the end of the top plate 44 away from the double-headed rod 46 is rotatably connected to a long rod 49;

[0051] refer to Figure 8 As shown, the initial position of the surface of the touch switch 43 conflicts with the obstacle bottom block 29, the upper surface of the top plate 44 is provided with a cylindrical groove, the card rod 45 is engaged with the cylindrical groove opened on the upper surface of the top plate 44;

[0052] refer to Figure 8 As shown, the square plate 410 is fixedly connected to the inner wall of the protective structure 14 on one side away from the support block 41, one end of the long rod 49 is rotatably connected to one end of the outer wall of the top plate 44, the outer wall of the two rod-blocking blocks 48 are provided with a plurality of through holes;

[0053] Summary 3: Compared with the existing technology, when a laser beam passes through different media or optical components, if the contact area is too large or the surface is not smooth, it will cause the beam to scatter or expand. The present invention uses the light speed expansion mechanism 4 to effectively reduce the risk of the light beam deviating from the predetermined trajectory and ensure the focusing quality of the light beam; by adding the light speed expansion mechanism 4, it can ensure that the light beam passes through appropriate optical elements, thereby maintaining the high brightness and clarity of the light beam; by adjusting the contact area, the energy distribution of the light beam can be controlled, thereby improving the power density of the light beam; controlling the contact area can ensure that the contact area between the light beam and the transmission medium is appropriate, avoiding excessive energy loss and improving the overall system efficiency; through the light speed expansion mechanism 4, the brightness distribution of the light beam can be made more uniform, avoiding uneven light spots and inconsistent brightness, thereby improving the quality and reliability of laser applications; by controlling the contact area that the light beam finally passes through, heat can be effectively dispersed, overheating and component damage can be avoided, and the service life of the equipment can be increased.

[0054] The complete working principle and steps of the above embodiment are as follows:

[0055] Initial qualification: Figures 1 to 2 As shown, during operation, the optical sight achieves aiming, calibration, and target lock functions through the precise coordination of its internal structures. When the user activates the optical sight body 1, the laser emitter 15 first generates a high-precision laser beam, which is then focused and calibrated by the optical lens assembly 11 to ensure that the beam propagates precisely along the aiming axis. This process, through the principle of lens refraction, adjusts the beam to the required direction and intensity, ensuring that it is stable and focused after emission. The optical window 12 serves as an observation port, providing a clear field of view, allowing the user to intuitively see the target area. The window surface is also anti-reflective and scratch-resistant, ensuring long-term use.

[0056] The user can fine-tune the laser's angle, intensity, and focus using the beam adjustment knob 13. The internal mechanical structure of the beam adjustment knob 13 drives the lens assembly to change the direction or spread of the beam. The design of the beam adjustment knob 13 ensures precise positioning, preventing deviation caused by vibration or manual error.

[0057] In situations where ambient light is strong or external interference is significant, the protective structure 14 acts as a shield, reducing the interference of stray light on the laser. It also protects the delicate components within the laser emitter 15 from external factors such as dust and moisture, extending the life of the device.

[0058] Throughout the aiming process, the beam maintains high linearity and brightness upon exiting the optical sight body 1, ensuring a clear and visible light spot on the target. If the target deviates or requires recalibration, the user can quickly adjust the beam adjustment knob 13 and observe the optical window 12 until optimal aiming is achieved. After the laser is fired, the optical window 12 displays the positioning of the target area, allowing the user to confirm the accuracy of the operation through real-time observation.

[0059] When using:

[0060] The optical path guiding mechanism is used to correct the directional deviation of the light beam and ensure that the light beam is transmitted along the predetermined path. Step 2:

[0061] like Figures 3 and 4As shown, when the laser emitter 15 generates a high-precision laser beam, the operator starts the motor housing 21 inside the protective structure 14, and then the short rod 22 connected to one end of the motor housing 21 rotates. The rotation of the short rod 22 also drives the connecting rod 23 connected to one end to rotate to a point on the horizontal trajectory. In this way, the movement of the connecting rod 23 also pulls the inner rod 24 connected to one end to rotate, so that the center plate 25 fixed to one end of the inner rod 24 will deflect back and forth with the rotation of the inner rod 24, thereby The left and right deflection of the core plate 25 will also pull the adapter plates 26 rotatably connected on both sides thereof to produce left and right reciprocating deflection fluctuations. In this way, the left and right reciprocating deflection fluctuations of the adapter plates 26 will also pull the outer plates 27 rotatably connected on the outside thereof to move horizontally in the slide rails provided inside the obstacle bottom block 29. At the same time, the movement of the connecting plate 28 will also drive the obstacle bottom block 29 fixedly connected at its bottom end to move synchronously. Therefore, through the fluctuating deflection of the center plate 25, the adapter plate 26 and the outer plates 27, the light beam emitted by the laser emitter 15 is distributed in a wave-shaped movement trajectory.

[0062] The light intensity feedback mechanism for real-time reflection of part of the light beam and monitoring its brightness has three steps:

[0063] like Figures 5 and 6 As shown, when the center plate 25 rotates, the cam 31 fixedly connected to the outer wall of one side thereof will rotate, and then the rotation of the cam 31 will press down and push the contact block 34 that its lower end abuts to move downward. At the same time, the rotation of the cam 31 will also drive the wedge wheel 32 connected to the outer wall of one side thereof to rotate. In this way, the rotation of the wedge wheel 32 will cause the convex arc surface set at its lower end to first slide on the concave arc surface of the outer wall of the half shaft disc 33. When the wedge wheel 32 rotates until the cylindrical obstacle column set at its top is engaged with the outer wall of the half shaft disc 33, the cylindrical obstacle column will push the half shaft disc 33 to rotate. Therefore, the rotation of the half shaft disc 33 will drive the disc 314 fixedly connected to its upper end to rotate. In addition, the downward movement of the contact block 34 will drive the connecting rod 35 on the outer wall of one side thereof to move and deflect synchronously, and then the connecting rod 35 The deflection of the crank 36 will also pull the crank 36 connected to one end to rotate, so that the rotation of the crank 36 drives the deflection rod 37 connected to one end to rotate, so that the rotation of the deflection rod 37 will cause the rotating rod 38 connected to one end to rotate, and the double-headed buckle 39 fixedly connected to one end of the rotating rod 38 to deflect synchronously, and then the deflection of the double-headed buckle 39 will pull the swing rod 310 connected to one end to deflect up and down, thereby driving the extrusion block 311 fixedly connected to one end to slide on the outer wall of the fixed column 312, and the up and down movement of the extrusion block 311 will push the reflector 315 that its top end contacts to move up and down on the surface of the disk 314, finally realizing the speed of light reflected to the surface of the laser emitter 15 after divergence through the phosphor covered on the surface 415, which makes it convenient for the operator to judge its lighting effect;

[0064] The light speed expansion mechanism for controlling the energy distribution of the light beam and thus increasing the power density of the light beam has four steps:

[0065] like Figures 7 and 8 As shown, when the obstacle bottom block 29 follows the connecting plate 28 in the movement, the obstacle bottom block 29 moves to trigger the touch switch 43, and then the electric telescopic rod 42 moves to one side and extends, so that the support block 41 fixedly connected to the outer wall of the electric telescopic rod 42 will move and extend synchronously with the electric telescopic rod 42. As a result, the card rod 45 engaged in the square groove opened on the upper surface of the electric telescopic rod 42 will be deflected and pushed as the support block 41 moves. In this way, the deflection of the card rod 45 will drive the double-headed rod 46 connected to one end of the card rod to rotate, and the rotation of the double-headed rod 46 will also drive the deflected rod 47 connected to one end of the card rod to rotate, and then the rod-belt block 48 connected to one end of the deflected rod 47 will be deflected and pulled together, and the long rod 49 connected to the other end of the double-headed rod 46 will synchronously pull the symmetrically installed rod-belt block 48 to move in the opposite direction, thereby ensuring that the contact area between the light beam and the transmission medium is appropriate.

[0066] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A calibration device for a laser optical sight, comprising an optical sight body (1) of a cylindrical hollow rod structure, wherein an optical lens group (11) for focusing and adjusting a light beam is fixedly connected to an outer wall of one side of the optical sight body (1), an optical window (12) for observing the alignment of a target and a laser light spot is fixedly connected to an outer wall of an end of the optical sight body (1) away from the optical lens group (11), a beam adjustment knob (13) for adjusting the brightness range and diffusion degree of the light beam is rotatably connected to the top of the optical lens group (11), a laser emitter (15) for generating a laser beam is fixedly connected to the outer wall of the right side of the optical sight body (1), and a protective structure (14) for protecting internal components is fixedly connected to the outer wall of the laser emitter (15), characterized in that: The inner bottom end of the protective structure (14) is provided with a light path guiding mechanism (2), both sides of the inner wall of the protective structure (14) are provided with light intensity feedback mechanisms (3), and the outer wall of one end of the protective structure (14) is provided with a light speed expansion mechanism (4); The light path guiding mechanism (2) is used to correct the direction deviation of the light beam to ensure that the light beam is transmitted along a predetermined path; The light intensity feedback mechanism (3) is used to reflect part of the light beam in real time and monitor its brightness; The light speed expansion mechanism (4) is used to control the energy distribution of the light beam so as to increase the power density of the light beam; The optical path guiding mechanism (2) comprises a motor housing (21) fixedly connected to the bottom surface of the protective structure (14); a short rod (22) is rotatably connected to an outer wall of one side of the motor housing (21); an outer wall of an end of the short rod (22) away from the motor housing (21) is rotatably connected to a connecting rod (23); an inner wall of an end of the connecting rod (23) away from the short rod (22) is rotatably connected to an inner rod (24); and an end of the inner rod (24) away from the connecting rod (23) is fixedly connected to a center plate (25). The outer wall of one end of the center plate (25) away from the inner rod (24) is rotatably connected to the adapter plate (26), and two adapter plates (26) are symmetrically arranged with respect to the central axis of the center plate (25). The outer walls of one end of the two adapter plates (26) away from the center plate (25) are rotatably connected to the outer plate (27), and the outer walls of one side of the two outer plates (27) away from the adapter plate (26) are both provided with a connecting plate (28), and the lower end surface of one of the outer plates (27) is fixedly connected to the obstacle bottom block (29).

2. The calibration device for a laser optical sight according to claim 1, characterized in that: The outer walls of the two adapter plates (26) and the outer plate (27) are both provided with a plurality of circular through holes, and the two connecting plates (28) are fixedly connected to the inner wall of the protective structure (14) on the side away from the outer plate (27).

3. The calibration device for a laser optical sight according to claim 2, characterized in that: The two connecting plates (28) are provided with a slide rail inside, and the two outer plates (27) are slidably connected to the slide rail provided inside the connecting plates (28). The end of the barrier bottom block (29) away from the outer plate (27) is provided with a concave and convex surface, and the initial position of the two outer plates (27) is on the same horizontal plane as the laser emitter (15).

4. The calibration device for a laser optical sight according to claim 3, characterized in that: The light intensity feedback mechanism (3) comprises a cam (31) rotatably connected to the outer walls of both sides of the center plate (25); the outer wall of the cam (31) away from the center plate (25) is fixedly connected to a wedge wheel (32); the bottom end of the wedge wheel (32) away from the cam (31) is provided with a half shaft disc (33); a contact block (34) is provided below the cam (31); the outer wall of the contact block (34) away from the cam (31) is fixedly connected to a connecting rod (35); the outer wall of one end of the connecting rod (35) away from the contact block (34) is rotatably connected to a crank (36); the outer wall of one end of the crank (36) away from the connecting rod (35) is rotatably connected to a deflecting rod (37); the outer wall of one end of the deflecting rod (37) away from the crank (36) is rotatably connected to a rotating rod (3 8), the outer wall of one end of the rotating rod (38) away from the deflecting rod (37) is rotatably connected to a double-headed buckle (39), the outer wall of one end of the double-headed buckle (39) away from the rotating rod (38) is rotatably connected to a swing rod (310), the outer wall of one end of the swing rod (310) away from the double-headed buckle (39) is fixedly connected to an extrusion block (311), the outer wall of one side of the extrusion block (311) away from the swing rod (310) is slidably connected to a fixed column (312), the outer wall of one end of the fixed column (312) away from the extrusion block (311) is fixedly connected to a long block (313), the upper end of the half-axis disk (33) is fixedly connected to a circular disk (314), and the side of the circular disk (314) away from the half-axis disk (33) is slidably connected to a plurality of reflectors (315).

5. The calibration device for a laser optical sight according to claim 4, characterized in that: A cylindrical obstacle column is provided at the top end of the outer wall of the side of the wedge wheel (32) away from the cam (31), and a convex arc surface is provided at the bottom end of the outer wall of the side of the wedge wheel (32) away from the cam (31). The side of the half-shaft disc (33) away from the wedge wheel (32) is rotatably connected to the bottom end surface of the protective structure (14). A plurality of concave arc surfaces are provided at the top end of the outer wall of the half-shaft disc (33). The convex arc surface provided at the bottom end of the outer wall of the side of the wedge wheel (32) away from the cam (31) fits with the plurality of concave arc surfaces provided at the top end of the outer wall of the half-shaft disc (33). The outer wall of the half-shaft disc (33) is uniformly provided with a plurality of square concave surfaces. The size of the cylindrical obstacle column provided at the top end of the outer wall of the side of the wedge wheel (32) away from the cam (31) is adapted to the size of the plurality of square concave surfaces uniformly provided on the outer wall of the half-shaft disc (33).

6. The calibration device for a laser optical sight according to claim 5, characterized in that: The contact block (34) is rotatably connected to the bottom surface of the protective structure (14) at a side away from the cam (31); the initial position of the contact block (34) is in conflict with the outer wall of the bottom end of the cam (31); the end of the long block (313) away from the fixed column (312) is fixedly connected to the bottom surface of the protective structure (14); and the surface of the reflector (315) is covered with fluorescent powder.

7. The calibration device for a laser optical sight according to claim 6, characterized in that: The light speed expansion mechanism (4) comprises a support block (41) on the bottom surface of the protective structure (14); an outer wall of the support block (41) on one side away from the protective structure (14) is slidably connected to an electric telescopic rod (42); an outer wall of the top end of the electric telescopic rod (42) on one side away from the support block (41) is fixedly connected to a touch switch (43); a top end of the support block (41) on one side away from the electric telescopic rod (42) is fixedly connected to a top plate (44); a clamping rod (45) is clamped inside the top plate (44); and the clamping rod (45) is away from the top plate (44). One end of the top plate (44) is rotatably connected to a double-headed rod (46), a square plate (410) is provided above the support block (41), two double-headed rods (46) are symmetrically provided about the central axis of the square plate (410), one end of the two double-headed rods (46) away from the clamping rod (45) is rotatably connected to a deflected rod (47), the outer walls of one end of the two deflected rods (47) away from the double-headed rod (46) are fixedly connected to a rod-belt blocking block (48), and one end of the top plate (44) away from the double-headed rod (46) is rotatably connected to a long rod (49).

8. The calibration device for a laser optical sight according to claim 7, characterized in that: The initial position of the surface of the touch switch (43) conflicts with the obstacle bottom block (29), and a cylindrical groove is provided on the upper surface of the top plate (44), and the clamping rod (45) is clamped in the cylindrical groove provided on the upper surface of the top plate (44).

9. The calibration device for a laser optical sight according to claim 8, characterized in that: The side of the square plate (410) away from the support block (41) is fixedly connected to the inner wall of the protective structure (14), one end of the long rod (49) is rotatably connected to the outer wall of one end of one of the top plates (44), and the outer walls of the two rod-bearing blocks (48) are provided with a plurality of through holes.

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