Infrared and red dot fused sighting telescope

Abstract

The invention belongs to the technical field of sights for firearms, and particularly discloses an infrared and red dot fused sighting telescope which is characterized in that a telescope body is provided with a main telescope cavity, the lower part of the telescope body is provided with a peritoneoscope cavity, and a collimating mirror is fixed in the main telescope cavity; the spectroscope seat is arranged at the rear end of the peritoneoscope cavity and is provided with a mounting groove I and a mounting groove II; the spectroscope is fixed in the mounting groove I; the light source fixing seat is arranged in the peritoneoscope cavity in front of the spectroscope seat and is connected with the spectroscope seat or the connecting seat; the red dot light source and the micro display are respectively fixed on the spectroscope light source fixing seat and the mounting groove II; the infrared night vision assembly is fixed on one side of the mirror body and is electrically connected with the micro display, an image emitted by the micro display and a light source signal emitted by the red point light source form a first light beam and a second light beam which are overlapped through the spectroscope, and the overlapped light beam enters the collimating mirror to be collimated and then is reflected to enter the eye along the main mirror cavity; and the micro display, the red dot light source and the infrared night vision assembly are electrically connected with the power supply or the power supply interface. The invention has the characteristics of compact structure, day and night availability, high light transmittance, stability and reliability.

Description

Technical Field

[0001] This invention relates to the field of firearm sights, specifically to a compact, day and night usable, high light transmittance, stable and reliable infrared and red dot fusion sight. Background Technology

[0002] A red dot sight, also known as a reflex sight or internal red dot sight, is a type of optical sight without magnification. Because the point of light incident on the eye in a red dot sight is always aligned with the red dot itself, accurate aiming is possible even if the eye is not on the central axis of the red dot sight. This improves shooting accuracy during high-speed movement or when the body is swaying, and therefore it is widely used in military firearms and even in the head-up displays of fighter jets.

[0003] Traditional red dot sights can only be used in bright daylight or nighttime environments. In low-light and nighttime conditions, targets are difficult to see, resulting in poor aiming performance and severely impacting tactical and technical effectiveness. To address this, red dot sights combining night vision and white light have emerged. However, because they require the simultaneous setup of red dot and night vision optical paths, which are then fused and collimated onto curved mirrors, existing fusion aiming systems are large and bulky, increasing exposure risk and weight. To address this, existing technologies employ a prism with a semi-transparent, semi-reflective coating placed between the curved mirror on the primary optical axis of the sight and the eyepoint. The red dot light source and the night vision imaging unit are positioned on opposite sides of the prism, fusing through reflection and transmission via the prism before being collimated onto the curved mirror and passing through the prism to the eye. This aforementioned technical solution, by using a prism to bend the optical path, shortens the size of the fusion aiming system, thereby reducing overall volume and weight. However, because the prism is located on the main optical axis of the scope, natural light, after passing through the curved reflector and the night vision image, after being reflected by the curved reflector, must pass through the prism again before entering the human eye. The prism's semi-transparent, semi-reflective coating significantly reduces light transmittance, thus affecting the clarity of targets viewed from a distance. Furthermore, the prism's large size and weight contribute to the still excessive size and weight of the fusion aiming system. While increasing the brightness of the night vision imaging unit can overcome the target clarity problem caused by the prism's low light transmittance, higher brightness leads to increased power consumption and affects battery life. In addition, existing technologies also involve placing a prism on one side of the main optical axis of the scope, setting an inclined beam splitter on the main optical axis of the scope, setting a red dot light source and a night vision imaging unit on both sides of the prism, and then setting a reflector and its lens group behind the prism. This allows the red dot and the night vision image to be fused by the prism and then enter the beam splitter through the reflector and lens group. After being reflected again by the beam splitter, the image enters the human eye. Although the light transmittance is improved compared to a prism with a semi-transparent and semi-reflective film, the additional beam splitter, reflector and lens group increase the complexity, weight and volume of the structure, and also weaken the improvement in light transmittance.

[0004] Furthermore, existing red dot sights generally employ a cylindrical or open (window-type) structure. The open structure is more common due to its simplicity. Open red dot sights typically have corresponding adjustment mechanisms to adjust for windage, ballistic compensation, and to eliminate the effects of manufacturing deviations in components. However, existing adjustment mechanisms often use a universal ball joint between the scope body and the base. While this achieves compensation adjustment, the universal ball joint can interfere with each other when adjusting for windage and ballistic compensation, leading to decreased adjustment accuracy. Moreover, the connection stability and rigidity of the universal ball joint are insufficient, making it prone to displacement or even cracking due to impacts during weapon transport, thus affecting accuracy.

[0005] In addition, the scope and the gun are mostly connected by a Picatinny rail. However, the scope is currently mounted on the Picatinny rail by two bolts and nuts or by two screws. This method is not only slow to mount and complicated to move and adjust, but the tightness of the nuts and bolts varies from person to person. Without special tools, it is difficult to achieve reliable tightening. Furthermore, this structure is generally locked with anti-slip washers, so the reliability after mounting is not high. There is also a technical solution that uses a wedge mechanism on the scope and a single screw to push the wedge block of the wedge mechanism to clamp the Picatinny rail. Although the clamping speed is significantly improved compared to the solution with two bolts and screws, and it can solve the problem of varying tightening degrees by different people, the tightening and loosening speed of bolts and screws is still relatively slow, and the self-locking function of the wedge mechanism makes it difficult to loosen, thus slowing down the overall clamping speed. Furthermore, since the locking and loosening of the wedge mechanism is more sensitive to changes in the self-locking angle, the wedge mechanism is less adaptable to firearms used in complex and demanding environments. Summary of the Invention

[0006] To address the shortcomings of existing technologies, this invention provides a compact, day-and-night usable, high-transmittance, stable and reliable infrared and red dot fusion sight.

[0007] This invention is implemented as follows: it includes a mirror body, a connecting base, a beam splitter mount, a beam splitter, a miniature display, a light source mounting base, a red dot light source, a collimating mirror, an infrared night vision component, and a power supply. The mirror body is provided with a main mirror cavity and a laparoscope cavity with an open lower end. The connecting seat is detachably fixed to the bottom of the mirror body and closes the open lower end of the laparoscope cavity. The collimating mirror is fixedly set in front of the incident light direction of the main mirror cavity. The top of the laparoscope cavity is connected to the main mirror cavity. The beam splitter mount is located at the rear end of the laparoscope cavity and has two interconnected mounting slots, I and II, arranged sequentially from front to back along the incident light direction of the mirror body. The beam splitter is tilted and fixed in the mounting slot I. The light source mounting base is set in the laparoscope cavity in front of the beam splitter mount along the incident light direction of the mirror body. The light source mounting base is connected to the beam splitter mount or the connecting base. The red dot light source and the micro display are respectively fixed on the light source mounting bases on both sides of the beam splitter and in the mounting groove II. The infrared night vision component is fixed parallel to the top or side of the lens body and is used to collect and process infrared band information in night vision mode; the micro-display is electrically connected to the infrared night vision component to convert the processed infrared band information into a visible light image; the image emitted by the micro-display is split into a first beam by a beam splitter, and the light source signal emitted by the red dot light source is split into a second beam by a beam splitter. The first beam and the second beam are overlapped and collimated by an incident collimating mirror before being reflected along the main mirror cavity into the target area; The power supply is located inside the lens body, or it is separate from the lens body and electrically connected to the power interface on the lens body. The micro display, red dot light source, and infrared night vision component are electrically connected to the power supply inside the lens body or the power interface on the lens body, respectively.

[0008] Furthermore, the present invention also includes a left-right adjustment component and a height adjustment component. The laparoscope cavity is provided with a mirror base groove and a T-shaped groove that are connected front and rear at the rear end away from the collimating mirror. The beam splitter is slidably disposed in the mirror base groove and has inclined surfaces I on both sides along the length of the mirror body. The left and right adjustment assembly includes guide block I, guide block II, left and right adjustment screws, and elastic element I. Guide block I and guide block II are respectively disposed in the mirror mount grooves on both sides of the beam splitter mount. The side of guide block I and guide block II facing the beam splitter mount is respectively provided with inclined surface II that can cooperate with inclined surface I. The left and right adjustment screw passes through the side wall of the mirror body and is threadedly connected to guide block I. The elastic element I is disposed in the mirror mount groove on the side of guide block II away from the beam splitter mount and its two ends respectively abut against guide block II and the inner wall of mirror mount groove. The height adjustment assembly includes a height adjustment block and a height adjustment screw. The height adjustment block is disposed in a T-shaped groove behind the beam splitter mount and one end is connected to the beam splitter mount. The height adjustment screw passes through the upper wall of the mirror body and is threadedly connected to the height adjustment block.

[0009] Furthermore, the beam splitter mount has a strip groove on the side facing the elevation adjustment block, and the elevation adjustment block has a forward-extending strip protrusion on the side facing the beam splitter mount. The strip protrusion of the elevation adjustment block extends movably into the strip groove, and the width of the strip groove is greater than the width of the strip protrusion. The elevation adjustment block has an elevation adjustment screw hole on the side away from the beam splitter mount, and the mirror body has a stepped hole II with a larger outer diameter and smaller inner diameter, which connects to the T-shaped groove at the upper rear end in the incident light direction. The elevation adjustment screw passes through the stepped hole II and is threadedly connected to the elevation adjustment screw hole.

[0010] Furthermore, the top of the connecting seat is provided with two guide rods perpendicular to the incident light direction of the mirror body, and the bottom of the beam splitter mount is provided with guide holes on both sides of the mounting groove I. The guide rods of the connecting seat slide into the sliding holes of the beam splitter mount. The height adjustment block is provided with blind holes II on both sides of the height adjustment screw hole. An outwardly extending elastic element II is provided in the blind hole II. The two ends of the elastic element II abut against the bottom end of the blind hole II and the top end of the T-shaped groove, respectively.

[0011] Furthermore, the guide block I is provided with an azimuth screw hole perpendicular to the incident light direction of the mirror body. The mirror body is provided with a stepped hole I with a larger outer diameter and a smaller inner diameter on the side wall in the incident light direction. The left and right adjusting screws pass through the stepped hole I and are threadedly connected to the azimuth screw hole. A pressure ring is also fitted on the head of the left and right adjusting screws. The pressure ring is tightly fitted into the outer hole of the stepped hole I. The inner wall of the pressure ring is evenly distributed with several tooth grooves. The head of the left and right adjusting screws is also provided with a blind hole perpendicular to the axis. A cylindrical compression spring and a pin are provided in the blind hole. The two ends of the cylindrical compression spring abut against the pin and the bottom end of the blind hole, respectively. The end of the pin away from the cylindrical compression spring extends out of the blind hole and abuts against the tooth groove.

[0012] Furthermore, the beam splitter is a plane mirror without refractive power. The beam splitter is tilted towards the collimating mirror. When the red dot light source is fixed to the light source holder, a red light reflecting film is provided on the corresponding surface of the beam splitter. When the micro display is fixed to the light source holder, a visible light reflecting film is provided on the corresponding surface of the beam splitter. The micro display and the red dot light source are located on the focal plane of the collimating mirror.

[0013] Furthermore, the lens body has an openable and closable lens cover at the front end of the main lens cavity and a protective glass at the rear; it also includes a control module, wherein the micro display, red dot light source and infrared night vision component are electrically connected to the control module, and the control module is electrically connected to a power supply.

[0014] Furthermore, the bottom end of the connecting seat is also provided with a quick-clamping mechanism for the rail, which includes a locking block, a pull rod, a locking wrench, and an unlocking button. The bottom of the connecting seat is provided with a through groove that matches the rail structure. The connecting seat is provided with a wrench groove and an unlocking groove on one side of the outer wall of the through groove, and a locking groove that extends through the through groove on the other side of the outer wall. The connecting seat is also provided with a through hole I that connects the wrench groove and the locking groove. The locking block is slidably embedded in the locking groove and has a side groove on its end face facing the through groove that matches the track structure. The pull rod slides through the through hole I and is connected to the locking block at one end, while the other end extends into the wrench groove. The locking wrench includes an eccentric wheel and a handle. The eccentric wheel has an eccentric connecting screw hole II. The end of the pull rod away from the locking block is hinged to the eccentric wheel by a connecting screw II passing through the connecting screw hole II. The eccentric wheel abuts against the inner wall of one side of the wrench groove. One end of the handle is fixedly connected to the eccentric wheel and the other end extends to the other side of the wrench groove. The outer wall of the eccentric wheel has a locking groove on the side away from the handle. One side of the unlock button is located in the unlock groove and is hinged to the connecting seat in the middle. The unlock button has a locking claw and a reset boss on both sides of the hinge. The bottom end of the reset boss is connected to a reset spring I that abuts against the unlock groove. The locking claw extends into the locking groove and abuts against each other.

[0015] Furthermore, the quick clamping mechanism for the rail also includes an adjusting nut. The locking block is also provided with a stepped hole concentric with the through hole I, and the diameter of the stepped hole facing the side groove is smaller than the inscribed circle diameter of the other side. The end of the pull rod facing the locking block slides into the stepped hole and is provided with an adjusting screw hole on its end face. The adjusting nut is slidably disposed in the stepped hole on the side away from the side groove. The adjusting nut is coaxially provided with a through hole IV. The adjusting nut is connected to the pull rod by an adjusting screw passing through the through hole IV and the adjusting screw hole. The connecting seat is also provided with a guide hole at the bottom upper edge of the locking groove. The locking block is also provided with a guide block above the side groove. The guide block slides into the guide hole. The locking block is connected with a return spring II on both sides of the guide block, the end face of which abuts against the bottom of the locking groove.

[0016] Furthermore, the connecting seat has a limiting protrusion at the top of the through groove that matches the transverse groove of the rail; the through hole I is vertically disposed at the top of the through groove and communicates with the through groove; the pull rod slides through the through hole I and protrudes from the top of the through groove and matches the transverse groove of the rail. The other end of the pull rod away from the locking block is provided with a connector extending into the wrench groove. The connector is provided with a kidney hole perpendicular to the axis of the pull rod. The locking wrench is provided with a relief groove perpendicular to the axis on the eccentric wheel. The connector extends into the relief groove. The connector is hinged to the eccentric wheel by a connecting screw II that passes through the kidney hole and the connecting screw hole II.

[0017] The beneficial effects of this invention are: 1. This invention places a beam splitter within the lower ventral cavity of the main mirror housing. A miniature display and a red dot light source are respectively positioned on either side of the beam splitter. An infrared night vision component is positioned parallel to the top or side of the mirror housing. Through the precise coordination of the beam splitter, miniature display, and red dot light source, the red dot and night vision images are optically fused. The fused beam is collimated by a collimating mirror on the object side of the principal optical axis and reflected into the eye, forming a virtual target and infrared image at infinity or a finite distance. The shooter can more quickly locate targets using the infrared image and can also aim and fire using the red dot target. Therefore, by controlling the switch of the infrared night vision component, turning on the red dot light source alone allows for rapid aiming during the day; while turning on and fusing the red dot light source and the infrared night vision component enables nighttime aiming and highlights heat sources, thus prominently displaying living targets with obvious infrared characteristics. This greatly improves the combat effectiveness of personnel, maximizes the advantages of each component, and allows for uninterrupted day and night use, enhancing the adaptability of the scope.

[0018] 2. This invention uses a beam splitter to achieve red dot and night vision fusion. Not only does the beam splitter not produce any aberrations, but it is only used for reflection and transmission, thus reducing image distortion compared to a prism. Moreover, the beam splitter effectively shortens the system volume by reversing the beam, and the beam splitter is smaller in size and weight than a prism, thus significantly reducing the size of the aiming scope. Furthermore, the main optical path in the main scope cavity contains only a collimating mirror, while the fusion optical path in the ventral scope cavity contains only a beam splitter, which significantly simplifies the overall optical path structure, and also significantly improves the light transmittance of the aiming scope and reduces the requirements for night vision image brightness, thereby improving the clarity of the image entering the human eye and the night vision endurance.

[0019] 3. This invention includes left-right adjustment components for the adjustable red dot light source and / or micro display, and a height adjustment component for the adjustable vertical position. Different screws are used to adjust the corresponding orientation and height, which not only avoids the mutual interference between orientation and height adjustments, but also allows for precise control of the adjustment amount, thus effectively improving adjustment accuracy. Furthermore, the guide blocks I and II of the left-right adjustment components are respectively attached to the beam splitter mount via inclined surfaces. Guide block I is threadedly connected to the left-right adjustment screws, and guide block II abuts against the elastic element I, ensuring a tight fit between guide blocks I and II and the beam splitter mount to eliminate gaps between components. This large-area surface contact improves the stability after adjustment.

[0020] 4. This invention uses a connecting seat as a base, and a through groove matching the structure of the rail is set at the bottom of the connecting seat. A wrench groove and an unlocking groove are set on one outer wall of the through groove of the connecting seat, and a locking groove is set on the other outer wall. A through hole I is set through the connecting seat to connect the wrench groove and the locking groove. Thus, by rotating the locking wrench with an eccentric wheel, the pull rod can be pulled to clamp or release the locking block in the locking groove, realizing quick clamping with the rail. Compared with the screw tightening or loosening structure, it can greatly improve the clamping efficiency. In addition, the locking block is provided with a side groove matching the structure of the rail, which can realize a large surface contact between the locking block and the rail for locking. It can also avoid stress concentration on the rail caused by surface or line contact during screw clamping, which can scratch the rail. The large surface contact can also improve the stability after locking, which is beneficial to improving the stability of the scope.

[0021] 5. The connecting seat of the present invention uses a locking wrench with an eccentric wheel structure to lock or release the locking block and the track by rotating the lever. Therefore, reliable clamping with the track can be achieved without special tools, avoiding the problem of varying tightening degrees from different people. Moreover, by setting a locking groove in the locking wrench and correspondingly setting an unlocking button that can be rotated into the locking groove, the reliability after clamping can be significantly improved. Furthermore, the locking wrench drives the eccentric wheel to rotate through the handle. Since the handle forms a lever effect with respect to the eccentric wheel, it can easily drive the eccentric wheel to rotate, thereby locking and releasing the locking block and the track. This avoids the problem of difficulty in releasing and sensitivity of the self-locking angle caused by the wedge structure, thus improving the adaptability of the application.

[0022] 6. The connecting seat of the present invention has a stepped hole on the locking block and an adjusting screw hole on the end face of the pull rod. At the same time, an adjusting nut with a through hole IV is provided in the stepped hole. An adjusting screw is passed through the through hole IV and the adjusting screw hole to connect the adjusting nut to the pull rod. A return spring II is provided between the locking block and the locking groove to abut. The return spring II can reliably abut the eccentric wheel of the locking wrench against the wrench groove. Moreover, when the rail is released, the locking block can be pushed to automatically disengage from the rail, thereby improving the reliability of clamping and the speed of release. Furthermore, by providing a guide block that slides into the guide hole of the connecting seat in the locking block, the stability of the side groove of the locking block and the rail can be effectively improved.

[0023] In summary, the present invention features a compact structure, usability day and night, high light transmittance, and stability and reliability. Attached Figure Description

[0024] Figure 1 This is a three-dimensional schematic diagram of the appearance of the present invention; Figure 2 This is a schematic diagram of the optical path of the present invention; Figure 3 This is a cross-sectional view of the present invention; Figure 4This is an exploded view of the adjustment component of the present invention (elastic element I and elastic element II are not shown); Figure 5 for Figure 4 Top left view (elastic element I and elastic element II are not shown); Figure 6 This is an exploded view of the left and right adjusting screws of the present invention (cylindrical compression spring and pin are not shown). Figure 7 This is a cross-sectional view of the left and right adjusting screws of the present invention; Figure 8 This is a schematic diagram of the quick clamping mechanism for the trolley rail of the present invention (guide rod not shown). Figure 9 for Figure 8 The bottom left view; Figure 10 for Figure 9 The left front view; Figure 11 for Figure 10 Sectional view along axis AA; Figure 12 This is an exploded view of the quick-clamping mechanism for the trolley rails of the present invention. Figure 13 for Figure 12 Left rear view; Figure 14 This is a schematic diagram of the connector structure of the present invention; Figure 15 for Figure 14 The bottom left view; Figure 16 This is a schematic diagram of the locking block structure of the present invention; Figure 17 This is a schematic diagram of the tie rod structure of the present invention; Figure 18 This is a schematic diagram of the locking wrench structure of the present invention; Figure 19 This is a schematic diagram of the unlock button structure of the present invention; Figure 20 This is a schematic diagram of the adjusting nut structure of the present invention; In the diagram: 1-scope body, 101-main scope cavity, 102-laparoscopic cavity, 2-connecting seat, 201-guide rod, 202-through groove, 203-wrench groove, 204-unlocking groove, 205-locking groove, 206-through hole I, 207-guide hole, 208-limiting protrusion, 209-spring guide hole II, 210-locking block, 211-side groove, 212-step hole, 213-guide block, 214-stop groove, 215-spring guide hole I, 22 0-Pull rod, 221-Adjusting screw hole, 222-Connector, 223-Kidney hole, 230-Locking wrench, 231-Eccentric wheel, 232-Handle, 233-Connecting screw hole II, 234-Locking groove, 235-Leaning groove, 240-Unlock button, 241-Locking claw, 242-Reset boss, 243-Connecting boss, 244-Through hole III, 245-Connecting screw I, 246-Spring guide hole III, 250-Connecting screw II, 26 0-Adjusting nut, 261-Through hole IV, 262-Optical rod, 263-Stop flange, 270-Adjusting screw, 280-Return spring II, 290-Return spring I, 3-Beam splitter mount, 301-Bevel I, 302-Mounting slot I, 303-Mounting slot II, 304-Strip groove, 305-Beveled guide surface, 4-Beam splitter, 5-Miniature display, 6-Light source mount, 7-Red dot light source, 8-Collimating mirror, 9-Infrared night vision component 11-Left and right adjustment assembly, 111-Guide block I, 112-Guide block II, 113-Left and right adjustment screw, 114-Bevel II, 115-Position screw hole, 116-Pressure ring, 117-Groove, 118-Cylindrical compression spring, 119-Pin, 12-Height adjustment assembly, 121-Height adjustment block, 122-Height adjustment screw, 123-Strip protrusion, 124-Height adjustment screw hole, 125-Blind hole II, 13-Mirror cover, 14-Protective glass. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0026] It should be noted that in this invention, "eye side" means the end of the scope that is closer to the shooter during actual operation, and "object side" means the end of the scope that is closer to the target during actual operation, that is, the end that is farther away from the shooter.

[0027] like Figures 1 to 20 As shown, the present invention includes a mirror body 1, a connecting base 2, a beam splitter mount 3, a beam splitter 4, a miniature display 5, a light source mounting base 6, a red dot light source 7, a collimating mirror 8, an infrared night vision component 9, and a power supply. The mirror body 1 is provided with a main mirror cavity 101 and a laparoscope cavity 102 with an open lower end. The connecting seat 2 is detachably fixed to the bottom of the mirror body 1 and closes the open lower end of the laparoscope cavity 102. The collimating mirror 8 is fixedly arranged in front of the incident light direction of the main mirror cavity 101. The top of the laparoscope cavity 102 is connected to the main mirror cavity 101. The beam splitter mount 3 is located at the rear end of the laparoscope cavity 102 and has interconnected mounting grooves I 302 and II 303 arranged sequentially from front to back along the incident light direction of the mirror body 1. The beam splitter 4 is tilted and fixed in the mounting groove I 302. The light source fixing seat 6 is set in the laparoscope cavity 102 in front of the beam splitter seat 3 along the incident light direction of the mirror body 1. The light source fixing seat 6 is connected to the beam splitter seat 3 or the connecting seat 2. The red dot light source 7 and the micro display 5 are respectively fixed on the light source fixing seats 6 on both sides of the beam splitter 4 and in the mounting groove II 303. The infrared night vision component 9 is fixed parallel to the top or side of the lens body 1 and is used to collect and process infrared band information in night vision mode; the micro display 5 is electrically connected to the infrared night vision component 9 to convert the processed infrared band information into a visible light image; the image emitted by the micro display 5 is divided into a first beam by the beam splitter 4, and the light source signal emitted by the red dot light source 7 is divided into a second beam by the beam splitter 4. The first beam and the second beam are combined and collimated by the incident collimating mirror 8 and then reflected along the main mirror cavity 101 into the target area; The power supply is located inside the mirror body 1, or it is located separately from the mirror body 1 and electrically connected to the power interface on the mirror body 1. The micro display 5, the red dot light source 7, and the infrared night vision component 9 are respectively electrically connected to the power supply inside the mirror body 1 or the power interface on the mirror body 1.

[0028] like Figures 3 to 7 As shown, the present invention also includes a left-right adjustment component 11 and a height adjustment component 12. The laparoscope cavity 102 is provided with a mirror base groove and a T-shaped groove that are connected front and rear at the rear end away from the collimating mirror 8. The beam splitter 3 is slidably disposed in the mirror base groove and has inclined surfaces I301 on both sides along the length direction of the mirror body 1. The left and right adjustment assembly 11 includes guide block I 111, guide block II 112, left and right adjustment screw 113, and elastic element I. Guide block I 111 and guide block II 112 are respectively disposed in the mirror mount grooves on both sides of the beam splitter mount 3. The side of guide block I 111 and guide block II 112 facing the beam splitter mount 3 is respectively provided with inclined surface II 114 that can cooperate with inclined surface I 301. The left and right adjustment screw 113 passes through the side wall of the mirror body 1 and is threadedly connected to guide block I 111. The elastic element I is disposed in the mirror mount groove on the side of guide block II 112 away from the beam splitter mount 3 and its two ends respectively abut against guide block II 112 and the inner wall of the mirror mount groove. The height adjustment assembly 12 includes a height adjustment block 121 and a height adjustment screw 122. The height adjustment block 121 is disposed in a T-shaped groove behind the beam splitter mount 3 and one end is connected to the beam splitter mount 3. The height adjustment screw 122 passes through the upper wall of the mirror body 1 and is threadedly connected to the height adjustment block 121.

[0029] The beam splitter mount 3 has a strip groove 304 on the side facing the height adjustment block 121. The height adjustment block 121 has a forward-extending strip protrusion 123 on the side facing the beam splitter mount 3. The strip protrusion 123 of the height adjustment block 121 extends movably into the strip groove 304. The width of the strip groove 304 is greater than the width of the strip protrusion 123. The height adjustment block 121 has a height adjustment screw hole 124 on the side away from the beam splitter mount 3. The mirror body 1 has a stepped hole II with a larger outer diameter and smaller inner diameter, which is connected to the T-shaped groove at the upper rear end in the incident light direction. The height adjustment screw 122 passes through the stepped hole II and is threadedly connected to the height adjustment screw hole 124.

[0030] The top of the connecting seat 2 is provided with two guide rods 201 perpendicular to the incident light direction of the mirror body 1. The bottom of the beam splitter 3 is provided with guide holes on both sides of the mounting groove I 302. The guide rods 201 of the connecting seat 2 slide into the sliding holes of the beam splitter 3. The height adjustment block 121 is provided with blind holes II 125 on both sides of the height adjustment screw hole 124. The blind holes II 125 are provided with outwardly extending elastic members II. The two ends of the elastic members II abut against the bottom end of the blind holes II 125 and the top end of the T-shaped groove, respectively.

[0031] The guide block I 111 is provided with an azimuth screw hole 115 perpendicular to the incident light direction of the mirror body 1. The mirror body 1 is provided with a stepped hole I with a larger outer diameter and a smaller inner diameter on the side wall in the incident light direction. The left and right adjusting screws 113 pass through the stepped hole I and are threadedly connected to the azimuth screw hole 115. The head of the left and right adjusting screws 113 is also provided with a pressure ring 116. The pressure ring 116 is tightly fitted into the outer hole of the stepped hole I. The inner wall of the pressure ring 116 is evenly distributed with a number of tooth grooves 117. The head of the left and right adjusting screws 113 is also provided with a blind hole perpendicular to the axis. A cylindrical compression spring 118 and a pin 119 are provided in the blind hole. The two ends of the cylindrical compression spring 118 abut against the pin 119 and the bottom end of the blind hole, respectively. The end of the pin 119 away from the cylindrical compression spring 118 extends out of the blind hole and abuts against the tooth groove 117.

[0032] The beam splitter 4 is a plane mirror without refractive power. The beam splitter 4 is tilted towards the collimating mirror 8. When the red dot light source 7 is fixed to the light source mounting base 6, a red light reflecting film is provided on the corresponding surface of the beam splitter 4. When the micro display 5 is fixed to the light source mounting base 6, a visible light reflecting film is provided on the corresponding surface of the beam splitter 4. The micro display 5 and the red dot light source 7 are located on the focal plane of the collimating mirror 8.

[0033] like Figure 1 and 3 As shown, the mirror body 1 has an openable and closable mirror cover 13 at the front end of the main mirror cavity 101 and a protective glass 14 at the rear; it also includes a control module, the micro display 5, the red dot light source 7 and the infrared night vision component 9 are electrically connected to the control module, and the control module is electrically connected to the power supply.

[0034] The control module is a common control switch or any existing control circuit that can be used for night vision goggles.

[0035] The center point of the light spot or image emitted by the red dot light source 7 into the beam splitter 4 coincides with the center point of the image emitted by the microdisplay 5 into the beam splitter 4.

[0036] like Figure 3 As shown, the beam splitter mount 4 is provided with an inclined guide surface 305 at the lower front end along the incident light direction of the mirror body 1. The inclined guide surface 305 is provided with a connecting screw hole. The light source fixing seat 6 is attached to the inclined guide surface 305 and connected by a screw that engages with the connecting screw hole.

[0037] like Figures 8 to 20 As shown, the bottom end of the connecting seat 2 is also provided with a quick-clamping mechanism for the rail, which includes a locking block 210, a pull rod 220, a locking wrench 230, and an unlocking button 240. The bottom of the connecting seat 2 is provided with a through groove 202 that matches the rail structure. The connecting seat 2 is provided with a wrench groove 203 and an unlocking groove 204 on one side of the outer wall of the through groove 202, and a locking groove 205 that penetrates into the through groove 202 is provided on the other side of the outer wall. The connecting seat 2 is also provided with a through hole I 206 that connects the wrench groove 203 and the locking groove 205. The locking block 210 is slidably embedded in the locking groove 205 and has a side groove 211 that matches the track structure on its end face facing the through groove 202; The pull rod 220 slides through the through hole I 206 and one end is connected to the locking block 210, while the other end extends into the wrench groove 203; The locking wrench 230 includes an eccentric wheel 231 and a handle 232. The eccentric wheel 231 has an eccentric connecting screw hole II 233. The end of the pull rod 220 away from the locking block 210 is hinged to the eccentric wheel 231 by a connecting screw II 250 passing through the connecting screw hole II 233. The eccentric wheel 231 abuts against the inner wall of one side of the wrench groove 203. One end of the handle 232 is fixedly connected to the eccentric wheel 231 and the other end extends to the other side of the wrench groove 203. The outer wall of the eccentric wheel 231 has a locking groove 234 on the side away from the handle 232. One side of the unlock button 240 is disposed in the unlock groove 204 and is hinged to the connecting seat 2 in the middle. The unlock button 240 is provided with a locking claw 241 and a reset boss 242 on both sides of the hinge. The bottom end of the reset boss 242 is connected to a reset spring I 290 that abuts against the unlock groove 204. The locking claw 241 extends into the locking groove 234 and abuts against each other.

[0038] The quick-clamping mechanism for the track also includes an adjusting nut 260. The locking block 210 is further provided with a stepped hole 212 concentric with the through hole I 206, and the diameter of the stepped hole 212 facing the side groove 211 is smaller than the inscribed circle diameter of the other side. The end of the pull rod 220 facing the locking block 210 slides into the stepped hole 212 and is provided with an adjusting screw hole 221 on its end face. The adjusting nut 260 is slidably disposed in the stepped hole 212 on the side away from the side groove 211. The adjusting nut 260 is coaxially provided with a... Through hole IV 261, the adjusting nut 260 is connected to the pull rod 220 by an adjusting screw 270 passing through through hole IV 261 and adjusting screw hole 221; the connecting seat 2 is also provided with a guide hole 207 at the bottom upper edge of the locking groove 205; the locking block 210 is also provided with a guide block 213 above the side groove 211; the guide block 213 slides into the guide hole 207; the locking block 210 is connected to a return spring II 280 with its end face abutting the bottom of the locking groove 205 on both sides of the guide block 213.

[0039] The adjusting nut 260 is also coaxially provided with a smooth rod 262. The smooth rod 262 is slidably embedded in the side hole of the stepped hole 212 facing the side groove 211. The outer edge of the side hole of the stepped hole 212 away from the side groove 211 is provided with a plurality of stop grooves 214 at intervals. The adjusting nut 260 is coaxially provided with a stop flange 263 at intervals on its outer edge that cooperates with the stop grooves 214 at intervals.

[0040] The locking block 210 has spring guide holes I 215 on both sides of the guide block 213, and the connecting seat 2 has spring guide holes II 209 on both sides of the guide hole 207 at the bottom of the locking groove 205. The two ends of the reset spring II 280 are fixed in the spring guide holes I 215 and the spring guide holes II 209 respectively.

[0041] The unlocking groove 204 is provided with a connecting screw hole I. The unlocking button 240 is provided with a connecting boss 243 in the middle and a through hole III 244 is provided through the connecting boss 243. The connecting boss 243 extends into the unlocking groove 204 and is hinged to the connecting seat 2 by a connecting screw I 245 passing through the through hole III 244 and the connecting screw hole I. The reset boss 242 extends into the unlocking groove 204 and is provided with a spring guide hole III 246 on its end face. One end of the reset spring I 290 is fixed in the spring guide hole III 246 and the other end abuts against the bottom of the unlocking groove 204.

[0042] The connecting seat 2 has a limiting protrusion 208 at the top of the through groove 202 that cooperates with the transverse groove of the rail. The through hole I 206 is vertically disposed at the top of the through groove 202 and communicates with the through groove 202. The pull rod 220 slides through the through hole I 206 and protrudes from the top of the through groove 202 and cooperates with the transverse groove of the rail. The other end of the pull rod 220 away from the locking block 210 is provided with a connector 222 extending into the wrench groove 203. The connector 222 is provided with a kidney hole 223 perpendicular to the axis of the pull rod 220. The locking wrench 230 is provided with a relief groove 235 perpendicular to the axis on the eccentric wheel 231. The connector 222 extends into the relief groove 235. The connector 222 is hinged to the eccentric wheel 231 by a connecting screw II250 passing through the kidney hole 223 and the connecting screw hole II233.

[0043] The infrared night vision component 9 comprises a thermal imaging detector and / or a CMOS detector. The thermal imaging detector acquires far-infrared information in night vision mode, detecting the target's thermal radiation; while the CMOS detector acquires near-infrared information in night vision mode, detecting the near-infrared light reflected from the target. Selecting different detectors as needed can improve the system's environmental adaptability.

[0044] The infrared night vision component 9 is an existing night vision module for night vision goggles, which includes an objective lens group, an infrared photosensitive night vision element, and an image signal conversion function.

[0045] The microdisplay 5 is a Micro LED display or an OLED display.

[0046] Working principle and process of this invention: like Figures 1 to 3As shown, when working in an environment with sufficient natural light, the lens cover 13 is opened and the red dot light source 7 is activated. The light emitted by the red dot light source 7 is reflected by the beam splitter 4 and enters the collimating mirror 8. After being collimated by the collimating mirror 8 and fused with the transmitted external target, it enters the human eye, completing the fusion of visible light and red dot, and realizing rapid aiming during the day.

[0047] When working in environments with severely insufficient natural light, first close the lens cover 13, then activate the red dot light source 7, and simultaneously activate the infrared night vision component 9 to receive the far-infrared and / or near-infrared bands of the external environment and targets. After photoelectric conversion and image processing algorithms, the visible light image is displayed on the OLED display screen (i.e., the micro-display 5). The visible light image on the OLED display screen and the light emitted by the red dot light source 7 are fused together on the beam splitter 4. The fused light enters the collimating mirror 8 for collimation and reflection before entering the human eye, completing the fusion of infrared light and red dot, enabling nighttime aiming. Furthermore, the heat source prominence mode highlights living targets with obvious infrared characteristics, greatly improving the combat effectiveness of combat personnel.

[0048] Of course, when working in environments with insufficient natural light, such as dusk or bright moonlight, the lens cover 13 can be opened first, and then the red dot light source 7 and infrared night vision component 9 can be activated. The infrared image of the outdoor target is captured and photoelectrically converted by the infrared night vision component 9 and displayed as a visible light image on the OLED display (i.e., the micro display 5). The visible light image on the OLED display and the light emitted by the red dot light source 7 are fused together on the beam splitter 4. The fused light enters the collimating mirror 8 for collimation and reflection, and then is fused again with the visible light passing through the collimating mirror 8 before entering the human eye simultaneously. This completes the fusion of visible light, infrared light and red dot, thereby maximizing the advantages of each and improving aiming accuracy.

[0049] like Figures 3 to 7As shown, when adjusting the micro-display 5 and / or the red dot light source 7 left and right, insert a screwdriver or hex wrench into the groove of the left and right adjusting screw 113, and rotate the left and right adjusting screw 113 forcefully to overcome the resistance between the pin 119 and the toothed groove 117. The left and right adjusting screw 113 drives the guide block I 111 to move left and right in the mirror base groove. Since the guide block II 112 presses against the beam splitter base 3 under the elastic force of the elastic element I, the beam splitter base 3 presses against the guide block I 111. Therefore, the left and right movement of the guide block I 111 causes the beam splitter base 3 to move left and right as well, thereby realizing the left and right movement of the OLED display or the infrared light source 7. When the left and right adjusting screw 113 is rotated, the pin 119 continuously hits the toothed groove 117 and makes a sound, thereby obtaining positioning and circumferential indexing information. After adjustment, the head of pin 119 abuts against the toothed groove 117 to form a self-locking mechanism, preventing the left and right adjustment screw 113 from creeping due to vibration and affecting accuracy. Furthermore, the tight fit with the pressure ring 116 embedded in the outer hole of the stepped hole I on the mirror body 1 prevents the left and right adjustment screw 113 from dislodging due to large impacts. The principle and process of adjusting the up and down micro-display 5 and / or the red dot light source 7 are the same as the left and right adjustment.

[0050] like Figures 8 to 20 As shown, when the quick clamping mechanism of the rail is clamped with the rail, the connecting seat 2 of the present invention is slidably inserted into the rail through the through groove 202 (or the red dot sight is first installed on the top of the connecting seat 2). The connecting seat 2 is adjusted to a suitable position on the rail, and the middle part of the limiting protrusion 208 and the pull rod 220 are respectively inserted into the transverse groove of the rail. Then, the handle 232 of the locking wrench 230 is manually pressed down, which drives the eccentric wheel 231 to rotate and pull the pull rod 220. Thus, the locking block 210 is moved towards the rail by adjusting the nut 260 and adjusting screw 270, and finally the side groove 211 of the locking block 210 is clamped into the rail. As the eccentric wheel 231 rotates, the locking groove 234 gradually moves to the position of the locking claw 241. The unlocking button 240 rotates under the push of the return spring I 290, so that the locking claw 241 is inserted into the locking groove 234, completing the clamping and locking of the connecting seat 2 and the rail. When released, manually press down one end of the reset boss 242 of the unlock button 240 to disengage the locking claw 241 from the locking groove 234. At the same time, manually pull up the handle 232 to rotate the eccentric wheel 231. Under the push of the return spring II 280 on the side of the locking block 210, the locking block 210 moves away from the Picatinny rail. At this time, the sliding connecting seat 2 can be separated from the Picatinny rail, thereby realizing the clamping and disassembly of the Picatinny rail and the scope. The clamping force after clamping can be adjusted by rotating the adjusting screw 270 to adjust the distance between the end face of the optical rod 262 and the end face of the pull rod 220.

[0051] The above description is merely a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A sight that fuses infrared and red dot sights, characterized in that... Includes the mirror body (1), connector (2), beam splitter mount (3), beam splitter (4), miniature display (5), light source mounting base (6), red dot light source (7), collimating mirror (8), infrared night vision assembly (9), and power supply. The mirror body (1) is provided with a main mirror cavity (101) and a laparoscope cavity (102) with an open lower end. The connecting seat (2) is detachably fixed to the bottom of the mirror body (1) and closes the open lower end of the laparoscope cavity (102). The collimating mirror (8) is fixedly set in front of the incident light direction of the main mirror cavity (101). The top of the laparoscope cavity (102) is connected to the main mirror cavity (101). The beam splitter mount (3) is located at the rear end of the laparoscope cavity (102) and has interconnected mounting grooves I (302) and II (303) arranged sequentially from front to back along the incident light direction of the mirror body (1). The beam splitter (4) is tilted and fixed in the mounting groove I (302). The light source mounting base (6) is set in the laparoscope cavity (102) in front of the beam splitter mount (3) along the incident light direction of the mirror body (1). The light source mounting base (6) is connected to the beam splitter mount (3) or the connecting base (2). The red dot light source (7) and the micro display (5) are respectively fixed on the light source mounting base (6) on both sides of the beam splitter (4) and in the mounting groove II (303). The infrared night vision component (9) is fixed parallel to the top or side of the mirror body (1) and is used to collect and process infrared band information in night vision mode; the micro display (5) is electrically connected to the infrared night vision component (9) to convert the processed infrared band information into a visible light image; the image emitted by the micro display (5) forms a first beam through the beam splitter (4), and the light source signal emitted by the red dot light source (7) forms a second beam through the beam splitter (4). The first beam and the second beam are overlapped and collimated by the incident collimating mirror (8) and then reflected along the main mirror cavity (101) into the target area; The power supply is located inside the mirror body (1), or it is located separately from the mirror body (1) and electrically connected to the power interface on the mirror body (1). The micro display (5), the red dot light source (7), and the infrared night vision component (9) are electrically connected to the power supply inside the mirror body (1) or the power interface on the mirror body (1), respectively.

2. The infrared and red dot fusion sight according to claim 1, characterized in that... It also includes a left and right adjustment component (11) and a high and low adjustment component (12). The laparoscope cavity (102) is provided with a mirror base groove and a T-shaped groove that are connected front and back at the rear end away from the collimating mirror (8). The beam splitter (3) is slidably disposed in the mirror base groove and has inclined surfaces I (301) on both sides along the length direction of the mirror body (1). The left and right adjustment assembly (11) includes guide block I (111), guide block II (112), left and right adjustment screw (113), and elastic element I. Guide block I (111) and guide block II (112) are respectively disposed in the mirror mount grooves on both sides of the beam splitter mount (3). The guide block I (111) and guide block II (112) facing the beam splitter mount (3) are respectively provided with inclined surface II (114) that can cooperate with inclined surface I (301). The left and right adjustment screw (113) passes through the side wall of the mirror body (1) and is threadedly connected to guide block I (111). The elastic element I is disposed in the mirror mount groove on the side of guide block II (112) away from the beam splitter mount (3) and its two ends abut against guide block II (112) and the inner wall of the mirror mount groove, respectively. The height adjustment assembly (12) includes a height adjustment block (121) and a height adjustment screw (122). The height adjustment block (121) is located in a T-shaped groove behind the beam splitter mount (3) and one end is connected to the beam splitter mount (3). The height adjustment screw (122) passes through the upper wall of the mirror body (1) and is threadedly connected to the height adjustment block (121).

3. The infrared and red dot fusion sight according to claim 2, characterized in that... The beam splitter mount (3) has a strip groove (304) on the side facing the height adjustment block (121). The height adjustment block (121) has a forward-extending strip protrusion (123) on the side facing the beam splitter mount (3). The strip protrusion (123) of the height adjustment block (121) extends into the strip groove (304). The width of the strip groove (304) is greater than the width of the strip protrusion (123). The height adjustment block (121) has a height adjustment screw hole (124) on the side away from the beam splitter mount (3). The mirror body (1) has a stepped hole II with a larger outer diameter and smaller inner diameter, which connects to the T-shaped groove at the upper rear end in the incident light direction. The height adjustment screw (122) passes through the stepped hole II and is threadedly connected to the height adjustment screw hole (124).

4. The infrared and red dot fusion sight according to claim 3, characterized in that... The top of the connecting seat (2) is provided with two guide rods (201) perpendicular to the incident light direction of the mirror body (1). The bottom of the beam splitter mount (3) is provided with guide holes on both sides of the mounting groove I (302). The guide rods (201) of the connecting seat (2) slide into the sliding hole of the beam splitter mount (3). The height adjustment block (121) is provided with blind holes II (125) on both sides of the height adjustment screw hole (124). The blind hole II (125) is provided with an outwardly extending elastic element II. The two ends of the elastic element II abut against the bottom end of the blind hole II (125) and the top end of the T-shaped groove, respectively.

5. The infrared and red dot fusion sight according to claim 2, characterized in that... The guide block I (111) is provided with an azimuth screw hole (115) perpendicular to the incident light direction of the mirror body (1). The mirror body (1) is provided with a stepped hole I with a larger outer diameter and a smaller inner diameter on the side wall in the incident light direction. The left and right adjusting screws (113) pass through the stepped hole I and are threadedly connected to the azimuth screw hole (115). A pressure ring (116) is also fitted on the head of the left and right adjusting screws (113). The pressure ring (116) is tightly fitted into the outer hole of the stepped hole I. Inside, the inner wall of the pressure ring (116) is evenly distributed with several toothed grooves (117) in the circumferential direction. The head of the left and right adjusting screws (113) is also provided with a blind hole perpendicular to the axis. A cylindrical compression spring (118) and a pin (119) are provided in the blind hole. The two ends of the cylindrical compression spring (118) abut against the pin (119) and the bottom end of the blind hole, respectively. The end of the pin (119) away from the cylindrical compression spring (118) extends out of the blind hole and abuts against the toothed grooves (117).

6. The infrared and red dot fusion sight according to any one of claims 1 to 5, characterized in that... The beam splitter (4) is a plane mirror without refractive power. The beam splitter (4) is tilted towards the collimating mirror (8). When the red dot light source (7) is fixed on the light source mounting base (6), a red light reflective film is provided on the corresponding surface of the beam splitter (4). When the micro display (5) is fixed on the light source mounting base (6), a visible light reflective film is provided on the corresponding surface of the beam splitter (4). The micro display (5) and the red dot light source (7) are located on the focal plane of the collimating mirror (8).

7. The infrared and red dot fusion sight according to claim 6, characterized in that... The mirror body (1) has an openable and closable mirror cover (13) at the front end of the main mirror cavity (101) and a protective glass (14) at the rear side; it also includes a control module, wherein the micro display (5), the red dot light source (7) and the infrared night vision component (9) are electrically connected to the control module, and the control module is electrically connected to the power supply.

8. The infrared and red dot fusion sight according to claim 6, characterized in that... The bottom end of the connecting seat (2) is also provided with a quick-clamping mechanism for the rail, which includes a locking block (210), a pull rod (220), a locking wrench (230), and an unlocking button (240). The bottom of the connecting seat (2) is provided with a through groove (202) that matches the rail structure. The connecting seat (2) is provided with a wrench groove (203) and an unlocking groove (204) on one side of the outer wall of the through groove (202), and a locking groove (205) that penetrates into the through groove (202) is provided on the other side of the outer wall. The connecting seat (2) is also provided with a through hole I (206) that connects the wrench groove (203) and the locking groove (205). The locking block (210) is slidably embedded in the locking groove (205) and has a side groove (211) on its end face facing the through groove (202) that matches the rail structure. The pull rod (220) slides through the through hole I (206) and one end is connected to the locking block (210), while the other end extends into the wrench groove (203); The locking wrench (230) includes an eccentric wheel (231) and a handle (232). The eccentric wheel (231) has an eccentric connecting screw hole II (233) through it. The end of the pull rod (220) away from the locking block (210) is hinged to the eccentric wheel (231) by a connecting screw II (250) passing through the connecting screw hole II (233). The eccentric wheel (231) abuts against the inner wall of one side of the wrench groove (203). One end of the handle (232) is fixedly connected to the eccentric wheel (231) and the other end extends to the other side of the wrench groove (203). The outer wall of the eccentric wheel (231) has a locking groove (234) on the side away from the handle (232). The unlock button (240) is located in the unlocking groove (204) on one side and is hinged to the connecting seat (2) in the middle. The unlock button (240) is provided with a locking claw (241) and a reset boss (242) on both sides of the hinge. The bottom end of the reset boss (242) is connected to a reset spring I (290) that abuts against the unlocking groove (204). The locking claw (241) extends into the locking groove (234) and abuts against each other.

9. The infrared and red dot fusion sight according to claim 8, characterized in that... The quick clamping mechanism for the rail also includes an adjusting nut (260). The locking block (210) is also provided with a stepped hole (212) concentric with the through hole I (206), and the diameter of the stepped hole (212) facing the side groove (211) is smaller than the inscribed circle diameter of the other side. The end of the pull rod (220) facing the locking block (210) slides into the stepped hole (212) and the end face is provided with an adjusting screw hole (221). The adjusting nut (260) is slidably disposed in the stepped hole (212) on the side away from the side groove (211). The adjusting nut (260) is coaxially provided with a through hole IV ( 261), the adjusting nut (260) is connected to the pull rod (220) by the adjusting screw (270) passing through the through hole IV (261) and the adjusting screw hole (221); the connecting seat (2) is also provided with a guide hole (207) at the bottom upper edge of the locking groove (205); the locking block (210) is also provided with a guide block (213) above the side groove (211); the guide block (213) slides into the guide hole (207); the locking block (210) is connected with a return spring II (280) on both sides of the guide block (213), the end face of which abuts the bottom of the locking groove (205).

10. The infrared and red dot fusion sight according to claim 8, characterized in that... The connecting seat (2) has a limiting protrusion (208) at the top of the through groove (202) that matches the transverse groove of the rail. The through hole I (206) is vertically disposed at the top of the through groove (202) and communicates with the through groove (202). The pull rod (220) slides through the through hole I (206) and protrudes from the top of the through groove (202) and matches the transverse groove of the rail. The other end of the pull rod (220) away from the locking block (210) is provided with a connector (222) extending into the wrench groove (203). The connector (222) is provided with a kidney hole (223) perpendicular to the axis of the pull rod (220). The locking wrench (230) is provided with a relief groove (235) perpendicular to the axis on the eccentric wheel (231). The connector (222) extends into the relief groove (235). The connector (222) is hinged to the eccentric wheel (231) by a connecting screw II (250) passing through the kidney hole (223) and the connecting screw hole II (233).

Images