An ultra-narrow angle spotlight laser lamp

Abstract

The utility model discloses a kind of ultra-narrow angle light projection laser lamps, belong to the technical field of semiconductor laser application, including lens system for projecting high-brightness uniform light spot, laser light source system, armored optical fiber and window mirror, the lens system and laser light source system are connected by armored optical fiber, the lens system is emitted high-brightness uniform light spot by window mirror, solve the existing light projection system with distance increase, the uniformity of center brightness and edge brightness is difficult to keep, cannot realize distance and uniformity, and light brightness loss is serious under long distance, difficult to adapt to the demand of some special applications, most light projection system adopts LED light source, it is not good in brightness and light spot uniformity, leading to the quality of projected light spot is not ideal, and traditional light projection system needs larger radiator and more lamp beads to realize high brightness and long distance, leading to the problem of bulky lamp body.

Description

Technical Field

[0001] This utility model belongs to the field of semiconductor laser application technology, and in particular relates to an ultra-narrow angle projection laser light. Background Technology

[0002] Currently, there are still several shortcomings in the floodlighting systems on the market. For example, as the distance increases, it is difficult to maintain the uniformity of the brightness at the center and the edge, making it impossible to achieve a balance between distance and uniformity. Moreover, the brightness loss is severe at long distances, making it difficult to meet the needs of certain special applications. In addition, most floodlighting systems use LED light sources, which perform poorly in terms of brightness and light spot uniformity, resulting in unsatisfactory quality of the projected light spot. Furthermore, in order to achieve high brightness and long distance, traditional floodlighting systems require larger heat sinks and more LEDs, resulting in a large lamp size.

[0003] This paper improves and upgrades the traditional projection system based on market demand. The brightness of the laser is much higher than that of the traditional LED. A single laser diode can generate an extremely strong beam, easily achieving ultra-long-distance wall washing at the level of hundreds of meters. Moreover, the brightness attenuation is much less than that of LED. This paper proposes a projection laser light with customizable angle, high brightness, good uniformity, small size, and the ability to meet special application scenarios. This utility model provides an ultra-narrow angle projection laser light. After the fiber optic output passes through the lens module, it emits a high-brightness uniform light spot, and the projection angle can be customized. Summary of the Invention

[0004] To address the problems of existing technologies, this utility model provides an ultra-narrow angle projection laser light, which has the advantages of customizable angle, high brightness, good uniformity, small size, and suitability for special application scenarios. It solves the problem that existing projection systems have difficulty maintaining the uniformity of center and edge brightness as the distance increases, making it impossible to achieve a balance between distance and uniformity. Moreover, the brightness loss is severe at long distances, making it difficult to meet the needs of certain special applications. Most projection systems use LED light sources, which perform poorly in terms of brightness and spot uniformity, resulting in unsatisfactory projected spot quality. Furthermore, traditional projection systems require larger heat sinks and more LEDs to achieve high brightness and long distance, resulting in a large lamp size.

[0005] This invention is implemented as follows: an ultra-narrow angle projection laser light includes a lens system for projecting a high-brightness uniform light spot, a laser source system, armored optical fiber, and a window mirror. The lens system and the laser source system are connected by the armored optical fiber. The lens system emits a high-brightness uniform light spot through the window mirror, and the projection angle is customizable. A three-dimensional adjustment bracket for adjusting the three-dimensional angle of the lens system is installed at the bottom of the lens system, and a hanging arm for fixing is movably connected to the surface of the laser source system.

[0006] In a preferred embodiment of this invention, the lens system includes a lens base plate serving as a fixed reference plate. The bottom of the lens base plate is fixedly connected to the top of a three-dimensional adjustment bracket. A front lens plate, a rear lens plate, and two side lens plates are fixedly connected to the top of the lens base plate by screws. The two side lens plates are symmetrically arranged. A window mirror is mounted on the front lens plate. A fixed bracket is fixedly connected to the top of the lens base plate. A lens module is installed inside the lens base plate. An armored optical fiber is connected to the rear end of the lens module. A top lens plate is fixedly connected to the top of the front lens plate, the rear lens plate, and the two side lens plates by screws. An M3 load-bearing lifting ring is fixedly installed on the surface of the rear lens plate. The lens module can be customized according to different needs. By changing the internal lens design of the lens module, different angle effects can be achieved.

[0007] In a preferred embodiment of this invention, the laser source system includes a base plate serving as a fixed reference plate. A front panel, a rear panel, and two side panels are fixedly connected to the top of the base plate via screws. The two side panels are symmetrically arranged, with the front and rear panels located on the front and rear sides of the side panels, respectively. The surface of each side panel has heat dissipation holes. A boom connecting block, which mates with a boom, is installed on the side of each side panel furthest from each other, for connecting and fixing the boom, facilitating equipment movement and adjustment. A 512 male connector and a 5... The system includes a 12-pin female connector, a 512-pin control board, a power interface, an M6 load-bearing lifting ring, and a rubber pad. A waterproof baffle for pressing is fixedly installed on the surface of the rubber pad. A heat sink is fixedly connected to the top of the base plate. The heat sink is equipped with a laser light source, a DC step-down power supply module, a power supply module, and a light source drive module. The top of the front panel, rear panel, and two side panels are fixedly installed with a top panel by screws. The lens module and laser light source are connected and fixed by mechanical structure and reinforced with UV glue to reduce errors caused by structural deformation.

[0008] In a preferred embodiment of this invention, both ends of the armored optical fiber are provided with waterproof connectors for fixing and locking the armored optical fiber. The laser light source system emits light from the armored optical fiber, which is connected to the lens module. The lens module is fixed inside the lens system. The armored optical fiber enters the lens module and emits a high-brightness, uniform light spot through the window lens. Different lens modules with different divergence angles can be replaced according to different field-of-view requirements to achieve different light spot effects, thereby realizing customized adjustment of the projection angle. The surface of the armored optical fiber is provided with a yellow armor cladding to prevent dust from entering the optical fiber and to avoid damage caused by excessive bending of the optical fiber, thus providing a certain degree of protection.

[0009] In a preferred embodiment of this invention, the lens module is fixed inside the mounting bracket by screws. The mounting bracket has three locking threads on both sides and the top. The mounting bracket is used to fix and lock the lens module.

[0010] In a preferred embodiment of this invention, the heat sink is tightly connected to the laser light source, and thermally conductive silicone grease is applied to the connection between the laser light source and the heat sink to ensure efficient heat conduction, thereby achieving rapid heat dissipation and ensuring stable system operation. Black silicone rubber is applied to the corners of the lens system and the laser light source system to prevent light leakage. Shock-absorbing pads are fixedly installed on the top of the base plate for equipment support and shock absorption. These pads absorb vibrations or impacts, ensuring equipment stability. The boom connecting block is fixedly connected to the boom with screws. A fan sheet metal strip is installed on one side of the heat sink, and four cooling fans are fixedly installed on the surface of the fan sheet metal strip with screws. Heat is dissipated through ventilation holes on both sides, ensuring system heat dissipation.

[0011] As a preferred embodiment of this utility model, the window mirror, three-dimensional adjustment bracket, rubber pad, 512 male connector, 512 female connector, power interface, M6 load-bearing lifting ring, laser light source, DC step-down power supply module, power module, light source drive module, 512 control board, cooling fan, M3 load-bearing lifting ring and lens module adopt a modular and split design. If any module needs to be reworked, only the corresponding module needs to be removed, reducing rework time. The power interface provides 220V voltage to power the power module, which in turn powers the power module and the DC step-down power supply module. The power module then powers the light source driver module and the laser light source. The DC step-down power supply module powers the 512 control board and the cooling fan. The 512 control board controls the light output and shut-off of the laser light source. The laser light source system's output armored optical fiber is connected to the rear end of the lens module. The lens module is fixed inside the mounting bracket by screws, ultimately emitting a high-brightness, uniform light spot. The window mirror, lens module, armored fiber optic cable, and laser light source have all undergone optical design, employing different designs to achieve different requirements; The lens system, laser light source system, waterproof connector, window mirror, 512 male connector, 512 female connector, power interface and other connection points are all coated with silicone rubber, which has waterproof and dustproof functions, prevents water from entering the equipment, and achieves IP65 waterproof. The three-dimensional adjustment bracket is fixed to the bottom of the lens system by screws. Its function is to provide the projection system with flexible angle adjustment function, which can rotate and tilt in multiple dimensions. The screw fixing method ensures that the angle is stable after adjustment and is not affected by external factors, ensuring the stable and accurate operation of the system. It also facilitates the installation and disassembly of the system and improves the work efficiency when maintaining and changing positions. The rear panel of the laser source system is fixed with a 512 male connector, a 512 female connector, a 512 control board, a power interface, an M6 load-bearing lifting ring, and a rubber pad. A waterproof baffle is fixed on top of the rubber pad for compression. The waterproof baffle prevents water from entering the control panel. A 220V power interface is reserved on the rear panel to provide 220V power supply and control the on / off of the laser output, which improves the applicability and versatility of the system. The rear panels of the lens system and the laser source system are respectively fixed with M3 load-bearing lifting rings and M6 load-bearing lifting rings. The load-bearing lifting rings are used to lift the entire laser module, which facilitates installation and arrangement in different scenarios. The heat sink is fixed to the base plate with screws. The laser light source, DC step-down power supply module, power supply module, light source drive module, etc. are fixed on the top of the heat sink with screws. The function of the heat sink is to quickly and effectively dissipate the heat generated by the laser light source to ensure that the laser light source works stably in a suitable temperature environment. The heat sink has good heat dissipation performance. Its surface is designed with dense heat dissipation fins, which greatly increases the heat dissipation area and can accelerate the dissipation of heat. The heat sink is tightly connected to the laser source, and thermal grease is applied at the connection between the laser source and the heat sink to ensure efficient heat conduction, thereby achieving rapid heat dissipation and ensuring stable system operation. The waterproof connector, three-dimensional adjustment bracket, boom, top panel, side panel, boom connecting block, rear panel, bottom plate, front panel, waterproof baffle, M6 load-bearing lifting ring, radiator, lens top plate, lens side plate, lens front plate, lens bottom plate, lens rear plate, M3 load-bearing lifting ring, fixing bracket and lens module are all made of aluminum alloy, which is sturdy and durable and ensures the flatness of the system.

[0012] Compared with the prior art, the beneficial effects of this utility model are as follows: 1. This utility model design improves and upgrades the traditional projection system according to market demand, and solves the problem that the uniformity of the center brightness and edge brightness of the lamp is difficult to maintain as the distance increases, and it is impossible to achieve both distance and uniformity. Moreover, the brightness loss is serious at long distances, making it difficult to meet the needs of certain special applications. It provides an ultra-narrow angle projection laser lamp, and the projection angle can be customized.

[0013] This invention solves the problem that most current lighting systems on the market use LED light sources, which are not good in terms of brightness and light spot uniformity, resulting in unsatisfactory projected light spot quality and large lamp size. It uses a laser light source with a lens module, and the fiber optic output emits a high-brightness and uniform light spot after passing through the lens module. The projection angle can be customized, and the size is small. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2 This is an isometric side view of the laser source system; Figure 3 Top view of the laser source system (without the panel); Figure 4 Side view of the laser source system (without side panels); Figure 5 This is an isometric side view of the lens system (without side panels).

[0015] In the diagram: 1. Lens system; 2. Laser light source system; 3. Armored fiber optic cable; 4. Waterproof connector; 5. Window mirror; 6. 3D adjustment bracket; 7. Hoist; 8. Top panel; 9. Side panel; 10. Hoist connecting block; 11. Shock-absorbing feet; 12. Rear panel; 13. Base plate; 14. Front panel; 15. Waterproof baffle; 16. Rubber pad; 17. 512 male connector; 18. 512 female connector; 19. Power interface; 20. 21. M6 load-bearing lifting ring; 22. Laser light source; 23. DC step-down power supply module; 24. Power supply module; 25. Light source driver module; 26. 512 control board; 27. Heat sink; 28. Fan sheet metal strip; 29. ​​Cooling fan; 30. Lens top plate; 31. Lens side plate; 32. Lens front plate; 33. Lens bottom plate; 34. Lens rear plate; 35. M3 load-bearing lifting ring; 36. Fixing bracket; 37. Lens module. Detailed Implementation

[0016] To further understand the invention content, features and effects of this utility model, the following embodiments are provided, and detailed descriptions are given in conjunction with the accompanying drawings.

[0017] The structure of this utility model will now be described in detail with reference to the accompanying drawings.

[0018] like Figures 1 to 5 As shown in the figure, an ultra-narrow angle projection laser light provided by this utility model includes a lens system 1 for projecting a high-brightness uniform light spot, a laser source system 2, an armored optical fiber 3, and a window mirror 5. The lens system 1 and the laser source system 2 are connected through the armored optical fiber 3. The lens system 1 emits a high-brightness uniform light spot through the window mirror 5, and the projection angle can be customized. A three-dimensional adjustment bracket 6 for adjusting the three-dimensional angle of the lens system 1 is installed at the bottom of the lens system 1. A hanging arm 7 for fixing is movably connected to the surface of the laser source system 2.

[0019] The lens system 1 includes a lens base plate 32 serving as a fixed reference plate. The bottom of the lens base plate 32 is fixedly connected to the top of the three-dimensional adjustment bracket 6. The top of the lens base plate 32 is fixedly connected to a front lens plate 31, a rear lens plate 33, and two side lens plates 30 by screws. The two side lens plates 30 are symmetrically arranged. The window mirror 5 is mounted on the front lens plate 31. A fixing bracket 35 is fixedly connected to the top of the lens base plate 32. A lens module 36 is installed inside the lens base plate 32. The armored optical fiber 3 is connected to the rear end of the lens module 36. The top of the front lens plate 31, the rear lens plate 33, and the two side lens plates 30 is fixedly connected to a top lens plate 29 by screws. An M3 load-bearing lifting ring 34 is fixedly installed on the surface of the rear lens plate 33. The lens module 36 can be customized according to different needs. By changing the internal lens design of the lens module 36, different angle effects can be achieved.

[0020] The laser source system 2 includes a base plate 13 for fixing a reference plate. A front panel 14, a rear panel 12, and two side plates 9 are fixedly connected to the top of the base plate 13 by screws. The two side plates 9 are symmetrically arranged. The front panel 14 and the rear panel 12 are located on the front and rear sides of the side plates 9, respectively. The surface of each side plate 9 has heat dissipation holes. A boom connecting block 10, which mates with a boom 7, is installed on the side of each side plate 9 that is furthest from each other, for connecting and fixing the boom 7, facilitating the movement and adjustment of the equipment. A 512 male connector 17, a 512 female connector 18, and a 512 control connector are installed on the rear panel 12. The base plate 13 includes a plate 25, a power interface 19, an M6 load-bearing lifting ring 20, and a rubber pad 16. A waterproof baffle 15 for pressing is fixedly installed on the surface of the rubber pad 16. A heat sink 26 is fixedly connected to the top of the base plate 13. A laser light source 21, a DC step-down power supply module 22, a power supply module 23, and a light source drive module 24 are installed on the heat sink 26. The top of the front panel 14, the rear panel 12, and the two side panels 9 are fixedly installed with a top panel 8 by screws. The lens module 36 and the laser light source 21 are both connected and fixed by mechanical structure, and are reinforced with UV glue to reduce errors caused by structural deformation.

[0021] Both ends of the armored optical fiber 3 are provided with waterproof connectors 4 for fixing and locking the armored optical fiber 3. The laser light source system 2 emits light from the armored optical fiber 3. The armored optical fiber 3 is connected to the lens module 36, which is fixed inside the lens system 1. The armored optical fiber 3 exits into the lens module 36 and emits a high-brightness uniform light spot through the window mirror 5. The lens module 36 with different divergence angles can be replaced according to different field of view requirements to achieve different light spot effects, thereby realizing customized adjustment of the projection angle. The surface of the armored optical fiber 3 is provided with a yellow armor cladding to prevent dust from entering the optical fiber and to avoid damage caused by excessive bending of the optical fiber, thus providing a certain degree of protection.

[0022] The lens module 36 is fixed inside the mounting bracket 35 by screws. The mounting bracket 35 has three locking threads on both sides and the top. The mounting bracket 35 is used to fix and lock the lens module 36.

[0023] The heat sink 26 is tightly connected to the laser light source 21, and the connection between the laser light source 21 and the heat sink 26 is coated with thermally conductive silicone grease to ensure efficient heat conduction, thereby achieving rapid heat dissipation and ensuring stable system operation. The corners of the lens system 1 and the laser light source system 2 are coated with black silicone rubber to prevent light leakage. The top of the base plate 13 is fixedly installed with shock-absorbing pads 11, which serve to support the equipment and absorb vibration. The shock-absorbing pads 11 can absorb vibration or impact to ensure equipment stability. The boom connecting block 10 is fixedly connected to the boom 7 with screws. A fan sheet metal strip 27 is installed on one side of the heat sink 26. Four cooling fans 28 are fixedly installed on the surface of the fan sheet metal strip 27 with screws. The heat conducted by the heat sink 26 is dissipated through the heat dissipation holes on both sides to ensure system heat dissipation.

[0024] The window mirror 5, three-dimensional adjustment bracket 6, rubber pad 16, 512 male connector 17, 512 female connector 18, power interface 19, M6 load-bearing lifting ring 20, laser light source 21, DC step-down power supply module 22, power module 23, light source drive module 24, 512 control board 25, cooling fan 28, M3 load-bearing lifting ring 34, and lens module 36 adopt a modular and split design. If a module needs to be reworked, only the corresponding module needs to be removed, reducing rework time. The power interface 19 provides 220V voltage to power the power module 23, which in turn powers the power module 23 and the DC step-down power supply module 22. The power module 23 then powers the light source drive module 24 and the laser light source 21. The DC step-down power supply module 22 powers the 512 control board 25 and the cooling fan 28. The 512 control board 25 controls the light output and shut-off of the laser light source 21. The laser light source system 2 outputs armored optical fiber 3, which is connected to the rear end of the lens module 36. The lens module 36 is fixed inside the mounting bracket 35 by screws, ultimately emitting a high-brightness uniform light spot. The window mirror 5, lens module 36, armored fiber 3 and laser light source 21 have all undergone optical design, and different designs are used to achieve different needs; The lens system 1, laser light source system 2, waterproof connector 4, window mirror 5, 512 male connector 17, 512 female connector 18, power interface 19 and other connection points are all coated with silicone rubber, which has waterproof and dustproof functions, prevents water from entering the equipment, and achieves IP65 waterproof. The three-dimensional adjustment bracket 6 is fixed to the bottom of the lens system 1 by screws. Its function is to provide the projection system with flexible angle adjustment function, which can rotate and tilt in multiple dimensions. The screw fixing method ensures that the angle is stable after adjustment and is not affected by external factors, ensuring the stable and accurate operation of the system. It also facilitates the installation and disassembly of the system and improves the work efficiency when maintaining and changing positions. The rear panel 12 of the laser source system 2 is fixed with a 512 male connector 17, a 512 female connector 18, a 512 control board 25, a power interface 19, an M6 load-bearing lifting ring 20, and a rubber pad 16. A waterproof baffle 15 is fixed above the rubber pad 16 for pressing. The waterproof baffle 15 is used to prevent water from entering the control panel. A 220V power interface 19 is reserved on the rear panel 12. The power interface 19 provides 220V power supply and controls the on / off of laser output, which improves the applicability and versatility of the system. M3 load-bearing lifting ring 34 and M6 load-bearing lifting ring 20 are respectively fixed on the rear panel 12 of the lens system 1 and the laser source system 2. The load-bearing lifting rings are used to lift the entire laser module, which facilitates installation and arrangement in different scenarios. The heat sink 26 is fixed to the base plate 13 with screws. The laser light source 21, DC step-down power supply module 22, power supply module 23, light source drive module 24, etc. are fixed on the top of the heat sink 26 with screws. The function of the heat sink 26 is to quickly and effectively dissipate the heat generated by the laser light source 21 to ensure that the laser light source 21 works stably in a suitable temperature environment. The heat sink 26 has good heat dissipation performance. Its surface is designed with dense heat dissipation fins, which greatly increases the heat dissipation area and can accelerate the dissipation of heat. The heat sink 26 is tightly connected to the laser source 21, and thermal grease is applied at the connection between the laser source 21 and the heat sink 26 to ensure efficient heat conduction, thereby achieving rapid heat dissipation and ensuring stable system operation. The waterproof connector 4, three-dimensional adjustment bracket 6, boom 7, top panel 8, side panel 9, boom connecting block 10, rear panel 12, bottom plate 13, front panel 14, waterproof baffle 15, M6 load-bearing lifting ring 20, radiator 26, lens top plate 29, lens side plate 30, lens front plate 31, lens bottom plate 32, lens rear plate 33, M3 load-bearing lifting ring 34, fixing bracket 35, and lens module 36 are all made of aluminum alloy, which is sturdy and durable, ensuring the flatness of the system.

[0025] The working principle of this utility model: In use, external 220V AC power is input through power interface 19, and converted into a stable DC voltage required by various components in the system (such as laser light source 21, driver board, and fan) via power module 23 and DC step-down power module 22. Under the command of 512 control board 25, light source drive module 24 provides precise drive current to laser light source 21, exciting it to generate high-power laser. 512 control board 25 receives external control signals (such as DMX512 protocol) through 512 male connector 17 and female connector on the back, thereby precisely controlling laser light source 21. The laser light generated by the emission, blocking, and brightness changes is coupled into one end of the armored fiber 3. The yellow cladding on the outer layer of the armored fiber 3 protects the fragile inner fiber from excessive bending, damage, and dust intrusion. The two ends of the fiber are securely locked to the laser source system 2 and the lens system 1 respectively through waterproof connectors 4, ensuring stable connection and achieving IP protection level. The laser light is transmitted through the armored fiber 3 into the lens system 1 and enters the lens module 36. The lens module 36 is a core component with precise optical design, and its function is to diffuse the point-like laser light. The lens system 1 is homogenized to form a light spot with uniform brightness and clear edges. Depending on the application requirements, different optical lens modules 36 with varying divergence angles can be used to achieve different field of view (FOV) light spot effects, from narrow to wide angles, thus enabling customization of the projection angle. The shaped uniform light spot is emitted through the window mirror 5, which also seals the interior of the lens system 1, providing dust and water protection. The entire lens system 1 can be finely adjusted in multiple dimensions (up / down, left / right, and tilt) via its bottom three-dimensional adjustment bracket 6. This adjustment allows for precise control of the light spot's position. The position, shape, and illumination angle of the target plane or object can be adjusted and kept stable by tightening screws. The laser source 21 generates a large amount of heat during operation, as do other electronic components such as the power module 23 and drive module. These heat-generating components, especially the laser source 21, are tightly fixed to the heat sink 26 with screws. Thermal grease is applied to the contact surface to fill tiny gaps, ensuring efficient heat transfer from the heat-generating components to the heat sink 26. The heat sink 26 is designed with dense heat dissipation fins, greatly increasing the heat dissipation area in contact with the air. Four cooling fans 28 generate forced airflow to quickly blow away the heat from the fins, achieving convection cooling. The laser source system 2 generates a high-brightness laser, which is conducted to the lens system 1 through the armored optical fiber 3. After being shaped and projected by the lens module 36, it finally emits a high-brightness, uniform, and adjustable beam through the window mirror 5.

[0026] In summary: This ultra-narrow angle projection laser light comprises: a lens system 1, a laser light source system 2, armored optical fiber 3, a waterproof connector 4, a window mirror 5, a three-dimensional adjustment bracket 6, a boom 7, a top panel 8, side panels 9, a boom connecting block 10, shock-absorbing pads 11, a rear panel 12, a base plate 13, a front panel 14, a waterproof baffle 15, rubber pads 16, a 512 male connector 17, a 512 female connector 18, a power interface 19, an M6 load-bearing lifting ring 20, a laser light source 21, a DC step-down power supply module 22, a power module 23, a light source drive module 24, a 512 control board 25, a heat sink 26, a fan sheet metal strip 27, a cooling fan 28, and a lens top plate. 29. Lens side plate 30. Lens front plate 31. Lens base plate 32. Lens rear plate 33. M3 load-bearing lifting ring 34. Fixing bracket 35. and lens mold. These components solve the problem that existing projection systems struggle to maintain uniformity of center and edge brightness as distance increases, making it impossible to balance distance and uniformity. Furthermore, they suffer from severe brightness loss at long distances, making them unsuitable for certain special applications. Most projection systems use LED light sources, which perform poorly in terms of brightness and light spot uniformity, resulting in unsatisfactory projected light spot quality. In addition, traditional projection systems require larger heat sinks and more LEDs to achieve high brightness and long distance, leading to a large lamp body size.

[0027] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0028] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An ultra-narrow angle projection laser light, characterized in that: The system includes a lens system (1) for projecting a high-brightness uniform light spot, a laser light source system (2), an armored fiber (3) and a window mirror (5). The lens system (1) and the laser light source system (2) are connected by the armored fiber (3). The lens system (1) emits a high-brightness uniform light spot through the window mirror (5) and the projection angle can be customized. The bottom of the lens system (1) is equipped with a three-dimensional adjustment bracket (6) for adjusting the three-dimensional angle of the lens system (1). The surface of the laser light source system (2) is movably connected to a hanging arm (7) for fixing.

2. The ultra-narrow angle projection laser light as described in claim 1, characterized in that: The lens system (1) includes a lens base plate (32) for fixing a reference plate. The bottom of the lens base plate (32) is fixedly connected to the top of the three-dimensional adjustment bracket (6). The top of the lens base plate (32) is fixedly connected to a front lens plate (31), a rear lens plate (33), and two side lens plates (30) by screws. The two side lens plates (30) are symmetrically arranged. The window mirror (5) is installed on the front lens plate (31). The top of the lens base plate (32) is fixedly connected to a fixing bracket (35). The lens module (36) is installed inside the lens base plate (32). The armored optical fiber (3) is connected to the rear end of the lens module (36). The top of the front lens plate (31), the rear lens plate (33), and the two side lens plates (30) is fixedly connected to a top lens plate (29) by screws. An M3 load-bearing lifting ring (34) is fixedly installed on the surface of the rear lens plate (33).

3. The ultra-narrow angle projection laser light as described in claim 2, characterized in that: The laser light source system (2) includes a base plate (13) for fixing a reference plate. The top of the base plate (13) is fixedly connected to a front panel (14), a rear panel (12), and two side plates (9) by screws. The two side plates (9) are symmetrically arranged. The front panel (14) and the rear panel (12) are located on the front and rear sides of the side plates (9), respectively. The surface of the side plates (9) is provided with heat dissipation holes for heat dissipation. The two side plates (9) are each equipped with a boom connecting block (10) that cooperates with the boom (7) on the side away from each other. A 512 male seat (17) is installed on the rear panel (12). The system includes a 512 female connector (18), a 512 control board (25), a power interface (19), an M6 load-bearing lifting ring (20), and a rubber pad (16). A waterproof baffle (15) for pressing is fixedly installed on the surface of the rubber pad (16). A radiator (26) is fixedly connected to the top of the base plate (13). A laser light source (21), a DC step-down power supply module (22), a power supply module (23), and a light source drive module (24) are provided on the radiator (26). An upper panel (8) is fixedly installed on the top of the front panel (14), the rear panel (12), and the two side panels (9) by screws.

4. The ultra-narrow angle projection laser light as described in claim 3, characterized in that: Both ends of the armored optical fiber (3) are provided with waterproof connectors (4) for fixing and locking the armored optical fiber (3). The laser light source system (2) emits light from the armored optical fiber (3). The armored optical fiber (3) is connected to the lens module (36). The lens module (36) is fixed inside the lens system (1). The armored optical fiber (3) enters the lens module (36) and emits a high-brightness uniform light spot through the window mirror (5). The lens module (36) with different divergence angles can be replaced according to different field of view requirements. The surface of the armored optical fiber (3) is provided with a yellow armor cladding.

5. The ultra-narrow angle projection laser light as described in claim 2, characterized in that: The lens module (36) is fixed inside the fixing bracket (35) by screw locking. The fixing bracket (35) has three locking threads on both sides and the top. The fixing bracket (35) is used to fix and lock the lens module (36).

6. The ultra-narrow angle projection laser light as described in claim 3, characterized in that: The heat sink (26) is tightly connected to the laser light source (21), and the connection between the laser light source (21) and the heat sink (26) is coated with thermal grease. The corners of the lens system (1) and the laser light source system (2) are coated with black silicone rubber to prevent light leakage. The top of the base plate (13) is fixedly installed with shock-absorbing pads (11). The boom connecting block (10) is fixedly connected to the boom (7) with screws. A fan sheet metal strip (27) is installed on one side of the heat sink (26), and four cooling fans (28) are fixedly installed on the surface of the fan sheet metal strip (27) with screws.

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