Novel LED lamp special for poultry breeding

Abstract

The embodiment of the utility model provides a novel LED lamp special for poultry breeding. The novel LED lamp comprises a lamp body shell; the radiating fin group is attached to the interior of the lamp body shell; the optical lens is rotationally arranged at the front end of the lamp body shell; the lamp bead arrangement substrate is arranged in the lamp body shell and is combined with the radiating fin group; wherein the lamp bead arrangement substrate is arranged in an annular mode so that the lighting effect can be more concentrated, a plurality of concave structures are arranged on the surface of the lamp bead arrangement substrate and used for fixing the positions of the lamp beads so that shadows caused by movement of the lamp beads can be reduced, and the lamp bead arrangement substrate is of a multi-layer staggered and stacked structure so that mutual interference of adjacent light rays can be avoided; wherein the radiating fin group, the optical lens and the lamp bead arrangement substrate are packaged in the lamp body shell; and the radiating fin group is connected with the lamp bead arrangement substrate. Through the scheme of the embodiment of the invention, the spatial illumination consistency of foraging and activity of poultry can be improved.

Description

Technical Field

[0001] This application relates to the field of livestock and poultry farming equipment technology, specifically to a novel LED light for poultry farming. Background Technology

[0002] New LED lights specifically designed for poultry farming are lighting devices designed for modern poultry farming, aiming to simulate natural light environments to promote poultry health and productivity. These LED lights offer advantages such as energy saving, adjustable spectrum, and long lifespan, providing poultry with lighting conditions more suited to their physiological needs. However, current lighting fixtures face the challenge of improving the consistency of spatial lighting between feeding and activity areas. In practical applications, due to complex farm layouts and unscientific lighting arrangements, uneven light intensity and spectral distribution can easily occur between feeding and activity areas, thus affecting poultry behavior and feeding outcomes. Summary of the Invention

[0003] In view of this, the present disclosure provides a novel LED light specifically for poultry farming, which at least partially solves the problems existing in the prior art.

[0004] This application discloses a novel LED light specifically for poultry farming, comprising:

[0005] Lamp housing;

[0006] The heat sink assembly is attached to the inside of the lamp body housing;

[0007] An optical lens is rotatably mounted on the front end of the lamp housing;

[0008] A lamp bead arrangement substrate is disposed inside the lamp body housing and combined with the heat sink assembly; wherein, the lamp bead arrangement substrate has a ring layout for more concentrated light effect, and the surface of the lamp bead arrangement substrate has multiple recessed structures to fix the position of each lamp bead to reduce the shadow caused by lamp bead movement, and the lamp bead arrangement substrate adopts a multi-layer staggered stacked structure to avoid mutual interference of adjacent light rays; wherein the heat sink assembly, optical lens and lamp bead arrangement substrate (4) are encapsulated in the lamp body housing; the heat sink assembly is connected to the lamp bead arrangement substrate; the optical lens is disposed in front of the opening of the lamp body housing to cover and protect the light source part on the lamp bead arrangement substrate;

[0009] The multiple recessed structures on the substrate for arranging the LED beads are staggered with each other, and the depth-to-diameter ratio of each recessed structure is 8-2.

[0010] According to one embodiment, the multi-layer staggered stacked structure includes at least two alternating annular bands with uniformly distributed spacers between adjacent annular bands, so that the interlayer spacing of the light source is constant and the light emission is unobstructed.

[0011] According to one embodiment, the LED beads are fixed in the recessed structures by positioning pins to prevent displacement or shaking during use.

[0012] According to one embodiment, a micro-reflective coating is provided within the recessed structure to improve the light emission angle and illumination uniformity of a single LED.

[0013] According to one embodiment, the minimum spacing between the LEDs is 10-15 mm.

[0014] According to one embodiment, a thermally conductive pad is provided between the heat sink assembly and the LED bead arrangement substrate.

[0015] According to one embodiment, the heat sink assembly adopts a hollow mesh structure and has heat dissipation protrusions on its outer surface.

[0016] According to one embodiment, the inner surface of the optical lens is frosted to convert the strong direct light emitted by the lamp into diffuse light.

[0017] According to one embodiment, the surface of the optical lens is provided with an adjustment block for rotating and finely adjusting the position of the optical lens.

[0018] According to one embodiment, the lamp housing adopts a double-layer heat insulation design and is filled with a heat insulation layer in the middle.

[0019] This disclosure provides a novel LED lamp specifically for poultry farming, comprising: a lamp housing; a heat sink assembly attached to the inside of the lamp housing; an optical lens rotatably disposed at the front end of the lamp housing; and an LED bead arrangement substrate disposed within the lamp housing and combined with the heat sink assembly. The LED bead arrangement substrate has a ring-shaped layout for more concentrated light effect. Multiple recessed structures are provided on the surface of the LED bead arrangement substrate to fix the position of each LED bead, reducing shadows caused by LED movement. The LED bead arrangement substrate employs a multi-layered staggered stacked structure to avoid interference between adjacent light rays. The heat sink assembly, optical lens, and LED bead arrangement substrate are encapsulated within the lamp housing. The heat sink assembly is connected to the LED bead arrangement substrate. The optical lens is disposed in front of the opening of the lamp housing to cover and protect the light source portion on the LED bead arrangement substrate. The multiple recessed structures on the LED bead arrangement substrate are staggered, and the depth-to-diameter ratio of each recessed structure is 8-2. This disclosure addresses the challenge of improving the spatial lighting consistency for poultry feeding and activity. Attached Figure Description

[0020] In the accompanying drawings, unless otherwise specified, the same reference numerals throughout the various drawings denote the same or similar parts or elements. These drawings are not necessarily drawn to scale. It should be understood that these drawings depict only some embodiments disclosed in this application and should not be construed as limiting the scope of this application.

[0021] Figure 1 This is a structural schematic diagram of a novel LED light specifically for poultry farming as described in this utility model;

[0022] Figure 2 This is a rear view of the novel LED light for poultry farming described in this utility model;

[0023] Figure 3 This is a schematic diagram of the internal structure of the outer shell of the novel LED lamp for poultry farming described in this utility model;

[0024] Figure 4 This utility model describes a novel LED light specifically for poultry farming. Figure 3 Enlarged view of point A in the middle.

[0025] In the diagram: 1. Lamp housing; 2. Heat sink assembly; 21. Thermal pad; 22. Heat dissipation bump; 3. Optical lens; 31. Adjustment block; 4. Lamp bead arrangement substrate; 41. Recessed structure; 42. Multi-layer staggered stacked structure; 43. Spacer; 44. Reflective coating Detailed Implementation

[0026] The embodiments of this disclosure will now be described in detail with reference to the accompanying drawings.

[0027] The following specific examples illustrate the implementation of this disclosure. Those skilled in the art can easily understand other advantages and effects of this disclosure from the content disclosed in this specification. Obviously, the described embodiments are only a part of the embodiments of this disclosure, and not all of them. This disclosure can also be implemented or applied through other different specific embodiments, and the details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of this disclosure. It should be noted that, in the absence of conflict, the following embodiments and features in the embodiments can be combined with each other. Based on the embodiments in this disclosure, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this disclosure.

[0028] like Figure 1 As shown, a novel LED lamp for poultry farming according to this application includes: a lamp housing 1, a heat sink assembly 2, an optical lens 3, and a substrate for arranging LED beads 4. These components work together to provide efficient heat dissipation, excellent light focusing effect, and uniform illumination, ensuring long-term stable performance.

[0029] The lamp housing 1 is the core assembly unit and structural support of the equipment, used to install and fix all other major components, while protecting the internal precision electronic components from environmental factors. The housing is manufactured by metal stamping and has multiple standard screw holes on its exterior for easy mounting to specific locations inside the poultry house; its inner edge has a sealing groove for attaching a silicone waterproof strip to achieve an IP65 waterproof rating.

[0030] Heatsink assembly 2 (see details) Figure 2 The component is tightly attached to the inside of the lamp housing 1, directly contacting and connecting to the LED chip arrangement substrate 4, thus forming an efficient heat conduction path to effectively guide away the heat generated by the latter during operation. This component is manufactured using an aluminum extrusion process and features a finned design to increase the exchange area with air. Combined with the natural airflow circulation of the lamp, this greatly accelerates heat conduction efficiency. In addition, for some special applications, an additional fan device can be selected to enhance the cooling effect.

[0031] The optical lens 3 is rotatably embedded in the front opening of the lamp housing 1, completely covering the light source. It has extremely high transparency and excellent light control, allowing for precise adjustment of the beam angle and its illumination radius. This material is manufactured using polycarbonate injection molding technology, making it lightweight and durable, while also being easy to customize with different curved shapes for applications such as scattering and focusing.

[0032] LED chip arrangement substrate 4 (see details) Figure 3 The LEDs are mounted on heat sink assembly 2 and maintained in good thermal coupling to promote rapid heat dissipation. They are arranged in a ring pattern, with multiple LED light-emitting points evenly distributed circumferentially to ensure balanced illumination in all directions. Each LED is placed in a recessed cavity and fixed in place with epoxy adhesive, which not only ensures stable positioning but also reduces the impact of shadows on the overall light pattern. To further eliminate cross-interference between light sources, a multi-layered staggered layout is used to arrange these LED chips, ensuring that there is no mutual obstruction between adjacent pairs of emitters.

[0033] The improvements and technical details described above address the key issue of ensuring consistent lighting in poultry feeding and activity areas. In traditional poultry farming environments, poorly designed lighting often results in uneven light distribution or areas that are too dark or too bright, directly impacting animal comfort and growth. This invention, through an innovative geometric configuration combined with an efficient heat dissipation mechanism and sophisticated light control, produces a softer and more stable overall lighting effect from all observation points. This avoids the risk of stress to sensitive organisms caused by frequent fluctuations, thus helping to maintain an ideal farming environment that promotes healthy growth and efficient production.

[0034] In addition, the high-quality light provided by the LED lights helps stimulate the hormone secretion rhythm in poultry, further improving their feeding activity level and diurnal rhythm adaptation.

[0035] like Figure 3 and Figure 4 As shown, in one embodiment, the surface of the LED bead arrangement substrate 4 of the novel LED light for poultry farming of this application is provided with multiple recessed structures 41. These recessed structures 41 are staggered on the substrate to ensure that each LED bead is more firmly fixed, while reducing the shadow problem caused by LED bead movement. The depth-to-diameter ratio of each recessed structure 41 is 8-1.2. This design not only improves the positioning accuracy of the LED beads, but also effectively prevents mutual interference between light beams.

[0036] Specifically, the substrate is installed inside the lamp housing 1 and is directly and tightly bonded to the heat sink assembly 2. A multi-layered staggered stacking structure 42 is applied to multiple recessed areas on the substrate surface, allowing the LED beads to be securely embedded in each recess according to predetermined positions. The recess design and optimized dimensions can accommodate LED beads of different power levels, ensuring a tight fit between the LED beads and the substrate, thereby avoiding uneven illumination caused by loose or misaligned LED beads.

[0037] For example, in actual production, recessed structures 41 that meet the specified depth and diameter ratio requirements can be manufactured by stamping or die forming. The LED beads are then precisely embedded into these specifically prepared recessed positions and fixed within the structure using adhesives such as epoxy resin to ensure long-term use without deformation. This guarantees both the efficiency and accuracy of the lamp assembly process and the optical quality and performance of the final product.

[0038] like Figure 4 As shown, in one embodiment, the multi-layer staggered stacked structure 42 of a novel LED light for poultry farming according to this application includes at least two layers of alternately arranged annular strips. The installation positions of these annular strips are precisely designed, and spacers 43 are evenly distributed between adjacent annular strips. These spacers 43 are used to ensure a constant spacing between the annular strips and to ensure that light emission is not obstructed. The combined structure of each annular strip and spacer 43 constitutes a multi-layer three-dimensional frame on which a substrate 4 for illuminating LED beads is fixed, thereby enhancing structural stability and avoiding interference between adjacent light rays. The arrangement of the annular strips allows each light source to obtain sufficient space to dissipate heat and maintain good working condition.

[0039] For example, when fabricating the multi-layered staggered stacked structure 42, the first layer of annular strips is first arranged into a ring at certain intervals. Then, a second layer of annular strips is arranged alternately above it, and a series of evenly spaced spacers 43 are inserted between the two to maintain a fixed relative distance. Subsequently, more layers of annular strips and spacers 43 are added according to design requirements to ensure that each layer of annular strip is firmly attached to the surface of the lamp bead arrangement substrate 4 and finally encapsulated inside the lamp housing 1. The heat sink assembly 2 provides continuous heat dissipation, while the optical lens 3 is installed at the front opening of the lamp housing 1 to cover and protect the entire light source assembly.

[0040] like Figure 3 and Figure 4 As shown, in one embodiment, the LED beads of a novel LED lamp for poultry farming are fixed in various recessed structures 41 by positioning pins. Specifically, the LED bead arrangement substrate 4 is disposed inside the lamp housing 1 and tightly integrated with the heat sink assembly 2. The recessed structures 41 are distributed on the surface of the LED bead arrangement substrate 4, forming a stable fixing space at the corresponding position of each LED bead. The recessed structures 41 match the shape of the LED beads, ensuring that the LED beads are tightly embedded and preventing any positional displacement. In addition, the positioning pins, as key fixing components, are inserted into the holes formed between the bottom of the LED bead and the LED bead arrangement substrate 4, providing additional security.

[0041] To avoid shadows caused by slight movement of the LED beads during use, a well-designed structure securely mounts the LED beads in predetermined positions. This mounting method not only enhances the mechanical stability of the equipment but also ensures the continuity and consistency of light output, thereby improving lighting quality.

[0042] For example, firstly, several precisely aligned and appropriately deep recessed structures 41 are machined on the LED chip arrangement substrate 4. Then, small holes for inserting positioning pins are made at the corresponding positions. During assembly, the LED chips are placed in these recessed structures 41, and the pins are inserted into the prepared small holes to ensure that the LED chips do not shift laterally or longitudinally by physically limiting them, thus maintaining a stable working state.

[0043] like Figure 4 As shown, in one embodiment, the LED chip arrangement substrate 4 of a novel LED light for poultry farming of this application has multiple recessed structures 41. Micro-reflective coatings 44 are disposed within these recessed structures 41 to significantly improve the light emission angle and illumination uniformity of each individual LED chip. The specific layout of the recessed structures 41 is designed to ensure that each LED chip can be fixed in its predetermined position, thereby reducing shading caused by LED chip movement.

[0044] By adding a micro-reflective coating 44, light undergoes secondary adjustment and diffusion as it is emitted, which not only improves light utilization efficiency but also ensures that light is emitted from different angles, further enhancing the consistency and smooth transition of the lighting. It is particularly noteworthy that this design does not alter the overall structure of the original luminaire; all additional features are achieved through optimized details, enhancing performance without affecting the external characteristics of the device.

[0045] For example, the inner wall of the recessed structure 41 is uniformly coated with a micro-reflective coating 44 formed of a high-reflectivity material. This coating can be processed using methods such as vacuum evaporation or chemical vapor deposition. During installation, the micro-reflective coating 44 adheres tightly to the LED chip, ensuring the optimal path for light reflection. Furthermore, this special design allows the luminaire to maintain good luminous efficacy and uniformity even after prolonged use.

[0046] In one embodiment, the LED bead arrangement substrate 4 of the novel poultry farming LED light of this application adopts a unique layout design. To ensure higher illumination uniformity and coverage without causing optical interference, the minimum spacing between the LED beads is set to 10-15 mm. This spacing not only prevents adjacent light sources from affecting each other, but also, by precisely controlling the positional relationship between each LED bead, makes the overall illumination distribution more balanced and coherent, effectively expanding the uniform illumination coverage area.

[0047] For example, the recessed structure 41 is carefully set on the LED bead arrangement substrate 4 to ensure that each LED bead remains stable within its preset range of 10 to 15 millimeters. This maintains a constant spacing and avoids problems such as overlapping or missing light caused by LED bead displacement due to external forces. At the same time, the multi-layer staggered stacking structure 42 further optimizes the light path design, allowing light from different layers to complement each other, thereby enhancing the overall lighting effect.

[0048] For example, through precision manufacturing and assembly techniques, multiple uniformly distributed recessed structures 41 can be formed on the surface of the LED bead arrangement substrate 4 to precisely position the LED beads. When using automated equipment to complete the welding and installation process, the distance between the LED beads can be strictly controlled within the range of 10-15 mm, ensuring that each LED bead is embedded in the corresponding recess and firmly bonded to the multi-layered staggered arrangement substrate. This achieves both sufficient spacing between the LED beads and meets the functional requirements of efficient and stable light emission.

[0049] like Figure 3 and Figure 4As shown, in one embodiment, a thermally conductive pad 21 is provided between the heat sink assembly 2 and the LED bead arrangement substrate 4 of a novel LED lamp for poultry farming according to this application. The function of the thermally conductive pad 21 is to enhance the heat conduction efficiency between the heat sink assembly 2 and the LED bead arrangement substrate 4. To accommodate different specifications and models of lamps, the thermally conductive pad 21 is designed with adjustable thickness to ensure optimal contact between the two components.

[0050] Specifically, the heat sink assembly 2 is located inside the lamp housing 1 and is tightly integrated with the LED bead arrangement substrate 4. A suitable thermally conductive pad 21 is inserted between them to ensure that heat is quickly transferred from the high-density LED beads to the heat sink assembly 2. This thermally conductive pad 21 is made of a material with high thermal conductivity, which not only improves heat transfer efficiency but also acts as a buffer to prevent mechanical damage during assembly. For example, when dealing with different power levels of poultry-specific LED lamps, the pad thickness can be adjusted according to actual needs, thereby optimizing the design flexibility and adaptability of the thermal management system. In terms of installation, the thermally conductive pad 21 is directly laid between the heat sink assembly 2 and the LED bead arrangement substrate 4, closely adhering to both surfaces to ensure effective heat conduction without creating additional gaps, thus improving the overall system stability and heat dissipation effect.

[0051] like Figure 2 As shown, in one embodiment, the heat sink assembly 2 of a novel LED light for poultry farming according to this application adopts a special perforated mesh structure. This structure is significantly different from traditional solid or sealed heat sink designs. The perforated structure allows more airflow to freely penetrate the heat sink assembly 2, enhancing airflow and heat exchange efficiency while ensuring sufficient mechanical strength. By increasing the surface area and the probability of contact between the contact surface and the air, the heat exchange rate is effectively improved, promoting more efficient natural cooling. This optimization not only helps maintain the optimal operating temperature of the internal electronic components but also maintains the stable performance of the equipment during long-term use.

[0052] Several heat dissipation bumps 22 are added to the outer surface of the heat sink assembly 2. These bumps further expand the effective heat dissipation area and guide the airflow direction, ensuring that the airflow can more smoothly bypass each bump and form a convection effect. Specifically, the small bumps evenly distributed on the heat sink assembly 2 can interrupt the laminar flow and induce turbulence, thereby significantly improving the average temperature and heat transfer efficiency of the heat sink. The bumps are cleverly designed to prevent heat accumulation and minimize heat conduction loss. The bumps are distributed in the area between the hollowed-out parts, ensuring that each part can be effectively contacted by air, achieving all-round three-dimensional heat dissipation. In addition, the number and density of the bumps are carefully set according to the actual heat dissipation requirements to achieve optimal performance without sacrificing other functional requirements.

[0053] To achieve this feature technically, for example, the manufacturing process first processes a heat sink assembly 2 with a hollowed-out mesh structure, and then adds heat dissipation bumps 22 using precision casting or injection molding. The heat sink assembly 2 is installed close to the light source to quickly absorb and disperse heat. The heat sink assembly 2 is then assembled into a tightly fitted position within the inner wall of the lamp, with its front end shielded by an optical lens 3. Finally, the lamp housing 1 is sealed tightly for preservation, thus achieving good protection and cooling. The entire assembly process ensures close cooperation between the components and fully demonstrates the design concept.

[0054] In one embodiment, the optical lens 3 of a novel LED light for poultry farming according to this application includes an inner surface that has been frosted. This surface treatment aims to improve the problem that traditional optical lenses 3 only have a single focusing function and cannot effectively and evenly distribute strong direct light. Specifically, through the frosting treatment, the strong direct light originally emitted from the LED is more fully converted into diffused light, thereby making the light diffusion more uniform and significantly reducing the probability of localized over-brightness in the breeding environment.

[0055] This design not only solves the problem of uneven lighting that may occur with traditional LED lights, but also optimizes the lighting conditions in the breeding environment, ensuring that animals receive uniform light. By pre-processing the light source, the design improves the uniformity and comfort of the overall space brightness without affecting the total luminous intensity, avoiding stress reactions or poor health conditions caused by strong direct sunlight on poultry.

[0056] For example, the aforementioned frosted effect can be achieved by selecting appropriate materials and processes. When manufacturing the optical lens 3, a high-transparency material is first selected to ensure basic light transmission performance; then, physical or chemical methods such as sandblasting and etching are used to meticulously process the inner surface to obtain the desired diffuse reflection characteristics. Furthermore, during installation, it is necessary to ensure that the specially treated surface is accurately positioned on the optical path. This ensures that all light emitted from the LED bead arrangement substrate 4 first contacts this surface and completes the corresponding conversion process before penetrating to the external environment.

[0057] like Figure 1As shown, in one embodiment, the optical lens 3 of a novel LED light for poultry farming of this application has an adjustment block 31 on its surface. The adjustment block 31 is disposed on the outer surface of the optical lens 3 and protrudes from the plane of the optical lens 3. The adjustment block 31 and the optical lens 3 are tightly connected by a specific structure, allowing the user to finely adjust the position of the optical lens 3 by external rotation. This design not only improves the user's operational convenience but also allows for flexible adjustment of the beam illumination range and focus according to different scenario requirements. Furthermore, to ensure that the optical lens 3 remains stable and does not loosen or shift during adjustment, a mechanism to prevent loosening is designed between the adjustment block 31 and the optical lens 3.

[0058] The optical lens 3 is fixed to the front end of the lamp housing 1 via a rotating structure and can rotate freely within a predetermined range to change the direction and distribution pattern of light propagation. For example, in practical applications, the angle can be finely adjusted by hand-twisting, allowing users to make small and precise changes to the angle and focus of the LED light source according to the specific needs of the breeding site, meeting different lighting requirements. This adjustment process does not rely on any external tools, further demonstrating the human-centered design considerations. Specifically, the rotating adjustment block 31 can directly drive the optical lens 3 to move clockwise or counterclockwise along the vertical axis, thereby achieving precise control of the light.

[0059] like Figure 1 As shown, in one embodiment, the optical lens 3 of a novel LED lamp for poultry farming according to this application is made of high-refractive-index polycarbonate material. This lens is rotatably mounted at the front end of the lamp housing 1 and possesses high transmittance and good light-focusing effect, allowing for flexible adjustment of the illumination angle and range. The application of polycarbonate material not only ensures high luminous flux output but also provides excellent ultraviolet filtering capabilities, helping to maintain poultry eye health and improve feeding activity. To ensure that the optical lens 3 effectively achieves its intended function, the selection of materials and processing technology are crucial. By precisely controlling the composition and molecular structure of the material, polycarbonate can exhibit higher transparency and stronger anti-aging properties, ensuring its long-term stability and reliable performance.

[0060] For example, the optical lens 3 can be mounted to the front of the opening in the lamp housing 1 using a mechanical clamping device, firmly fixing and covering the inner lamp bead arrangement substrate 4 and the light source portion arranged on it. To prevent ultraviolet leakage and adverse effects on poultry, appropriate ultraviolet absorbers can be added during the production process or a protective coating can be applied to the surface of the optical lens 3. These measures effectively improve the safety and practicality of the product. At the same time, the refractive properties of polycarbonate material make the light emitted from the lamp beads more concentrated and uniform, further improving the lighting effect while maintaining the advantages of low energy consumption and environmental friendliness.

[0061] To better leverage the aforementioned technical features, appropriate adjustments can be made to the design of the LED bead arrangement substrate 4 to ensure seamless integration with the optical lens 3, achieving optimal illuminance distribution and energy-saving goals. Specifically, customized LED bead arrangement patterns based on actual needs can fully utilize the optical performance advantages of polycarbonate lenses. Furthermore, combining this with an intelligent control system allows for automatic adjustment of lighting parameters based on changes in the rearing environment, providing a more user-friendly and efficient solution.

[0062] In one embodiment, a novel LED lamp for poultry farming according to this application is characterized by a double-layer heat insulation design for the lamp housing 1, filled with a layer of heat-insulating cotton material. This double-layer structure effectively reduces the impact of internal temperature fluctuations on the overall performance of the device and protects the external mounting bracket from safety hazards caused by high temperatures. Specifically, the inner heat insulation layer is positioned adjacent to the heat sink assembly 2 to prevent internal high temperatures from being conducted to the outer layer, thereby avoiding excessive temperature accumulation inside and outside the equipment. The outer heat insulation layer tightly wraps around the inner layer using a special installation method, ensuring that the entire surface of the lamp maintains a suitable operating temperature.

[0063] Furthermore, the insulation layer between the two layers further enhances the thermal insulation effect. This insulation material is evenly filled between the two layers, effectively buffering heat conduction and allowing heat to remain in the inner layer as much as possible before being dissipated through the heat sink assembly 2. Because the insulation material itself has good flexibility and insulation properties, it ensures that it will not cause unnecessary electrical interference with surrounding components, and also facilitates future replacement or maintenance.

[0064] For example, in the manufacturing process of the lamp housing 1, an inner shell and an outer shell can be formed first, creating an annular space of a predetermined width between them. Then, pre-prepared insulation material is poured into this space. After it is completely filled, sealed, and dried, assembly is complete. The selection of the insulation material should consider fire resistance, environmental friendliness, and mechanical strength requirements to ensure that the lamp maintains stable performance under long-term operating conditions. Ultimately, this design ensures that even during long-term operation, the heat generated can be effectively controlled within a safe range on the outer surface.

[0065] Specifically, this new type of LED light specifically designed for poultry farming can be installed at a predetermined location in a poultry farm. The heat sink assembly 2 is tightly fitted inside the lamp housing 1, allowing for large-area contact with air to accelerate heat conduction and natural convection, thus ensuring the long-term stable operation of the internal electronic components. The optical lens 3 is rotatably positioned at the front end of the lamp housing 1, possessing high transmittance and good light-focusing effect to adjust the illumination angle and range. The LED bead arrangement substrate 4 is installed inside the lamp housing 1 and tightly integrated with the heat sink assembly 2; its ring-shaped layout ensures concentrated and uniform light coverage of the feeding area, and the recessed structure 41 fixes the position of each LED bead, reducing shadows caused by movement. The LED bead arrangement substrate 4 also employs a multi-layer staggered stacking structure 42 to avoid interference between adjacent light rays, thus ensuring consistent illumination. After the LED light is turned on, the light passes through the optical lens 3 and illuminates the target area; throughout the process, the heat sink assembly 2 consistently provides effective heat dissipation for the internal components.

[0066] This document describes several embodiments of the present invention; however, for the sake of brevity, the descriptions of the embodiments are not exhaustive, and identical or similar features or parts between the embodiments may be omitted. In this document, "one embodiment," "some embodiments," "example," "specific example," or "some examples" refers to embodiments applicable to at least one, but not all, of the present invention. The above terms do not necessarily refer to the same embodiments or examples. Without contradiction, those skilled in the art can combine and integrate the different embodiments or examples described herein, as well as the features of the different embodiments or examples.

[0067] The exemplary systems and methods of the present invention have been specifically shown and described with reference to the above embodiments, which are merely examples of the best mode for implementing the systems and methods. Those skilled in the art will understand that various changes can be made to the embodiments of the systems and methods described herein without departing from the spirit and scope of the invention as defined in the appended claims when implementing the systems and / or methods.

Claims

1. A novel LED light specifically for poultry farming, characterized in that, include: Lamp housing (1); Heat sink assembly (2) is attached to the inside of the lamp body housing (1); Optical lens (3), rotated to set the front end of the lamp body housing (1); A lamp bead arrangement substrate (4) is disposed inside the lamp body housing (1) and combined with the heat sink assembly (2); wherein, the lamp bead arrangement substrate (4) is arranged in a ring to concentrate the light effect, and the surface of the lamp bead arrangement substrate (4) is provided with multiple recessed structures (41) to fix the position of each lamp bead to reduce the shadow caused by the movement of the lamp beads, and the lamp bead arrangement substrate (4) adopts a multi-layer staggered stacked structure (42) to avoid mutual interference of adjacent light rays; wherein the heat sink assembly (2), the optical lens (3) and the lamp bead arrangement substrate (4) are encapsulated in the lamp body housing (1); the heat sink assembly (2) is connected to the lamp bead arrangement substrate (4); the optical lens (3) is disposed in front of the opening of the lamp body housing (1) to cover and protect the light source part on the lamp bead arrangement substrate (4); The multiple recessed structures (41) on the lamp bead arrangement substrate (4) are interspersed with each other, and the depth-to-diameter ratio of each recessed structure (41) is 8-1.

2.

2. The novel LED light for poultry farming according to claim 1, characterized in that: The multi-layer staggered superposition structure (42) includes at least two alternating annular bands with uniformly distributed spacers (43) between adjacent annular bands, so that the interlayer spacing of the light source is constant and the light emission is unobstructed.

3. The novel LED light for poultry farming according to claim 1, characterized in that: The LED beads are fixed in each recessed structure (41) by positioning pins to prevent them from shifting or shaking during use.

4. The novel LED light for poultry farming according to claim 1, characterized in that: The recessed structure (41) is provided with a micro reflective coating (44) to improve the light emission angle and light uniformity of a single LED.

5. The novel LED light for poultry farming according to claim 1, characterized in that: The minimum spacing between LED beads is 10-15 mm.

6. The novel LED light for poultry farming according to claim 1, characterized in that: A thermal pad (21) is provided between the heat sink assembly (2) and the lamp bead arrangement substrate (4).

7. The novel LED light for poultry farming according to claim 1, characterized in that: The heat sink assembly (2) adopts a hollow mesh structure and has heat dissipation protrusions (22) on its outer surface.

8. The novel LED light for poultry farming according to claim 1, characterized in that: The inner surface of the optical lens (3) is frosted to convert the strong direct light emitted by the lamp into diffuse light.

9. A novel LED light for poultry farming according to claim 1, characterized in that: The optical lens (3) has an adjustment block (31) on its surface, which is used to rotate and finely adjust the position of the optical lens (3).

10. A novel LED light for poultry farming according to claim 1, characterized in that: The lamp body shell (1) adopts a double-layer heat insulation design and is filled with a heat insulation layer in the middle.

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