A luminaire

Abstract

The utility model provides a lamp, include: casing, be provided with installation groove, a plurality of mutually spliced light emitting component, each light emitting component is connected through the flexible wire, the adapter board is used for realizing the electric connection between light emitting component and external power supply. The application sets up the adapter board as the connection module of external power supply and light emitting component to replace the scheme that the original power cord is directly connected with light emitting component through the inlet, realizes the indirect conduction between external power supply and internal light emitting component, makes the stress transmission path between cable and light source be physically isolated by the adapter board, fundamentally avoids the hidden danger that the welding spot directly bears mechanical load. Meanwhile, a plurality of mutually spliced light emitting components are arranged, and flexible flexible wire connection is used between each light emitting component to prevent the micro vibration induced by the assembly gap of the casing connection, or the power supply line is pulled in the installation and wiring process, causes the lamp strip connection to break, thereby improving the reliability and stability of the lamp.

Description

Technical Field

[0001] This utility model relates to the field of lighting technology, and in particular to a lamp. Background Technology

[0002] Over long-term use, the structure of traditional lighting fixtures has gradually revealed several technical defects. For example, in terms of wiring structure, conventional lamps generally lack effective stress relief devices at the wiring inlet, with the power cord directly and rigidly connected to the internal light source module through the inlet. This direct-connection structure exposes the soldered joints between the light source component and the wires to mechanical stress. During transportation, when subjected to dynamic loads such as vibration and bumps, the solder joints are prone to developing micro-cracks due to stress concentration, which can eventually lead to complete breakage, resulting in a significant increase in the product defect rate upon unpacking. This functional failure problem is particularly prominent for LED light strips using flexible circuit board structures.

[0003] Secondly, regarding the assembly structure of irregularly shaped lamps, current processes generally employ a segmented housing design for long, narrow lamps exceeding standard transport specifications and irregularly curved lamps. While this solution addresses the convenience of packaging and transportation, it introduces new structural reliability risks: the assembly gaps between the various housing units require bridging and fixing with metal connectors. The currently widely used iron clip connection scheme suffers from difficulties in achieving a geometrically conformal fit between the planar structure of the clips and the curved contour of the lamp housing. This results in millimeter-level assembly gaps, causing frequent micro-vibrations at the connection points during subsequent handling, installation, and use, ultimately leading to fatigue fracture of the LED strip wiring in that area. Utility Model Content

[0004] The main purpose of this utility model is to propose a lamp that aims to solve the technical problems of easy breakage at the power cord solder joints and easy breakage of the lamp strip at the segmented housing connection.

[0005] To achieve the above objectives, this application proposes a lighting fixture, comprising:

[0006] The housing is provided with a mounting slot;

[0007] Multiple interconnected light-emitting components are arranged in a mounting slot, and the light-emitting components are connected to each other by flexible wires;

[0008] An adapter plate is disposed in the mounting slot, and the adapter plate is used to realize the electrical connection between the light-emitting component and the external power supply.

[0009] In one embodiment, the adapter plate includes:

[0010] A substrate, one end of which is connected to an external power source via a wire, and the other end of which is connected to a light-emitting component via a wire.

[0011] In one embodiment, the adapter plate further includes:

[0012] A power processing circuit is disposed on the substrate. The power processing circuit is electrically connected to an external power source and a light-emitting component. The power processing circuit is used to convert the external power source into a power supply for the light-emitting component.

[0013] In one embodiment, the housing includes:

[0014] Multiple interconnected tubular shells, with the mounting grooves formed inside the tubular shells;

[0015] A connector is provided at the end of the tube shell, and two adjacent tube shells are connected by the connector.

[0016] In one embodiment, the positions where two adjacent shells are joined correspond one-to-one with the positions where two adjacent light-emitting components are joined, and the positions of each connector correspond one-to-one with the positions of each flexible wire.

[0017] In one embodiment, each of the tube housings is provided with a wire hole, the adapter plate is disposed in the mounting groove of one of the tube housings, and the adapter plate is connected to an external power source through the wire hole of the tube housing.

[0018] In one embodiment, the connector is disposed on the side of the tube housing facing the light-emitting component, and the two ends of the connector are respectively disposed at the ends of two adjacent tube housings that are close to each other, and the connector is fixedly connected to the tube housing by screws.

[0019] In one embodiment, multiple light-emitting components are spliced ​​together to form two strip light strips, and the two strip light strips are respectively disposed on two opposing inner wall surfaces of the housing.

[0020] In one embodiment, the strip light includes:

[0021] The circuit board is connected to an external power source via the adapter plate.

[0022] The light source is mounted on the circuit board.

[0023] In one embodiment, it further includes:

[0024] The silicone sleeve is fitted into the mounting groove, and the silicone sleeve is integrally formed.

[0025] This application replaces the original solution of directly connecting the power cord to the light-emitting components via the inlet by setting up an adapter board as the connection module between the external power supply and the light-emitting components. This achieves indirect conduction between the external power supply and the internal light-emitting components, physically isolating the stress transmission path between the cable and the light source, fundamentally avoiding the hidden danger of the solder joints directly bearing mechanical loads. Simultaneously, multiple interconnected light-emitting components are used, connected by flexible wires to prevent micro-vibrations induced by assembly gaps at the housing joints, or breakage at the light strip connection due to power cord pulling during installation and wiring, thereby improving the reliability and stability of the lighting fixture. Attached Figure Description

[0026] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0027] Figure 1 This is an internal structural diagram of a lamp according to the present invention;

[0028] Figure 2 This is an external structural diagram of a lamp according to the present invention.

[0029] Reference numerals: housing 01, mounting groove 11, tube shell 12, connector 13, wire hole 14, light-emitting component 02, flexible wire 21, adapter plate 03, silicone sleeve 04.

[0030] The realization of the purpose, functional features and advantages of this utility model will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0031] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0032] It should be noted that if the embodiments of this utility model involve directional indicators (such as up, down, left, right, front, back, etc.), the directional indicators are only used to explain the relative positional relationship and movement of the components in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicators will also change accordingly.

[0033] Furthermore, if the embodiments of this utility model involve descriptions such as "first" or "second," these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, features defined with "first" or "second" may explicitly or implicitly include at least one of those features. Additionally, if the word "and / or" appears throughout the text, it means including three parallel solutions; for example, "A and / or B" includes solution A, solution B, or a solution that simultaneously satisfies A and B. Furthermore, the technical solutions of the various embodiments can be combined with each other, but this must be based on the ability of those skilled in the art to implement them. When the combination of technical solutions is contradictory or impossible to implement, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed by this utility model.

[0034] This application proposes a lamp, such as Figure 1 As shown, it includes:

[0035] The housing 01 is provided with a mounting groove 11; multiple interconnected light-emitting components 02 are disposed in the mounting groove 11, and each of the light-emitting components 02 is connected by a flexible wire 21; an adapter plate 03 is disposed in the mounting groove 11, and the adapter plate 03 is used to realize the electrical connection between the light-emitting components 02 and an external power source.

[0036] Specifically, the wiring structure of traditional lighting fixtures mainly involves introducing a power cord into the fixture to provide power to the light source module. A wire connects the external power source to the internal light source module, allowing current to flow smoothly and thus illuminating the fixture. However, this structure has a flaw: conventional lighting fixtures generally lack effective stress relief devices at the wiring inlet, resulting in a direct, rigid connection between the power cord and the internal light source module. This direct connection exposes the soldered joints between the light source component and the wires to mechanical stress. During transportation, when subjected to dynamic loads such as vibration and bumps, the solder joints are prone to micro-cracks due to stress concentration, which can eventually lead to complete breakage, significantly increasing the product defect rate upon unpacking. This functional failure problem is particularly pronounced for LED strip products using flexible circuit board structures.

[0037] Meanwhile, when the length or curvature of the luminaire exceeds conventional transportation specifications, the use of multi-shell 01 unit splicing, while achieving physical separation, introduces new challenges in interface matching. The assembly gaps formed between the various shell 01 units require bridging and fixing using metal connectors 13. Currently, the widely used iron clip connection scheme suffers from difficulties in achieving geometric conformal fit between the planar structure of the clips and the curved contour of the luminaire shell 01, resulting in millimeter-level assembly gaps after assembly. This leads to frequent micro-vibrations at the connection points during subsequent handling, installation, and use, ultimately causing fatigue fracture of the LED strip wiring in that area.

[0038] This can be understood as follows: at the wiring port, the power cord passes through the wire hole 14 and is directly rigidly connected to the solder pad of the light source module. This causes the mechanical stress, such as bending and pulling, experienced by the external cable to be directly transmitted to the solder joint area. When continuous vibration or pulling occurs during transportation, the solder joint is prone to fatigue fracture. When using a planar metal clip to fix the segmented housing 01, the contact surface cannot form an effective conformal fit, making it easy for the housing 01 to wobble between itself and the clip after assembly. This causes the LED strip at the connection point to be easily pulled, ultimately leading to progressive damage to the LED strip circuit. To solve the above problems, this application proposes a lighting fixture, including a housing 01, multiple interconnected light-emitting components 02, and an adapter plate 03.

[0039] The housing 01 is the basic structure of the lamp, serving to support and protect the internal components. The mounting slot 11 inside provides a fixed space for the light-emitting component 02 and the adapter plate 03, ensuring these components can be stably installed inside the lamp and preventing displacement due to external impacts or vibrations. Through a reasonable structural design, the housing 01 integrates the light-emitting component 02 and the adapter plate 03 to form a complete lamp system. At the same time, the housing 01 also provides a certain degree of protection, preventing dust, moisture, and other external factors from damaging the internal circuitry and the light-emitting component 02, thus extending the lamp's lifespan.

[0040] The adapter board 03 serves as the connection module between the external power supply and the light-emitting component 02, replacing the original solution of directly connecting the power cable to the light-emitting component 02. This achieves indirect conduction between the external power supply and the internal light-emitting component 02, fundamentally changing the stress transmission path. In the traditional connection method, the power cable directly connects to the solder pads of the light-emitting component 02. The mechanical stress, such as bending and pulling, experienced by the external cable is directly transmitted to the solder joint area, easily leading to fatigue fracture. However, through the indirect connection method of the adapter board 03, the stress transmission path between the cable and the light source is physically isolated by the adapter board 03. As a relatively stable structural component, the adapter board 03 can withstand and disperse external forces, preventing mechanical stress from directly acting on the solder joints of the light-emitting component 02, thus fundamentally avoiding the hidden danger of the solder joints directly bearing mechanical loads. This stress isolation function greatly improves the reliability and stability of the lamp during transportation, installation, and use, extending the lamp's service life.

[0041] The adapter board 03 can function solely as a connection between the external power supply and the light-emitting component 02, without processing the power supply itself. In this case, the primary function of the adapter board 03 is to establish the electrical connection between the external power supply and the light-emitting component 02, transferring electrical energy from the external power supply to the light-emitting component 02 to ensure its normal operation. Alternatively, the adapter board 03 can incorporate a power processing circuit. In practical use, the external power supply may experience voltage fluctuations or current instability. These unstable power inputs can damage the light source module in the light-emitting component 02, affecting its luminous efficiency and lifespan. By incorporating a power processing circuit within the adapter board 03, the input power can be stabilized, filtered, and stepped down, converting the external power supply into a suitable power source for the light-emitting component 02 and ensuring a more stable and pure power output to the light-emitting component 02. This effectively prevents damage to the light source module caused by voltage fluctuations, ensuring the light-emitting component 02 operates normally under a stable power environment, thereby improving the overall performance and reliability of the luminaire.

[0042] To address the technical problem of frequent micro-vibrations at the connection points of lighting fixtures, which ultimately lead to fatigue fracture of the LED strip circuit in that area, this application proposes a light source composed of multiple light-emitting components 02 spliced ​​together. These components 02 are connected by flexible wires 21, which possess excellent flexibility, ensuring the connection between the light-emitting components 02 and thus improving the reliability and stability of the lighting fixture. Simultaneously, this avoids the situation where, when using clips to fix segmented housings 01, the contact surfaces cannot form an effective conformal fit, resulting in gaps after housing 01 assembly that allow the connection points to wobble, causing the LED strip at these connection points to be easily pulled, ultimately leading to progressive damage to the LED strip circuit.

[0043] This application replaces the original solution of directly connecting the power cord to the light-emitting component 02 by setting an adapter plate 03 as the connection module between the external power supply and the light-emitting component 02 through the inlet port. This achieves indirect conduction between the external power supply and the internal light-emitting component 02, and the stress transmission path between the cable and the light source is physically isolated by the adapter plate 03, fundamentally avoiding the hidden danger of the solder joint directly bearing mechanical load. At the same time, multiple interconnected light-emitting components 02 are set, and each light-emitting component 02 is connected by a flexible wire 21 to prevent micro-vibrations induced by the assembly gap at the housing connection, or breakage at the connection of the light strip due to the pulling of the power supply line during installation and wiring, thereby improving the reliability and stability of the lamp.

[0044] In one embodiment, the adapter plate 03 includes:

[0045] The substrate has one end connected to an external power source via a wire, and the other end connected to the light-emitting component 02 via a wire. The substrate provides the foundation for the electrical connection and physical support of the entire adapter plate 03. By rationally designing the shape and size of the substrate, it can be ensured that the adapter plate 03 can fit into the installation space inside the lamp and work in conjunction with other components (such as the light-emitting component 02 and the housing 01).

[0046] One end of the substrate is connected to an external power source via a wire, and the other end is connected to the light-emitting component 02 via a wire, introducing electrical energy from the external power source into the adapter plate 03. The substrate material typically has good insulation and conductivity, effectively preventing electrical short circuits and leakage, while also withstanding a certain current load to ensure the normal operation of the lamp. The wire, as the medium for power transmission, ensures a stable power supply. Through proper wire selection and connection methods, power loss during transmission can be reduced, improving power transmission efficiency. This connection method also facilitates the installation and maintenance of the lamp. The external power source can be easily connected to the adapter plate 03 via wires without the need for a complex direct connection to the light-emitting component 02, simplifying the installation process and reducing installation difficulty. Through the indirect connection method of the substrate, the stress transmission path between the cable and the light source is physically isolated by the adapter plate 03. This connection method also effectively protects the light-emitting component 02. Due to the flexibility of the wires, they can absorb and disperse external forces to a certain extent, preventing mechanical stress from being directly transmitted to the solder joints or connection points of the light-emitting component 02. This helps reduce the risk of fatigue fracture of solder joints or damage to wiring caused by external forces such as vibration and tension, thereby improving the reliability and service life of the luminaire. At the same time, the connection between the wires and the light-emitting component 02 allows for flexible layout and splicing of the light-emitting component 02, enabling the luminaire to be adjusted and optimized according to different design requirements.

[0047] Furthermore, the connection between the wires and the external power supply provides flexibility for the luminaire. The luminaire can select a suitable external power supply connection method according to different usage scenarios and power conditions. In this embodiment, the substrate can serve only as a connection structure between the external power supply and the light-emitting component 02, or it can have a power processing function to convert the external power supply into a power supply suitable for the light-emitting component 02. For example, it can be connected to an AC power supply, or it can be connected to a battery or other mobile power source, enabling the luminaire to adapt to various different usage environments.

[0048] In one embodiment, the adapter plate 03 further includes:

[0049] A power processing circuit is disposed on the substrate. The power processing circuit is electrically connected to an external power source and a light-emitting component 02. The power processing circuit is used to convert the external power source into a power supply for the light-emitting component 02.

[0050] It can be understood that the voltage and current characteristics of the external power supply may not be perfectly matched with the electrical requirements of the light-emitting component 02, and there may even be problems such as voltage fluctuations and current instability. If these problems are not addressed, they may negatively affect the performance and lifespan of the light-emitting component 02, such as causing unstable light emission, accelerated light decay, or even damage to the light source module. In this embodiment, the substrate is provided with a power processing circuit that can perform necessary conversion and regulation of the input external power supply. It can adjust the input power supply voltage and current to the required specifications of the light-emitting component 02, ensuring that the light-emitting component 02 operates under stable power conditions. This stable power supply can effectively avoid the performance degradation of the light-emitting component 02 caused by voltage fluctuations or current instability, thereby improving the overall reliability and lifespan of the lamp.

[0051] An external power supply is connected to the base plate of the adapter board 03 via wires and then to the input terminal of the power processing circuit. This connection allows the power processing circuit to receive and process the electrical energy from the external power supply. The input terminal of the power processing circuit is typically designed with appropriate interfaces and protection measures to ensure safe and stable access to the external power supply and to accommodate different types of external power inputs, such as AC power, DC power, or other special power supplies. Through the connection with the external power supply, the power processing circuit can convert the electrical energy from the external power supply into power suitable for the light-emitting component 02. This process includes not only voltage and current conversion but may also involve power filtering, voltage regulation, and current limiting to ensure that the luminaire maintains good luminous effect and performance under various usage scenarios. The power converted by the power processing circuit is transmitted to the light-emitting component 02 via wires, providing it with stable power support. Through the function of the power processing circuit, noise and interference in the power supply can be effectively reduced, avoiding these factors from adversely affecting the performance of the light-emitting component 02. In addition, the power processing circuit can flexibly adjust the parameters of the output power supply, such as voltage and current, according to the actual needs of the light-emitting component 02 to achieve the best luminous effect and energy efficiency ratio.

[0052] In one embodiment, the housing 01 includes:

[0053] Multiple interconnected tube shells 12, with mounting grooves 11 formed inside the tube shells 12; connectors 13 are disposed at the ends of the tube shells 12, and adjacent tube shells 12 are connected by the connectors 13.

[0054] During transportation, lighting fixtures need to consider size and weight limitations. By designing the lamp housing 12 as multiple modular parts, the fixture can be disassembled and reassembled according to the specifications of the transport vehicle (such as a container or truck bed). Since the housing 12 can be packaged and transported individually, the flexibility during transportation is greatly increased. For example, the placement of the housing 12 can be flexibly arranged according to the size and shape of the transport vehicle, thus making full use of transport space. Furthermore, the disassembled housing 12 units are lighter, facilitating manual handling and reducing reliance on large handling equipment, further improving transportation efficiency. Transporting the lighting fixture by disassembling it into multiple housing 12 units can significantly reduce transportation costs. Smaller housing 12 units occupy less space during transportation, meaning more lighting fixture units can be transported under the same conditions, thus spreading transportation costs. In addition, the lighter weight of the housing 12 units also reduces energy consumption and costs during transportation.

[0055] The connector 13 is a key component in the housing 01 used to connect adjacent housings 12. It is located at the end of each housing 12 and, through cooperation with the connector 13 of adjacent housings 12, securely splices multiple housings 12 together to form a complete housing 01 structure. In practical applications, the connector 13 typically uses iron clips to ensure tightness between the housings 12, preventing external factors such as dust and moisture from entering the lamp through gaps between the housings 12, thus protecting the internal light-emitting components 02 and circuitry. Furthermore, the connector 13 also needs to consider the installation and maintenance requirements of the lamp. For example, by adopting an easily detachable connection method, users can quickly replace or repair the light-emitting components 02 when needed without disassembling the entire lamp. The housing splicing method achieved through the connector 13 facilitates the transportation of the lamp.

[0056] In one embodiment, the positions where two adjacent shells 12 are joined correspond one-to-one with the positions where two adjacent light-emitting components 02 are joined, and the positions of each connector 13 correspond one-to-one with the positions of each flexible wire 21. That is, the seams of adjacent shell 12 units correspond completely to the breaks of adjacent light-emitting components 02, and the mounting positions of the iron code pieces and the bridging areas of the flexible conduit are also strictly matched.

[0057] In the design of the lighting fixture, the correspondence between the splicing positions of two adjacent tube shells 12 and the splicing positions of two adjacent light-emitting components 02 ensures the precise positioning and fixation of the light-emitting components 02 inside the tube shell 12. Since the light-emitting component 02 is the core light-emitting part of the lighting fixture, the accuracy of its position directly affects the lighting effect and overall performance of the fixture. By aligning the splicing positions of the tube shells 12 with the splicing positions of the light-emitting components 02, the installation position of the light-emitting components 02 inside the tube shell 12 can be guaranteed to be consistent, thereby achieving a uniform lighting effect and avoiding problems such as uneven light or localized over-brightness or under-brightness caused by positional deviations.

[0058] Furthermore, this correspondence facilitates the assembly and maintenance of the lamps. During assembly, technicians can quickly locate the corresponding light-emitting component 02's splicing position based on the splicing position of the housing 12, thereby improving assembly efficiency. During maintenance, if a light-emitting component 02 malfunctions, the corresponding component can also be quickly located through the splicing position of the housing 12, facilitating repair and replacement. This design makes the assembly and maintenance of the lamps more intuitive and efficient, reducing errors and delays caused by unclear locations. From a mechanical stability perspective, the position of the connector 13 corresponds to the position of the flexible wire 21, providing additional support and protection for the flexible wire 21. During the use of the lamps, they may be subjected to external forces such as vibration and pulling, which could damage the flexible wire 21. By aligning the connector 13 with the flexible wire 21, the connector 13 can fix and protect the flexible wire 21 while splicing the housing 12, preventing the flexible wire 21 from loosening or being damaged by external forces.

[0059] In one embodiment, each of the tube housings 12 is provided with a wire hole 14, and the adapter plate 03 is disposed in the mounting groove 11 of one of the tube housings 12, and the adapter plate 03 is connected to an external power source through the wire hole 14 of the tube housing 12.

[0060] In the design of the luminaire, each housing 12 is provided with a wire hole 14 for connecting the power cord to the adapter board 03 or other electrical components. Through the wire hole 14, the power cord can be neatly guided into the interior of the luminaire, avoiding the messy arrangement of external cables on the surface of the luminaire, thereby improving the overall aesthetics and safety of the luminaire. Furthermore, the design of the wire hole 14 also considers the flexibility and expandability of the luminaire. Due to the presence of the wire hole 14, the luminaire can be connected with power cords of different lengths as needed, thus adapting to different installation environments and power supply locations. This flexibility allows the luminaire to better meet diverse needs.

[0061] The adapter plate 03 is installed in the mounting slot 11 of one of the housings 12. Power cables can be neatly introduced into the luminaire through the wire hole 14 and connected to the adapter plate 03, ensuring a stable power supply and avoiding messy wiring on the outside of the luminaire. Furthermore, this connection method improves the flexibility and scalability of the luminaire. Since the power cable is introduced through the wire hole 14, the luminaire can connect power cables of different lengths as needed, adapting to different installation environments and power supply locations. This flexibility allows the luminaire to better meet diverse needs; for example, in scenarios requiring long-distance power supply or concealed power cables, the wire hole 14 can easily guide the power cable to the required location. Simultaneously, this connection method facilitates the installation and maintenance of the luminaire. When power cables need to be replaced or the adapter plate 03 needs repair, technicians can easily operate through the wire hole 14 without requiring large-scale modifications to the overall structure of the luminaire.

[0062] In one embodiment, the connector 13 is disposed on the side of the tube housing 12 facing the light-emitting component 02, and the two ends of the connector 13 are respectively disposed at the ends of two adjacent tube housings 12 that are close to each other, and the connector 13 is fixedly connected to the tube housing 12 by screws.

[0063] This can be understood as follows: since the connector 13 directly faces the light-emitting component 02, it can precisely align and fix the splicing position of the light-emitting component 02 when splicing the housing 12. This helps ensure the stable installation of the light-emitting component 02 within the housing 12 and guarantees accurate electrical connections between the light-emitting components 02, thereby improving the overall performance and reliability of the luminaire. Furthermore, placing the connector 13 on the side facing the light-emitting component 02 makes the external structure of the housing 12 simpler, reducing the complexity and interference that the external connector 13 might bring, resulting in a cleaner overall appearance for the luminaire.

[0064] The two ends of the connector 13 are respectively located at the ends of two adjacent tube shells 12 that are close to each other. The connector 13 can evenly distribute and bear the mechanical stress from the two tube shells 12, thereby improving the stability and reliability of the tube shell 12 splicing. Especially when the lamp is subjected to external forces (such as vibration or tension), the connector 13 can effectively disperse the stress and avoid structural damage caused by local stress concentration. In addition, since the two ends of the connector 13 are respectively fixed to the ends of adjacent tube shells 12, the splicing angle and position between the tube shells 12 can be finely adjusted as needed, so that the lamp can better adapt to different installation environments and layout requirements during installation. For example, in scenarios where the shape of the lamp needs to be bent or adjusted, the connector 13 can provide the necessary support and adjustment space.

[0065] The connector 13 is fixedly connected to the housing 12 by screws, which ensures a firm and stable connection between the housings 12 and can withstand greater mechanical stress. The screw connection is easy to disassemble and maintain. When the lamp needs repair, component replacement, or layout adjustment, technicians can easily loosen the screws to disassemble the connector 13, thereby quickly separating the housing 12. This makes lamp maintenance and upgrades more convenient and faster, reducing maintenance costs and time.

[0066] In one embodiment, a plurality of light-emitting components 02 are spliced ​​together to form two strip light strips, and the two strip light strips are respectively disposed on two opposing inner sidewalls of the housing 01.

[0067] This can be understood as follows: because the light-emitting components 02 are spliced ​​together, this structure allows the light strip to better distribute stress when subjected to external forces, preventing damage to individual light-emitting components 02 due to localized stress. Simultaneously, the spliced ​​light strip can be bent or adjusted in shape as needed, adapting to different installation environments and design requirements. For example, in scenarios requiring curved lighting, the strip can flexibly conform to curved surfaces, providing a more fitting design effect. Furthermore, placing two strips on two opposing inner walls of the housing 01 in a symmetrical layout allows the luminaire to emit light evenly from both directions, providing a more comprehensive lighting effect. In practical applications, this dual-strip design effectively reduces lighting dead zones, especially in scenarios requiring uniform lighting, such as indoor ceiling lighting or display case lighting. The two strips can provide uniform light from both sides, enhancing the uniformity and three-dimensionality of the lighting.

[0068] By fixing the LED strip to the inner wall of housing 01, the installation process of the lamp is more stable and reliable. At the same time, when maintenance or replacement of the LED strip is needed, technicians can easily operate from inside housing 01 without disassembling the entire lamp structure, reducing maintenance costs and time.

[0069] In one embodiment, the strip light includes:

[0070] The circuit board is connected to an external power source via the adapter plate 03; the light source is mounted on the circuit board.

[0071] The core components of a strip light include a circuit board and a light source, which work together to achieve the lighting function of the lamp. The circuit board, as the carrier of electrical connection and control, establishes a connection with an external power supply through an adapter board 03, responsible for converting the input electrical energy into current and voltage suitable for the light source's operation. Internally, it typically integrates conductive circuits and necessary electronic components (such as resistors, capacitors, or driver chips) to form a stable power supply circuit and provide a physical mounting substrate for the light source. The circuit board design must consider both heat dissipation and electrical insulation to ensure long-term operational reliability. The light source, as the light-emitting unit, is fixed to the surface of the circuit board in an array, emitting light by receiving electrical energy transmitted from the circuit board. For example, when using LEDs as the light source, they release photons through electron transitions within the semiconductor material, achieving efficient light energy conversion. The arrangement density and direction of the light sources can be flexibly adjusted according to lighting needs, while the electrical design of the circuit board must match its power and operating characteristics to avoid overload or light decay. Both are modularly designed to form independent functional units, ensuring lamp performance and providing a technical basis for disassembly and reassembly during transportation and assembly.

[0072] In one embodiment, such as Figure 2 As shown, it also includes:

[0073] The silicone sleeve 04 is fitted into the mounting groove 11, and the silicone sleeve 04 is integrally formed.

[0074] The silicone sleeve 04 is fitted into the mounting groove 11, providing physical protection for the light strip and preventing mechanical damage during installation or use. Simultaneously, the silicone sleeve 04 has excellent sealing performance, effectively preventing moisture and dust from entering the light strip, thereby improving the waterproof and dustproof rating of the luminaire. This is especially important for luminaires used in humid or outdoor environments, extending their lifespan. The silicone sleeve 04 scatters and refracts light through its internal cavity and surface protrusions. After entering the sleeve, light undergoes multiple reflections internally, ultimately radiating out more evenly, softening the light emitted by the light strip, preventing excessive glare, improving lighting comfort, expanding the light's illumination angle, and allowing the light to cover a wider area, thus improving light uniformity and expanding the illumination range. Furthermore, the protruding design at the top prevents the light strip from collapsing during installation, ensuring the structural stability of the luminaire.

[0075] The above embodiments are merely preferred embodiments of this utility model and do not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the content of this utility model specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. A luminaire characterized by, include: The housing is provided with a mounting slot; Multiple interconnected light-emitting components are arranged in a mounting slot, and the light-emitting components are connected to each other by flexible wires; An adapter plate is disposed in the mounting slot, and the adapter plate is used to realize the electrical connection between the light-emitting component and the external power supply.

2. The luminaire of claim 1, wherein, The adapter plate includes: A substrate, one end of which is connected to an external power source via a wire, and the other end of which is connected to a light-emitting component via a wire.

3. The luminaire of claim 2, wherein, The adapter plate also includes: A power processing circuit is disposed on the substrate. The power processing circuit is electrically connected to an external power source and a light-emitting component. The power processing circuit is used to convert the external power source into a power supply for the light-emitting component.

4. The luminaire of claim 1, wherein, The housing includes: Multiple interconnected tubular shells, with the mounting grooves formed inside the tubular shells; A connector is provided at the end of the tube shell, and two adjacent tube shells are connected by the connector.

5. The luminaire of claim 4, wherein, The positions of the two adjacent tube shells are set to correspond one-to-one with the positions of the two adjacent light-emitting components, and the positions of each connector are set to correspond one-to-one with the positions of each flexible wire.

6. The luminaire of claim 4, wherein, Each of the tube housings is provided with a wire hole, and the adapter plate is disposed in the mounting groove of one of the tube housings, and the adapter plate is connected to an external power source through the wire hole of the tube housing.

7. The luminaire of claim 4, wherein, The connector is located on the side of the tube shell facing the light-emitting component. The two ends of the connector are respectively located at the ends of two adjacent tube shells that are close to each other, and the connector is fixedly connected to the tube shell by screws.

8. The luminaire of claim 1, wherein, Multiple light-emitting components are spliced ​​together to form two strip-shaped light strips, and the two strip-shaped light strips are respectively disposed on two opposing inner wall surfaces of the housing.

9. The luminaire of claim 8, wherein, The strip light includes: The circuit board is connected to an external power source via the adapter plate. The light source is mounted on the circuit board.

10. The luminaire of any one of claims 1-9, wherein, Also includes: The silicone sleeve is fitted into the mounting groove, and the silicone sleeve is integrally formed.

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