Flexible arc-shaped floodlight

Abstract

The invention provides a flexible arc-shaped floodlight which comprises a flexible floodlight assembly, a positioning assembly is installed on the upper side of the flexible floodlight assembly, and a plurality of connecting assemblies are installed on the left side and the right side of the positioning assembly in a clamped mode correspondingly. And the tail ends of the multiple connecting assemblies located on the left side of the positioning assembly and the tail ends of the multiple connecting assemblies located on the right side of the positioning assembly are each provided with a clamping assembly in a clamped mode. The flexible characteristic of the flexible floodlight is perfectly matched, and the problem that an arc-shaped surface is difficult to fit in a traditional installation mode is solved; the clamping piece is matched with a screw through a preformed hole to achieve stable fixation of the flexible track, and the defects that traditional gluing fixation is difficult to disassemble, and parts are prone to being damaged during keel clamping are overcome.

Description

Technical Field

[0001] This invention belongs to the field of lighting technology, and specifically relates to a flexible arc-shaped floodlight. Background Technology

[0002] The two mainstream installation methods for flexible curved floodlights (silicone LED strips) – adhesive bonding and flexible keel clamping – both have significant drawbacks. Adhesive bonding is extremely difficult to disassemble later, as the adhesive, once cured, forms an irreversible, tight bond with the mounting surface (such as a wall or curved component). Furthermore, the silicone LED strip itself is flexible and easily damaged. Conventional solutions include forceful peeling or using chemical solvents to dissolve the adhesive. However, forceful peeling can easily lead to broken LED strip wiring, damaged silicone sheaths, and damage to the coating or structural integrity of the mounting surface. Chemical solvents may corrode the LED strip material and pose environmental pollution risks. The key problem with flexible keel clamping is insufficient stability, making it prone to detachment. This is because the keel must be flexible enough to fit the curved contour of the LED strip, resulting in limited clamping force. Over long-term use, environmental vibrations and temperature changes causing thermal expansion and contraction of the material can gradually increase the clamping gap, leading to loosening.

[0003] Conventional solutions include increasing the number of snap-fit ​​points, thickening the keel wall, or using a small amount of glue for fixation. However, increasing the number of snap-fit ​​points increases the complexity of installation and construction costs, while thickening the keel wall weakens its flexibility and adaptability, making it difficult to fit curved surfaces. Using a small amount of glue creates a contradiction between "difficult disassembly" and "stable fixation." It cannot fully guarantee the ease of disassembly and may also cause uneven stress on the light strip due to local glue residue, affecting the uniformity of light emission and even accelerating the aging and damage of the light strip. Neither of these methods can balance the stability of installation and fixation with the ease of later maintenance. Therefore, we hope to design a floodlight with a new structure to solve this problem. Summary of the Invention

[0004] To address the shortcomings of existing technologies, the present invention aims to provide a flexible arc-shaped floodlight to solve the problems mentioned in the background section.

[0005] The present invention is achieved through the following technical solution: a flexible arc-shaped floodlight, comprising: a flexible floodlight assembly, wherein a positioning assembly is installed on the upper side of the flexible floodlight assembly, and multiple connecting assemblies are respectively snapped onto the left and right sides of the positioning assembly, and a snap-fit ​​assembly is respectively snapped onto the ends of the multiple connecting assemblies on the left and right sides of the positioning assembly, the multiple connecting assemblies on the left and right sides of the positioning assembly are all fixedly connected to the upper side of the flexible floodlight assembly, and the two snap-fit ​​assemblies at the ends of both sides are fixedly connected to the upper side of the flexible floodlight assembly for snapping and fixing the flexible floodlight assembly, and the flexible floodlight assembly is movably snapped onto the lower side of a flexible track through the multiple snap-fit ​​assemblies; The snap-fit ​​assembly includes a mounting box 1. The mounting box 1 has an integrally formed mounting frame with an I-shaped cross-section in the middle. The mounting frame has a partition in the middle. The front and rear sides of the upper end of the mounting frame are respectively fixed with a snap-fit ​​module for movably snapping with the flexible track through the partition. The end of the mounting box 1 away from the connecting assembly has a push module movably installed inside for pushing the two snap-fit ​​modules to release the lock. The flexible track includes a guide rail body, on which a snap-fit ​​component is integrally formed for snap-fit ​​fixing with the snap-fit ​​module. In actual use, the guide rail body of the flexible track is made of the same material as the silicone tube sleeve, while the snap-fit ​​component is made of flame-retardant transparent plastic material, and the length of the snap-fit ​​component is 2-5cm, with the optimal length being 3cm, to ensure that the snap-fit ​​component can follow the flexible track to bend with a small arc, so that the entire flexible track can be laid flexibly with multiple arcs according to the flexible floodlight assembly. Multiple sets of bending snap-fit ​​structures composed of snap-fit ​​components, connecting components, and positioning components can be set on the flexible floodlight assembly. Each set of bending snap-fit ​​structures has a snap-fit ​​component at both ends and a positioning component in the middle. Multiple connecting components can be set between the positioning component and the snap-fit ​​components on both sides for connection. The specific number of connecting components can be set according to actual usage requirements. The maximum length of the same set of bending snap-fit ​​structures is less than 1m, and the minimum length is two snap-fit ​​components and one positioning component. The connecting components can be omitted.

[0006] In a preferred embodiment, the flexible floodlight assembly includes a silicone sleeve, with multiple connecting plates fixed at equal intervals on the upper side inside the silicone sleeve. Each connecting plate has a threaded blind hole recessed downward in the middle of its upper side. A light strip body is integrally extruded inside the silicone sleeve, and the upper side of the light strip body is glued and fixed to the lower surface of the multiple connecting plates. The upper surface of the silicone sleeve is provided with multiple sets of positioning holes. The cross-section of the positioning holes is a rectangular structure. Each set of positioning holes is provided with two positioning holes, and multiple equally spaced waist holes are provided between the two positioning holes. The multiple waist holes are all located in the middle of the upper surface of the silicone sleeve and penetrate downward. A threaded blind hole is provided on the lower side of each waist hole, and the axis of the threaded blind hole is collinear with the axis of the waist hole.

[0007] In a preferred embodiment, a positioning plug is provided on the lower side of the end of the mounting box away from the connecting component. The positioning plug has the same cross-sectional dimensions and structure as the positioning hole at the location of the mounting box, and the positioning plug is movably inserted into the positioning hole at the location of the mounting box. The mounting bracket has a recessed groove on the front and rear sides of the end closest to the connecting component. The two grooves are mirror images of each other about the partition. The lower front and lower rear sides of the mounting bracket away from the connecting component form two strip-shaped through holes at the lower end of the mounting bracket. The two strip-shaped through holes are mirror images of each other about the partition.

[0008] In a preferred embodiment, the snap-fit ​​module includes a spring, with one end of the spring near the partition plate being fixedly connected to the partition plate, and the other end of the spring away from the partition plate being fixedly connected to the inner surface of the guide plate. The guide plate near the push module slides against the inner wall of the mounting bracket near the push module. The guide plate near the connecting component slides into a groove on the mounting bracket near the connecting component to guide and limit the guide plate. Each guide plate has a locking head in the middle of its outer end. The card head is a regular square pyramid structure, and all edges are rounded. The front and rear sides of the mounting box where the two card-connecting modules are installed are respectively provided with rectangular slots to make way for the card head. In actual use, the card head has a base side length of 8mm, a height of 5mm, and a rounded edge radius of 0.5mm.

[0009] In a preferred embodiment, the mounting box has a rectangular through hole on the front and rear sides of the end away from the connecting component. The pushing module includes push rods, the lower parts of the two push rods are L-shaped, and a push plate is welded to the lower end of each push rod near the rectangular through hole. The structure of the push plate matches the structure of the rectangular through hole, and the size of the push plate is smaller than the size of the rectangular through hole. The lower part of the two push rods near the mounting frame is slidably connected to the two strip through holes on the mounting frame. The part of the two push rods placed inside the mounting frame is slidably connected to the guide rod fixed at the bottom of the mounting frame. The guide rod has a rectangular cross-section. The upper end of the push rod placed on the front side of the mounting box has a fixing rod 1 that is vertically arranged forward in the front-back direction for fixing connection with the front guide plate. The upper end of the push rod placed on the rear side of the mounting box has a fixing rod 2 that is vertically arranged backward in the front-back direction for fixing connection with the rear guide plate. The first fixing rod and the second fixing rod are respectively placed inside the two springs. The upper part of the push rod extends through the middle part of the spring and into the spring. The spring is a progressive spring with a small pitch at both ends and a large pitch in the middle part. In actual use, the progressive spring has a pitch of 2mm at both ends and a pitch of 5mm in the middle, with an elastic coefficient of 1.0N / mm.

[0010] In a preferred embodiment, the mounting box is integrally provided with a sleeve at the end near the connecting component. The end of the mounting box near the connecting component is recessed to the side away from the connecting component to form an inwardly concave arc surface. The end of the mounting box away from the connecting component is protruded to the side away from the connecting component to form an outwardly convex arc surface. The curvature and the radius of the inwardly concave arc surface are matched with the curvature and the radius of the outwardly convex arc surface. The connecting component includes a second mounting box. The end of the second mounting box near the snap-fit ​​component protrudes outward to form a convex arc surface, and the end near the positioning component is recessed inward to form a concave arc surface. The curvature and radius of the concave arc surface match the curvature and radius of the convex arc surface, and the curvature and radius of the concave arc surface match the curvature and radius of the concave arc surface. The end of the second mounting box near the snap-fit ​​component extends inward to form an assembly opening. The end of the second mounting box near the positioning component is provided with a sleeve, the structure and dimensions of which are identical to those of the sleeve. The width of the assembly opening is greater than the widths of both sleeves. A locking post is integrally formed in the center of the bottom of the side of the second mounting box near the snap-fit ​​component. The locking post matches a preset cavity in the center of either sleeve or sleeve, and the locking post is movably inserted into and rotatably connected to it.

[0011] In a preferred embodiment, the positioning component includes a mounting box three. The left and right ends of the mounting box three protrude outward to form an outward convex arc surface three. The arc and central radius of the outward convex arc surface three are matched with the arc and central radius of the outward convex arc surface one. The left and right ends of the mounting box three penetrate inward to form an assembly opening two. The width of the assembly opening two is greater than the width of the sleeve two. A locking post two is integrally provided at the bottom center of the left side and the bottom center of the right side of the mounting box three. The locking post two matches the preset cavity at the center of the sleeve two, and the locking post two is movably inserted into the sleeve two to form a rotatable connection. The mounting box has two support plates on its front inner wall and two support plates on its rear inner wall. The four support plates are arranged in a rectangular structure, and the inner top of each of the four support plates protrudes upward to form a positioning end plate. The locking plate has a rectangular slot extending downward through its left front side, right front side, left rear side, and right rear side. The structure, size, and distribution of the four slots are all matched with the structure, size, and distribution of the four positioning end plates. The locking plate is movably mounted on the upper side of the four support plates through the slot and the positioning end plate. The locking plate has a through hole 2 formed by penetrating downward in the middle. The mounting box 3 has a through hole 1 formed by penetrating downward in the middle of the bottom. The axis of the through hole 1 is collinear with the axis of the through hole 2. The axis of the through hole 2 is collinear with the axis of the waist hole at the location of the mounting box 3. The locking plate is fitted with a locking rod through the second through hole. The locking rod has a limit head on its upper side and an external threaded rod at its lower end. The locking rod passes through the first through hole, the second through hole, and the waist hole, through the locking plate, the mounting box, and the silicone sleeve, and extends into the threaded blind hole of the connecting plate and is threadedly connected to the connecting plate. In actual use, the bottom of the mounting box one of the two snap-fit ​​components is threadedly connected to the connecting plate inside the silicone sleeve by a short locking rod, thus fixing the snap-fit ​​components. The second mounting box also has a locking plate and a locking rod inside, with the same size and structure, and the same installation method. The bottom of the second mounting box also has a round hole to make way for the locking rod.

[0012] In a preferred embodiment, the inner wall of the front side and the inner wall of the rear side of the mounting component are respectively provided with a guide groove from one end near the mounting component to the opposite side, and the end of each guide groove extends outward through the mounting component to form a fixing hole. The width of the guide groove matches the width of the outer end of the card head. The guide rail body is open on the side near the flexible floodlight assembly, and both the guide rail body and the card fitting have a U-shaped cross-section. The guide rail body is provided with a rectangular slot near the push plate. The width of the rectangular slot is greater than the width of the push plate. The number and distribution of the rectangular slots are matched with the number and distribution of the push plates.

[0013] After adopting the above technical solution, the beneficial effects of the present invention are as follows: 1. By setting up a flexible track and snap-fit ​​components, the flexible track can adapt to the arc or irregular shape of the wall mounting groove, perfectly matching the flexible characteristics of the flexible floodlight, and solving the problem that traditional installation methods are difficult to fit the arc surface; the snap-fit ​​components achieve stable fixation of the flexible track through pre-drilled holes and screws, and at the same time, the spacing between adjacent snap-fit ​​components and the length of the bent snap-fit ​​structure are precisely matched to ensure that multiple sets of snap-fit ​​components can be accurately aligned and snapped in, ensuring installation consistency and accuracy; The snap-fit ​​assembly adopts a snap-fit ​​design with a spring-driven snap head and a snap-fit ​​guide groove and fixing hole. No special tools are required. Simply align and push to lock it. Combined with the fitting design of the push plate and rectangular through hole, it further improves the structural stability after installation, greatly reduces the installation complexity and operation threshold, and improves the efficiency of batch installation. During disassembly, use simple tools such as a flathead screwdriver to push the push plate inward. This will cause the guide plate to be linked by the push rod and fixing rod, compressing the progressive spring to disengage the clip from the fixing hole. Then, pull it outward to quickly separate the clip assembly from the clip-on part. The whole process does not require damage to the track, wall, or floodlight assembly, avoiding the drawbacks of traditional glue fixation which makes disassembly difficult and keel clip-on which easily damages parts.

[0014] 2. By setting up connecting components and positioning components, and setting up a connecting plate inside the flexible floodlight assembly, multiple connecting components and positioning components, through modular design, rotatable fit and precise fixing structure, provide a comprehensive guarantee for the flexible floodlight assembly to adapt to straight or curved flexible guide rails, which not only takes into account the flexibility of form adaptation, but also enhances the assembly stability. Multiple components are evenly distributed to form multi-point support, distributing assembly force to various parts and avoiding concentrated force at a single point. In a straight state, it resists vibration and impact, and in a curved state, it adapts to the bending force distribution. Combined with the internal load-bearing function of the connecting plate, it prevents deformation and detachment caused by stress concentration at bends. At the same time, all components adopt a unified assembly logic, so there is no need to change the installation method for different shapes, and the assembly scale can be flexibly adjusted according to the guide rail length. Attached Figure Description

[0015] To more clearly illustrate the technical solutions in the embodiments of the present invention 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 the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0016] Figure 1 This is a schematic diagram of the overall structure of a flexible arc-shaped floodlight according to the present invention.

[0017] Figure 2 This is a schematic diagram of the flexible guide rail structure of a flexible arc-shaped floodlight according to the present invention.

[0018] Figure 3 for Figure 2 A schematic diagram of the enlarged structure at point A in the middle.

[0019] Figure 4 This is a schematic diagram of the cross-sectional structure of a flexible floodlight assembly of a flexible arc-shaped floodlight according to the present invention.

[0020] Figure 5 This is a schematic diagram of the silicone sleeve structure of a flexible arc-shaped floodlight according to the present invention.

[0021] Figure 6 This is a schematic diagram of the interconnected structure of a flexible arc-shaped floodlight clip assembly, a connecting assembly, and a positioning assembly according to the present invention.

[0022] Figure 7 for Figure 6 A schematic diagram of the enlarged structure at point B.

[0023] Figure 8 This is a schematic diagram of the snap-fit ​​module and push-pull module structure of a flexible arc-shaped floodlight according to the present invention.

[0024] Figure 9 This is a schematic diagram of the internal structure of the positioning component of a flexible arc-shaped floodlight according to the present invention.

[0025] Figure 10 This is a schematic diagram of the internal structure of the connecting component of a flexible arc-shaped floodlight according to the present invention.

[0026] Figure 11 This is a schematic diagram of the driving module structure of a flexible arc-shaped floodlight according to the present invention.

[0027] In the diagram, 100 is the flexible floodlight assembly, 110 is the silicone sleeve, 111 is the positioning socket, 112 is the waist hole, 120 is the light strip body, and 130 is the connecting plate. 200-Snap-fit ​​assembly, 210-Mounting bracket, 211-Strip through hole, 212-Partition plate, 220-Snap-fit ​​module, 221-Spring, 222-Guide plate, 223-Snap head, 230-Push module, 231-Push plate, 232-Push rod, 233-Guide rod; 300-Connecting component, 310-Assembly opening one, 320-Clip post one, 330-Clip sleeve two; 400-Positioning component, 410-Mounting box one, 411-Assembly opening two, 412-Clip two, 413-Through hole one, 414-Support plate, 420-Locking plate, 421-Rectangular slot, 422-Through hole two, 423-Locking rod; 500-Flexible track, 510-Mounting component, 511-Fixing hole, 512-Guide groove, 520-Guide rail body, 521-Rectangular slot. Detailed Implementation

[0028] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0029] As the first embodiment of the present invention: Please see Figures 1 to 11 A flexible arc-shaped floodlight includes: a flexible floodlight assembly 100, a positioning assembly 400 mounted on the upper side of the flexible floodlight assembly 100, multiple connecting assemblies 300 respectively snapped onto the left and right sides of the positioning assembly 400, and a snap-fit ​​assembly 200 respectively snapped onto the ends of the multiple connecting assemblies 300 on the left and right sides of the positioning assembly 400, the multiple connecting assemblies 300 on the left and right sides of the positioning assembly 400 are all fixedly connected to the upper side of the flexible floodlight assembly 100, and the two snap-fit ​​assemblies 200 at the two ends are fixedly connected to the upper side of the flexible floodlight assembly 100 for snapping and fixing the flexible floodlight assembly 100, and the flexible floodlight assembly 100 is movably snapped onto the lower side of the flexible track 500 through the multiple snap-fit ​​assemblies 200; The snap-fit ​​assembly 200 includes a mounting box 410. The mounting box 410 has an integrally formed mounting frame 210 with an I-shaped cross-section. The mounting frame 210 has a partition 212 in the middle. A snap-fit ​​module 220 is fixed to the front and rear sides of the upper end of the mounting frame 210 through the partition 212 for movably snapping with the flexible track 500. A push module 230 is movably installed inside the end of the mounting box 410 away from the connecting assembly 300 for pushing the two snap-fit ​​modules 220 to release the lock. The flexible track 500 includes a guide rail body 520, on which a snap-fit ​​component 510 is integrally formed for snap-fitting and fixing with the snap-fit ​​module 220. In actual use, the guide rail body 520 of the flexible track 500 is made of the same material as the silicone tube sleeve, while the snap-fit ​​component 510 is made of flame-retardant transparent plastic material, and the length of the snap-fit ​​component 510 is 2-5cm, with the optimal length being 3cm. This ensures that the snap-fit ​​component 510 can follow the flexible track 500 to bend with a small arc, allowing the entire flexible track 500 to be flexibly laid out with multiple arcs according to the flexible floodlight assembly 100. Multiple sets of bent clamping structures composed of snap-fit ​​components 200, connecting components 300, and positioning components 400 can be set on the 0. Each set of bent clamping structures has a snap-fit ​​component 200 at both ends and a positioning component 400 in the middle. Multiple connecting components 300 can be set between the positioning component 400 and the snap-fit ​​components 200 on both sides for connection. The specific number of connecting components 300 can be set according to actual usage requirements. The maximum length of the same set of bent clamping structures is less than 1m, and the minimum length is two snap-fit ​​components 200 and one positioning component 400. The connecting components 300 can be omitted.

[0030] The flexible floodlight assembly 100 includes a silicone sleeve 110. Multiple connecting plates 130 are fixed at equal intervals on the upper side of the silicone sleeve 110. Each connecting plate 130 has a threaded blind hole formed by a downward recess in the middle of its upper side. A light strip body 120 is integrally extruded inside the silicone sleeve 110. The upper side of the light strip body 120 is glued and fixed to the lower surface of the multiple connecting plates 130. The upper surface of the silicone sleeve 110 is provided with multiple sets of positioning holes 111. The cross-section of the positioning holes 111 is a rectangular structure. Each set of positioning holes 111 is provided with two positioning holes 111, and multiple equally spaced waist holes 112 are provided between the two positioning holes 111. The multiple waist holes 112 are all located in the middle of the upper surface of the silicone sleeve 110 and penetrate downward. Each waist hole 112 has a threaded blind hole on its lower side. The axis of the threaded blind hole is collinear with the axis of the waist hole 112.

[0031] A positioning plug is provided on the lower side of the end of the mounting box 410 away from the connecting component 300. The positioning plug has the same cross-sectional dimensions and structure as the positioning hole 111 at the location of the mounting box 410, and the positioning plug is movably inserted into the positioning hole 111 at the location of the mounting box 410. The mounting bracket 210 near the connecting component 300 has a recessed front and rear side that form a groove. The two grooves are mirror images of the partition 212. The mounting bracket 210 away from the connecting component 300 has two strip-shaped through holes 211 that pass through the lower front and rear sides of the mounting bracket 210. The two strip-shaped through holes 211 are mirror images of the partition 212.

[0032] The snap-fit ​​module 220 includes a spring 221. One end of the spring 221 near the partition 212 is fixedly connected to the partition 212, and the other end of the spring 221 away from the partition 212 is fixedly connected to the inner surface of the guide plate 222. The guide plate 222 is slidably abutted against the inner wall of the mounting bracket 210 near the push module 230 on the side close to the push module 230 on the side close to the guide plate 222 and slidably engaged with the groove on the mounting bracket 210 near the connecting component 300 on the side close to the connecting component 300 on the side close to the guide plate 222 for guiding and limiting the guide plate 222. A locking head 223 is provided in the middle of the outer end of each guide plate 222. The card head 223 is a regular square pyramid structure, and all edges are rounded. The front and rear sides of the mounting box 410 where the two card modules 220 are installed are respectively provided with a rectangular card slot 521 to make way for the card head 223.

[0033] The mounting box 410, which is away from the connecting component 300, has a rectangular through hole on the front and rear sides respectively. The pushing module 230 includes push rods 232. The lower part of the two push rods 232 has an L-shaped structure, and a push plate 231 is welded to the lower end of the two push rods 232 near the rectangular through hole. The structure of the push plate 231 matches the structure of the rectangular through hole, and the size of the push plate 231 is smaller than the size of the rectangular through hole. The lower part of the two push rods 232 near the mounting bracket 210 is slidably connected to the two strip through holes 211 on the mounting bracket 210. The part of the two push rods 232 inside the mounting bracket 210 is slidably connected to the guide rod 233 fixed at the bottom of the mounting bracket 210. The guide rod 233 has a rectangular cross-section. The upper end of the push rod 232, which is located on the front side of the mounting box 410, is vertically fixed with a fixing rod 1 in the front-back direction for fixed connection with the guide plate 222 on the front side. The upper end of the push rod 232, which is located on the rear side of the mounting box 410, is vertically fixed with a fixing rod 2 in the rear direction for fixed connection with the guide plate 222 on the rear side. Fixed rod one and fixed rod two are respectively placed inside the two springs 221. The upper part of push rod 232 extends through the middle part of spring 221 into the inside of spring 221. Spring 221 is a progressive spring with small pitch at both ends and large pitch in the middle part.

[0034] Specifically, by setting up a flexible track 500 and a snap-fit ​​assembly 200, in actual use, an installation groove is opened on the wall where the flexible floodlight assembly 100 needs to be installed. Then, the flexible track 500 is laid in the opened installation groove, and multiple snap-fit ​​pieces 510 set on the guide rail body 520 are fixed in the installation groove on the wall using screws. (The snap-fit ​​piece 510 has a 5mm diameter pre-drilled hole in the middle on the side of the snap-fit ​​piece closest to the installation groove. The spacing between adjacent snap-fit ​​pieces 510 matches the length of the bent snap-fit ​​structure and uses M4×15mm.) The flexible track 500 is secured with a cross-slot countersunk screw. After the flexible track 500 is installed, the snap-fit ​​assembly 200 on the starting end of the flexible floodlight assembly 100 is aligned with the snap-fit ​​piece 510 on the starting end of the flexible track 500. Specifically, the two snap-fit ​​modules 220 on the mounting box 410 are aligned with the snap-fit ​​piece 510, and the outer ends of the two snap heads 223 are placed in the two guide grooves 512 on the inner wall of the snap-fit ​​piece 510. Then, the entire snap-fit ​​assembly 200 is pushed into the snap-fit ​​piece 510. The two snap heads 223, which are compressed, push the guide plate 222, which is slidably connected to the mounting bracket 210, and further compress the spring 221 connected to the guide plate 222. The spring 221 is compressed by the force, and at this time the snap heads 223 enter the guide groove 512. When the locking head 223 reaches the fixing hole 511 on the locking component 510, under the action of the elastic potential energy of the spring 221, the locking head 223 moves outward and locks into the fixing hole 511, thus completing the locking and locking of the locking component 200 and the locking component 510. At the same time, the multiple push plates 231 on the mounting box 410 respectively enter the multiple rectangular slots 521 on the guide rail body 520. Then, the multiple connecting components 300 and the positioning components 400 are locked into the guide rail body 520. The subsequent locking components 200 are locked into the locking component 510 in the same way as described above (the distance between two adjacent locking components 510 matches the length of a set of bent locking structures composed of locking components 200, connecting components 300 and positioning components 400, to ensure that the two locking components 200 can be locked into the two locking components 510). When disassembly is required, the operator only needs to use a flathead screwdriver or other similar tool to reach into the mounting groove on the wall and push the two push plates 231 on both sides of the same mounting box 410 inward and pull them outward. Specifically, when the two push plates 231 are pushed inward, the two push plates 231 simultaneously drive the two push rods 232 to move towards each other. The guide rod 233, which is slidably connected to them, ensures the stable movement of the two push rods 232, thereby driving the fixing rod one and fixing rod two at the top of the two push rods 232 to move towards each other. Since the upper end of the push rod 232 located on the front side of the mounting box 410 is vertically provided with a fixing rod one in the front-back direction for fixed connection with the front guide plate 222, A fixing rod 2 is vertically arranged at the upper end of the push rod 232 on the rear side of the mounting box 410 in the front-back direction for fixing to the guide plate 222 on the rear side. The fixing rod 1 and the fixing rod 2 are respectively placed inside the two springs 221. The upper part of the push rod 232 extends through the middle part of the spring 221 into the spring 221. The spring 221 is a progressive spring with a small pitch at both ends and a large pitch in the middle part. This causes the two guide plates 222 and the clamps 223 on them to move towards each other. The two clamps 223 retract and gradually disengage from the fixing hole 511. The outward pulling force causes the clamps 223 to move outward and disengage from the clamping part 510 through the guide groove 512, realizing quick disassembly. The flexible track 500 can adapt to the curved or irregular shape of the wall mounting groove, perfectly matching the flexible characteristics of the flexible floodlight and solving the problem that traditional installation methods are difficult to fit curved surfaces. The snap-fit ​​component 510 uses pre-drilled holes and screws to securely fix the flexible track 500. At the same time, the spacing between adjacent snap-fit ​​components 510 and the length of the bent snap-fit ​​structure are precisely matched to ensure that multiple sets of snap-fit ​​components 200 can be accurately aligned and snapped in, ensuring installation consistency and accuracy. The snap-fit ​​assembly 200 adopts a snap-fit ​​design in which the snap head 223 driven by the spring 221 cooperates with the guide groove 512 and fixing hole 511 of the snap-fit ​​part 510. No professional tools are required. Locking can be completed simply by aligning and pushing. Combined with the interlocking design of the push plate 231 and the rectangular snap-fit ​​521, the structural stability after installation is further improved, the installation complexity and operation threshold are greatly reduced, and the efficiency of batch installation is improved. During disassembly, using simple tools such as a flathead screwdriver, push the push plate 231 inward. This, along with the push rod 232 and the guide plate 222 linked to the fixing rod, compresses the progressive spring 221, causing the clip 223 to disengage from the fixing hole 511. Pulling it outward then allows for quick separation of the clip assembly 200 from the clip-on part 510. The entire process does not require damage to the track, wall, or floodlight assembly, avoiding the drawbacks of traditional glue fixation which makes disassembly difficult and keel clip-on installation which can easily damage components. Furthermore, the elasticity of the progressive spring 221 and the guiding effect of the guide rod 233 ensure smooth extension and retraction of the clip 223 without jamming, guaranteeing the convenience and repeatability of the disassembly operation. At the same time, the components can be reused, reducing maintenance and replacement costs. Compared with traditional keel clip-on installation, the installation efficiency is increased by 65%, and the disassembly efficiency is increased by 70%. It can withstand continuous 24 hours of vibration in a 5-50Hz environment without displacement, and the uniformity deviation of light emission is ≤3% when the arc is adapted. The threaded connection tension of the locking rod is ≥50N.

[0035] As a second embodiment of the present invention: Please see Figures 1 to 11 The mounting box 410 is integrally provided with a retainer 1 at one end near the connecting component 300. The end of the mounting box 410 near the connecting component 300 is recessed to the side away from the connecting component 300 to form an inwardly concave arc surface 1. The end of the mounting box 410 away from the connecting component 300 is protruded to the side away from the connecting component 300 to form an outwardly convex arc surface 1. The curvature and the radius of the inwardly concave arc surface 1 are matched with the curvature and the radius of the outwardly convex arc surface 1. The connecting component 300 includes a second mounting box. One end of the second mounting box near the snap-fit ​​component 200 protrudes outward to form a convex arc surface 2, and the other end near the positioning component 400 is recessed inward to form a concave arc surface 2. The curvature and radius of the concave arc surface 2 match the curvature and radius of the convex arc surface 1, and the curvature and radius of the concave arc surface 2 match the curvature and radius of the concave arc surface 1. The end of the second mounting box near the snap-fit ​​component 200 extends inward to form an assembly opening 310. A second ferrule 330 is provided at one end near the positioning component 400. The structure and size of the first ferrule are the same as those of the second ferrule 330. The width of the assembly opening 310 is greater than the width of the first ferrule and the second ferrule 330. A first ferrule 320 is integrally provided at the bottom center of the side of the mounting box 2 near the snap-fit ​​component 200. The first ferrule 320 matches the preset cavity in the center of the first ferrule or the second ferrule 330, and the first ferrule 320 is movably inserted into the first ferrule or the second ferrule 330 and rotates and connects with each other.

[0036] The positioning component 400 includes a mounting box three. The left and right ends of the mounting box three protrude outward to form an outward convex arc surface three. The curvature and radius of the outward convex arc surface three are matched with the curvature and radius of the outward convex arc surface one. The left and right ends of the mounting box three penetrate inward to form an assembly opening two 411. The width of the assembly opening two 411 is greater than the width of the sleeve two 330. A locking post two 412 is integrally provided at the bottom center of the left side and the bottom center of the right side of the mounting box three. The locking post two 412 matches the preset cavity in the center of the sleeve two 330, and the locking post two 412 is movably inserted into the sleeve two 330 to form a rotatable connection. The mounting box has two support plates 414 on the front inner wall and two support plates 414 on the rear inner wall. The four support plates 414 are arranged in a rectangular structure, and the inner top of each of the four support plates 414 protrudes upward to form a positioning end plate. The locking plate 420 extends downward through the left front side, right front side, left rear side, and right rear side to form a rectangular slot 421. The structure, size, and distribution of the four slots are all matched with the structure, size, and distribution of the four positioning end plates. The locking plate 420 is movably mounted on the upper side of the four support plates 414 through the slot and the positioning end plate. The locking plate 420 is passed through the middle to form a through hole 2 422, and the bottom of the mounting box 3 is passed through the middle to form a through hole 1 413. The axis of the through hole 1 413 is collinear with the axis of the through hole 2 422, and the axis of the through hole 2 422 is collinear with the axis of the waist hole 112 at the location of the mounting box 3. Locking plate 420 is fitted with locking rod 423 through through hole 2 422. Locking rod 423 has a limit head on the upper side and an external thread rod at the lower end. Locking rod 423 passes through through hole 1 413, through hole 2 422 and waist hole 112, passes through locking plate 420, mounting box 410 and silicone sleeve 110 and extends into threaded blind hole of connecting plate 130 and is threadedly connected to connecting plate 130. In actual use, the bottom of mounting box 1 410 of the two snap-fit ​​components 200 is threadedly connected to connecting plate 130 inside silicone sleeve 110 through short locking rod 423 on the side close to connecting component 300, thus fixing snap-fit ​​component 200. Mounting box 2 is also equipped with locking plate 420 and locking rod 423. The size and structure are the same and the installation method is also the same. The bottom of mounting box 2 is also provided with round hole to make way for locking rod 423.

[0037] The inner wall of the front side and the inner wall of the rear side of the mounting component 510 are respectively provided with a guide groove 512 from one end close to the mounting component 200 to the opposite side, and the end of each guide groove 512 extends outward through the mounting component 510 to form a fixing hole 511. The width of the guide groove 512 matches the width of the outer end of the clip head 223. The guide rail body 520 is open on the side near the flexible floodlight assembly 100, and both the guide rail body 520 and the clip 510 have a U-shaped cross-section. The guide rail body 520 is provided with a rectangular through hole near the push plate 231. The width of the rectangular through hole is greater than the width of the push plate 231. The number and distribution of the rectangular through holes are matched with the number and distribution of the push plates 231.

[0038] Based on the first embodiment described above, further, by setting a connecting component 300 and a positioning component 400, and setting a connecting plate 130 inside the flexible floodlight assembly 100, in actual use, the positioning component 400 is first fixed to the upper side of the flexible floodlight assembly 100. Specifically, the through hole 413 on the mounting box 3 is aligned with the waist hole 112 on the flexible floodlight assembly 100. Then, the locking plate 420 is snapped into the mounting box 3 through the rectangular slot 421 and the four support plates 414 inside the mounting box 3. Subsequently, the locking rod 423 passes through the through hole 422 on the locking plate 420 and the through hole 413 on the mounting box 3 and enters into the waist hole 112, finally extending to the corresponding position on the connecting plate 130 and threadedly connected to the threaded blind hole thereon, thereby fixing the mounting box 3. Then, the two connecting components 300 drive one end of the sleeve 330 to be inserted through the assembly opening 411 on the mounting box 3, so that... The two clips 330 and the two clips 412 at the bottom of the mounting box 3 are assembled together. If it is necessary to add connecting components 300, they can be added according to the above method. After the outer wall is clamped, the mounting box 2 is fixed by the locking plate 420 and the locking rod 423. After all the mounting boxes 2 are installed, the end of the two snap-fit ​​components 200 with the clip 1 is inserted through the mounting port 1 on both sides of the mounting box 2 and assembled with the clip 320 inside. Then, the short locking rod 423 is used to fix the snap-fit ​​component 200 to the connecting plate 130 at the corresponding position. In this way, multiple connecting components 300, positioning components 400 and snap-fit ​​components 200 can be fixed to the flexible floodlight assembly 100. Multiple connecting components 300 and positioning components 400 can ensure the stability of the assembly of the flexible floodlight assembly 100 and the flexible track 500, and also enable the flexible floodlight assembly 100 to be set in a straight line or arc, so that it is compatible with the straight or arc flexible track 500. Multiple connecting components 300 and positioning components 400, through modular design, rotatable fit and precise fixing structure, provide comprehensive protection for the flexible floodlight assembly 100 to adapt to straight or curved flexible guide rails. They take into account both the flexibility of form adaptation and the enhancement of assembly stability. The connecting component 300, with the mounting box 2 as the core, achieves flexible splicing with the positioning component 400 (mounting box 3) through the combination of the second clamp 330 and the second clamp 412. It also supports the addition or reduction of quantity as needed. In the case of straight guide rail, it can be arranged linearly to form a continuous and stable support. In the case of curved guide rail, the rotatable connection of the clamp and the clamp allows for angular deflection between components. Combined with the flexible characteristics of the floodlight body, it naturally bends with the curvature of the guide rail, avoiding hard connection jamming or damage. The positioning component 400 provides lateral fine-tuning space through the alignment of the through hole 413 and the waist hole 112, which can compensate for installation errors and ensure that the floodlight fits tightly with the guide rail. The locking rod 423 passes through the locking plate 420, the mounting box 410 and the threaded blind hole of the connecting plate 130, which can prevent lateral displacement in a straight state and lock the relative position of the components when the curvature is bent, ensuring consistent lighting angle. Multiple components are evenly distributed to form multi-point support, distributing assembly force to various parts and avoiding concentrated force at a single point. In a straight state, it resists vibration and impact, and in a curved state, it adapts to the bending force distribution. Combined with the internal load-bearing function of the connecting plate 130, it prevents deformation and detachment caused by stress concentration at the bend. At the same time, all components adopt a unified assembly logic, so there is no need to change the installation method for different shapes, and the assembly scale can be flexibly adjusted according to the guide rail length.

[0039] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A flexible arc-shaped floodlight, comprising: A flexible floodlight assembly (100) is characterized in that a positioning component (400) is installed on the upper side of the flexible floodlight assembly (100), and multiple connecting components (300) are respectively snapped on the left and right sides of the positioning component (400). A snap-fit ​​component (200) is respectively snapped on the end of the multiple connecting components (300) on the left side and the end of the multiple connecting components (300) on the right side of the positioning component (400). The multiple connecting components (300) on the left and right sides of the positioning component (400) are all fixedly connected to the upper side of the flexible floodlight assembly (100). The two snap-fit ​​components (200) at the ends on both sides are fixedly connected to the upper side of the flexible floodlight assembly (100). The flexible floodlight assembly (100) is movably snapped on the lower side of the flexible track (500) through the multiple snap-fit ​​components (200). The snap-fit ​​assembly (200) includes a mounting box (410), in which a mounting frame (210) with an I-shaped cross-section is integrally provided in the middle. A partition (212) is provided in the middle of the mounting frame (210). A snap-fit ​​module (220) is fixed to the front and rear sides of the upper end of the mounting frame (210) through the partition (212) for movably snapping with the flexible track (500). A push module (230) is movably installed inside the end of the mounting box (410) away from the connecting assembly (300) for pushing the two snap-fit ​​modules (220) to release the lock. The flexible track (500) includes a guide rail body (520), on which a snap-fit ​​component (510) is integrally formed for snap-fitting and fixing with the snap-fit ​​module (220).

2. The flexible arc-shaped floodlight as described in claim 1, characterized in that: The flexible floodlight assembly (100) includes a silicone sleeve (110). Multiple connecting plates (130) are fixed at equal intervals on the upper side of the silicone sleeve (110). Each connecting plate (130) has a threaded blind hole recessed in the middle of its upper side. A light strip body (120) is integrally extruded inside the silicone sleeve (110). The upper side of the light strip body (120) is glued and fixed to the lower surface of the multiple connecting plates (130). The upper surface of the silicone sleeve (110) is provided with multiple sets of positioning holes (111). The cross-section of the positioning holes (111) is a rectangular structure. Each set of positioning holes (111) is provided with two positioning holes (111), and multiple equally spaced waist holes (112) are provided between the two positioning holes (111). The multiple waist holes (112) are all located in the middle of the upper surface of the silicone sleeve (110) and penetrate downward. A threaded blind hole is provided on the lower side of each waist hole (112). The axis of the threaded blind hole is collinear with the axis of the waist hole (112).

3. A flexible arc-shaped floodlight as described in claim 1, characterized in that: A positioning plug is provided on the lower side of the end of the mounting box (410) away from the connecting component (300). The positioning plug has the same cross-sectional dimensions and structure as the positioning hole (111) at the location of the mounting box (410), and the positioning plug is movably inserted into the positioning hole (111) at the location of the mounting box (410). The mounting bracket (210) has a groove formed by the front and rear sides of the end closest to the connecting component (300). The two grooves are mirror images of each other about the partition (212). The lower front and lower rear sides of the mounting bracket (210) away from the connecting component (300) pass through the lower end of the mounting bracket (210) to form two strip-shaped through holes (211). The two strip-shaped through holes (211) are mirror images of each other about the partition (212).

4. A flexible arc-shaped floodlight as described in claim 3, characterized in that: The snap-fit ​​module (220) includes a spring (221), one end of the spring (221) near the partition (212) is fixedly connected to the partition (212), and the other end of the spring (221) away from the partition (212) is fixedly connected to the inner surface of the guide plate (222). The guide plate (222) near the push module (230) slides against the inner wall of the mounting bracket (210) near the push module (230). The guide plate (222) near the connecting component (300) slides into a groove on the mounting bracket (210) near the connecting component (300) for guiding and limiting the guide plate (222). Each guide plate (222) has a locking head (223) in the middle of its outer end. The card head (223) is a regular square pyramid structure, and all edges are rounded. The front and rear sides of the mounting box (410) where the two card modules (220) are installed are respectively provided with a rectangular card slot (521) to make way for the card head (223).

5. A flexible arc-shaped floodlight as described in claim 4, characterized in that: The mounting box (410) has a rectangular through hole on the front and rear sides of the end away from the connecting component (300). The pushing module (230) includes a push rod (232). The lower part of the two push rods (232) is L-shaped, and a push plate (231) is welded to the lower end of each push rod (232) near the rectangular through hole. The structure of the push plate (231) matches the structure of the rectangular through hole, and the size of the push plate (231) is smaller than the size of the rectangular through hole. The lower part of the two push rods (232) near the mounting bracket (210) is slidably connected to the two strip through holes (211) on the mounting bracket (210). The part of the two push rods (232) placed inside the mounting bracket (210) is slidably connected to the guide rod (233) fixed at the bottom of the mounting bracket (210). The guide rod (233) has a rectangular cross-section. The upper end of the push rod (232) placed on the front side of the mounting box (410) has a fixing rod 1 that is vertically arranged forward in the front-back direction for fixing connection with the guide plate (222) on the front side. The upper end of the push rod (232) placed on the rear side of the mounting box (410) has a fixing rod 2 that is vertically arranged backward in the front-back direction for fixing connection with the guide plate (222) on the rear side. The first fixing rod and the second fixing rod are respectively placed inside the two springs (221). The upper part of the push rod (232) extends through the middle part of the spring (221) into the spring (221). The spring (221) is a progressive spring (221) with small pitch at both ends and large pitch in the middle part.

6. A flexible arc-shaped floodlight as described in claim 1, characterized in that: The mounting box (410) is integrally provided with a sleeve at one end near the connecting component (300). The end of the mounting box (410) near the connecting component (300) is recessed to the side away from the connecting component (300) to form an inwardly concave arc surface. The end of the mounting box (410) away from the connecting component (300) protrudes to the side away from the connecting component (300) to form an outwardly convex arc surface. The curvature and radius of the inwardly concave arc surface are matched with the curvature and radius of the outwardly convex arc surface. The connecting component (300) includes a second mounting box. One end of the second mounting box near the snap-fit ​​component (200) protrudes outward to form a convex arc surface, and the other end near the positioning component (400) is recessed inward to form a concave arc surface. The curvature and radius of the concave arc surface match the curvature and radius of the convex arc surface, and the curvature and radius of the concave arc surface match the curvature and radius of the concave arc surface. One end of the second mounting box near the snap-fit ​​component (200) extends inward to form an assembly opening (310). One end of the positioning component (400) is provided with a second sleeve (330). The structure and size of the first sleeve are the same as those of the second sleeve (330). The width of the first assembly opening (310) is greater than the width of the first sleeve and the second sleeve (330). The bottom center of the second mounting box near the snap-fit ​​component (200) is integrally provided with a first snap post (320). The first snap post (320) matches the preset cavity provided in the center of the first sleeve or the second sleeve (330). The first snap post (320) is movably inserted into the first sleeve or the second sleeve (330) and rotates and connects with each other.

7. A flexible arc-shaped floodlight as described in claim 6, characterized in that: The positioning component (400) includes a mounting box three. The left and right ends of the mounting box three protrude outward to form an outward convex arc surface three. The arc and the radius of the center of the outward convex arc surface three are matched with the arc and the radius of the center of the outward convex arc surface one. The left and right ends of the mounting box three penetrate inward to form an assembly opening two (411). The width of the assembly opening two (411) is greater than the width of the sleeve two (330). The bottom center of the left side and the bottom center of the right side of the mounting box three are integrally provided with a locking post two (412). The locking post two (412) is matched with the preset cavity in the center of the sleeve two (330), and the locking post two (412) is movably inserted into the sleeve two (330) to form a rotating connection. The mounting box has two support plates (414) on its front inner wall and rear inner wall respectively. The four support plates (414) are arranged in a rectangular structure, and the inner top of each of the four support plates (414) protrudes upward to form a positioning end plate. The locking plate (420) forms a rectangular slot (421) by penetrating downward on its left front side, right front side, left rear side, and right rear side respectively. The structure, size, and distribution of the four slots are all matched with the structure, size, and distribution of the four positioning end plates. The locking plate (420) is movably mounted on the upper side of the four support plates (414) through the slot and the positioning end plate. The locking plate (420) has a through hole (422) that extends downward through the middle. The mounting box (3) has a through hole (413) that extends downward through the middle of the bottom. The axis of the through hole (413) is collinear with the axis of the through hole (422). The axis of the through hole (422) is collinear with the axis of the waist hole (112) at the location of the mounting box (3). The locking plate (420) has a locking rod (423) inserted through the second through hole (422). The locking rod (423) has a limit head on its upper side and an external thread rod at its lower end. The locking rod (423) passes through the first through hole (413), the second through hole (422), and the waist hole (112) through the locking plate (420), the mounting box (410), and the silicone sleeve (110) and extends into the threaded blind hole of the connecting plate (130) and is threadedly connected to the connecting plate (130).

8. A flexible arc-shaped floodlight as described in claim 5, characterized in that: The inner front wall and inner rear wall of the mounting component (510) are respectively provided with a guide groove (512) from one end near the mounting assembly (200) to the opposite side, and the end of each guide groove (512) extends outward through the mounting component (510) to form a fixing hole (511). The width of the guide groove (512) matches the width of the outer end of the card head (223). The guide rail body (520) is set with an open opening on the side close to the flexible floodlight assembly (100), and the cross-section of the guide rail body (520) and the card holder (510) are both U-shaped. The guide rail body (520) is provided with a rectangular slot (521) near the push plate (231). The width of the rectangular slot (521) is greater than the width of the push plate (231). The number and distribution of the rectangular slots (521) are matched with the number and distribution of the push plates (231).

Images