Multi-color silica gel frame structure integrating light emitting and corrosion prevention

Abstract

The utility model discloses a multi-color silica gel frame structure integrating light emitting and corrosion prevention, which comprises a mirror body, a silica gel ring, a lamp belt, a control module and a hanging buckle, the lamp belt and the silica gel ring are annular rings, the inner side of the silica gel ring wraps the outer edge of the mirror body, the outer side of the silica gel ring wraps the inner edge of the lamp belt, and the control module is arranged on the hanging buckle. The lamp strip is detachably connected with the silica gel ring, light of the lamp strip is emitted outwards through the peripheral face of the silica gel ring, the control module and the hanging buckle are both located on the back face of the mirror body, and the control module is arranged at the lower end of the mirror body. An opening is formed in the position, close to the control module, of the silica gel ring so that the control module can be electrically connected with the lamp strip conveniently. According to the multi-color silica gel mirror frame structure integrating light emitting and corrosion prevention, the situation that the edge of the mirror body is corroded can be relieved, and daily maintenance of a user is facilitated; and silica gel rings or lamp strips with different colors can be replaced, so that the overall appearance of the mirror lamp is more diversified, and the user experience is improved.

Description

Technical Field

[0001] This utility model relates to the field of mirror lamp technology, and in particular to a multi-color silicone mirror frame structure that integrates light emission and corrosion protection. Background Technology

[0002] Traditional mirrors have a relatively simple function, but as people's living standards improve, the demand for multifunctional mirrors is increasing. Currently, mirror lights that combine traditional mirrors with lighting are appearing on the market. These mirror lights are widely used in bathrooms, dressing rooms, and other similar settings. Due to their versatility and decorative appeal, mirror lights are very popular.

[0003] However, when mirror lights are used in a humid environment for a long time, mold and mildew are prone to appear, especially on the edges of the mirror. This not only affects the overall appearance of the mirror light, but also breeds bacteria, posing hygiene and safety issues.

[0004] Furthermore, as decorative items, mirror lamps lack novelty with unchanging designs and are difficult to integrate into diverse usage scenarios, affecting user experience and hindering product market expansion.

[0005] Therefore, it is necessary to improve existing technologies. Utility Model Content

[0006] This utility model aims to at least partially solve one of the problems existing in the existing related technologies. To this end, this utility model proposes a multi-color silicone frame structure that integrates light emission and corrosion protection, which can slow down the corrosion of the lens edge.

[0007] The above objective is achieved through the following technical solution:

[0008] A multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance includes an eyeglass body, a silicone ring, a light strip, a control module, and a hook. The light strip and the silicone ring are annular rings. The inner circumference of the silicone ring completely surrounds the outer edge of the eyeglass body, and the outer circumference of the silicone ring completely surrounds the inner edge of the light strip. The light strip and the silicone ring are detachably connected. The light from the light strip is emitted outwards through the outer circumference of the silicone ring. The control module and the hook are both located on the back of the eyeglass body. The control module is positioned at the lower end of the eyeglass body. The silicone ring has an opening near the control module to facilitate electrical connection between the control module and the light strip.

[0009] In some embodiments, the inner side of the silicone ring is provided with a first mounting groove that is detachably connected to the lens body. The first mounting groove includes a first sidewall on the front of the lens body and a second sidewall on the back of the lens body. The height of the first sidewall is greater than that of the second sidewall, forming an asymmetrical sidewall structure. This asymmetrical sidewall structure can achieve directional positioning of the lens body. The outer corner of the second sidewall is rounded.

[0010] In some embodiments, the outer side of the silicone ring is provided with a second mounting groove that is detachably connected to the light strip. The second mounting groove includes a third sidewall on the front of the mirror body and a fourth sidewall on the back of the mirror body. The third sidewall and the fourth sidewall are at the same height, and both the third sidewall and the fourth sidewall have a slope at their ends that cooperates with the light strip.

[0011] In some embodiments, the bottom surface and both sides of the light strip are adapted to the second mounting groove, so that the light strip and the second mounting groove are interference fit.

[0012] In some embodiments, the bottom surface of the second mounting groove is larger than the bottom surface of the first mounting groove, and the area formed between the back of the mirror body and the second mounting groove is used to install the control module and the hook.

[0013] In some embodiments, the front of the silicone ring is curved from the outside in.

[0014] In some embodiments, the hooks include two hooks, which are symmetrically located at both ends of the upper part of the mirror body. Each hook includes a positioning plate, an arched plate is stamped on the positioning plate, the arched plate protrudes from the positioning plate, and a hanging hole is formed between the arched plate and the positioning plate. Several protrusions extending vertically are stamped on the positioning plate, and downwardly inclined guide rails are provided on both sides of the protrusions.

[0015] In some embodiments, a touch control module is provided on the mirror body, and the touch control module is electrically connected to the control module.

[0016] Compared with the prior art, the present invention has at least the following beneficial effects:

[0017] This invention provides a multi-color silicone eyeglass frame structure that integrates light emission and corrosion protection. It not only slows down the corrosion of the eyeglass edges and facilitates daily maintenance for users, but also allows for the replacement of silicone rings or light strips of different colors, making the overall appearance of the eyeglass more diverse and thus improving the user experience. Attached Figure Description

[0018] Figure 1 This is a three-dimensional schematic diagram of the multi-color silicone frame structure in the embodiment;

[0019] Figure 2 This is a front view of the multi-color silicone frame structure in the embodiment;

[0020] Figure 3 This is a cross-sectional view of the multi-color silicone frame structure in the embodiment;

[0021] Figure 4 yes Figure 3 A magnified view of part A in the middle;

[0022] Figure 5 This is a rear view of the multi-color silicone frame structure in the embodiment;

[0023] Figure 6 yes Figure 5 A magnified view of part B in the middle section.

[0024] In the diagram: 1. Mirror body; 2. Silicone ring; 3. Light strip; 4. Control module; 5. Hook; 51. Positioning plate; 511. Arched plate; 512. Protrusion; 513. Guide rail; 6. Opening; 7. First mounting groove; 71. First side wall; 72. Second side wall; 721. Outer corner; 8. Second mounting groove; 81. Third side wall; 82. Fourth side wall; 83. Slope; 9. Touch control module. Detailed Implementation

[0025] The following embodiments illustrate the present invention, but the present invention is not limited to these embodiments. Modifications to the specific implementation of the present invention or equivalent substitutions for some technical features, without departing from the spirit of the present invention, should all be covered within the scope of the technical solution claimed by the present invention.

[0026] like Figures 1 to 6 As shown, a multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance includes an eyeglass body 1, a silicone ring 2, a light strip 3, a control module 4, and a hook 5. The light strip 3 and the silicone ring 2 are annular rings. The inner circumference of the silicone ring 2 completely surrounds the outer edge of the eyeglass body 1, and the outer circumference of the silicone ring 2 completely surrounds the inner edge of the light strip 3. The light strip 3 and the silicone ring 2 are detachably connected. The light from the light strip 3 is emitted outward through the outer circumference of the silicone ring 2. The control module 4 and the hook 5 are both located on the back of the eyeglass body 1. The control module 4 is placed at the lower end of the eyeglass body 1. The silicone ring 2 has an opening 6 near the control module 4 to facilitate electrical connection between the control module 4 and the light strip 3.

[0027] This utility model provides a multi-color silicone frame structure that integrates light emission and corrosion protection. It not only slows down edge corrosion of the mirror body, facilitating daily maintenance, but also allows for the replacement of silicone rings or LED strips of different colors, diversifying the overall appearance of the mirror and improving the user experience. The silicone ring 2 wraps around the edge of the mirror body 1, and the replaceable silicone ring 2 is used for the installation of the LED strip 3, thereby achieving the purpose of slowing down edge corrosion and diversifying the appearance of the mirror.

[0028] Specifically, the silicone ring 2 has a first mounting groove 7 on its inner side, which is detachably connected to the lens body 1. The first mounting groove 7 includes a first sidewall 71 on the front of the lens body 1 and a second sidewall 72 on the back of the lens body 1. The height of the first sidewall 71 is greater than that of the second sidewall 72, forming an asymmetrical sidewall structure. This asymmetrical sidewall structure can achieve directional positioning of the lens body 1, allowing merchants / users to quickly install the lens body 1 when replacing the silicone ring 2. The outer corner 721 of the second sidewall 72 is rounded. This prevents users from being scratched when touching the back of the lens body 1 when hanging up the device or replacing the silicone ring 2, thus improving safety.

[0029] Furthermore, the outer side of the silicone ring 2 is provided with a second mounting groove 8 that is detachably connected to the light strip 3. The second mounting groove 8 includes a third sidewall 81 on the front of the mirror body 1 and a fourth sidewall 82 on the back of the mirror body 1. The third sidewall 81 and the fourth sidewall 82 are at the same height, and both the third sidewall 81 and the fourth sidewall 82 have a slope 83 at their ends that cooperates with the light strip 3. This design is beneficial to the contact between the light strip 3 and the silicone ring 2. In particular, the design of the slope 83 maximizes the light-emitting area of ​​the light strip 3 and reduces the thickness of the ends of the silicone ring 2, allowing the light from the light strip 3 to be emitted outward as much as possible.

[0030] Preferably, the bottom surface and both sides of the light strip 3 are adapted to the second mounting groove 8, so that the light strip 3 and the second mounting groove 8 are interference-fitted. This ensures that the light strip 3 is securely mounted on the silicone ring 2.

[0031] Furthermore, the bottom surface of the second mounting groove 8 is larger than the bottom surface of the first mounting groove 7, and the area formed between the back of the mirror body 1 and the second mounting groove 8 is used to install the control module 4 and the hook 5. The hook 51, control module 4, and other components on the back of the mirror body are hidden in this area, making the overall appearance of this utility model more complete.

[0032] Furthermore, the silicone ring 2 has a curved surface from the outside in. This not only helps to focus light on the mirror surface but also makes the front of the mirror more aesthetically pleasing.

[0033] Furthermore, the hooks 5 include two, symmetrically located at both ends of the upper part of the mirror body 1. Each hook 5 includes a positioning plate 51, on which an arched plate 511 is stamped. The arched plate 511 protrudes from the positioning plate 51, and a hanging hole is formed between the arched plate 511 and the positioning plate 51. Several vertically extending protrusions 512 are stamped on the positioning plate 51, and downwardly inclined guide rails 513 are provided on both sides of the protrusions 512. This allows the user to easily feel the position of the hook when holding the mirror body from the front, thus enabling quick and accurate installation of the mirror body.

[0034] Furthermore, a touch control module 9 is provided on the lens body 1, and the touch control module 9 is electrically connected to the control module 4. This allows users to operate the lens body according to their individual needs.

[0035] The above descriptions are merely some embodiments of this utility model. For those skilled in the art, various modifications and improvements can be made without departing from the inventive concept of this utility model, and all such modifications and improvements fall within the protection scope of this utility model.

Claims

1. A multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance, characterized in that, The device includes a mirror body (1), a silicone ring (2), a light strip (3), a control module (4), and a hook (5). The light strip (3) and the silicone ring (2) are annular rings. The inner circumference of the silicone ring (2) completely surrounds the outer edge of the mirror body (1), and the outer circumference of the silicone ring (2) completely surrounds the inner edge of the light strip (3). The light strip (3) and the silicone ring (2) are detachably connected. The light from the light strip (3) is emitted outward through the outer circumference of the silicone ring (2). The control module (4) and the hook (5) are both located on the back of the mirror body (1). The control module (4) is placed at the lower end of the mirror body (1). The silicone ring (2) has an opening (6) near the control module (4) to facilitate the electrical connection between the control module (4) and the light strip (3).

2. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 1, characterized in that: The silicone ring (2) has a first mounting groove (7) on its inner side that is detachably connected to the lens body (1). The first mounting groove (7) includes a first sidewall (71) on the front of the lens body (1) and a second sidewall (72) on the back of the lens body (1). The height of the first sidewall (71) is greater than that of the second sidewall (72), forming an asymmetrical sidewall structure. This asymmetrical sidewall structure can achieve directional positioning of the lens body (1). The outer corner (721) of the second sidewall (72) is rounded.

3. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 2, characterized in that: The silicone ring (2) has a second mounting groove (8) on its outer side that is detachably connected to the light strip (3). The second mounting groove (8) includes a third sidewall (81) on the front of the mirror body (1) and a fourth sidewall (82) on the back of the mirror body (1). The third sidewall (81) and the fourth sidewall (82) are at the same height, and both the third sidewall (81) and the fourth sidewall (82) have a slope (83) at their ends that cooperate with the light strip (3).

4. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 3, characterized in that: The bottom and sides of the light strip (3) are adapted to the second mounting groove (8) so that the light strip (3) and the second mounting groove (8) are interference fit.

5. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 4, characterized in that: The bottom surface of the second mounting groove (8) is larger than the bottom surface of the first mounting groove (7), and the area formed between the back of the mirror body (1) and the second mounting groove (8) is used to install the control module (4) and the hook (5).

6. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 4, characterized in that: The silicone ring (2) has a curved surface formed from the outside to the inside.

7. A multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to any one of claims 1-6, characterized in that: The hook (5) includes two hooks, which are symmetrically located at both ends of the upper part of the mirror body (1). The hook (5) includes a positioning plate (51). An arched plate (511) is formed by stamping on the positioning plate (51). The arched plate (511) protrudes from the positioning plate (51) and a hanging hole is formed between the arched plate (511) and the positioning plate (51). Several protrusions (512) extending vertically are formed by stamping on the positioning plate (51), and downward inclined guide rails (513) are provided on both sides of the protrusions (512).

8. The multi-color silicone eyeglass frame structure integrating light emission and corrosion resistance according to claim 7, characterized in that: A touch control module (9) is provided on the mirror body (1), and the touch control module (9) is electrically connected to the control module (4).

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