lamp mirror

Abstract

This utility model discloses a lamp mirror, including a mirror body and a frame located on the back of the mirror body. The inner wall of the frame body is inclined outward or gradually curved outward to form a reflective wall. A light source is provided on the frame body opposite the reflective wall. The mirror body is connected to the frame body. A light-transmitting layer is provided on the outer periphery of the mirror body. The light-transmitting layer is located in front of the reflective wall. The light emitted from the light source is reflected by the reflective wall, reaches the light-transmitting layer, and is emitted from the light-transmitting layer. From a longitudinal section perspective, the thickness of the frame body gradually decreases from the center to the outer periphery. This utility model not only enhances the lighting effect but also achieves an ultra-thin visual effect.

Description

Technical Field

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

[0002] A lamp mirror is a new type of smart home product. Its structure typically consists of a mirror body with lamps mounted around its perimeter or on its back. The lamps not only provide illumination but also beautify the interior. Because of the lamps, a back frame is required to house the lamps and related accessories. Currently, most lamp mirrors on the market have light-transmitting gaps between the back frame and the mirror body. This structure causes some light to leak out through the gaps, resulting in a loss of light output. Utility Model Content

[0003] The purpose of this utility model is to design a lamp mirror to overcome the shortcomings of the above-mentioned technology.

[0004] This utility model designs a lamp mirror, including a mirror body and a frame located on the back of the mirror body. The inner wall of the frame body is inclined outward or gradually curved outward to form a reflective wall. A light source is provided on the frame body opposite to the reflective wall. The mirror body is connected to the frame body. A light-transmitting layer is provided on the outer periphery of the mirror body. The light-transmitting layer is located in front of the reflective wall. The light emitted from the light source is reflected by the reflective wall and reaches the light-transmitting layer and is emitted from the light-transmitting layer. From a longitudinal section perspective, the thickness of the frame body gradually decreases from the middle to the outside along the periphery.

[0005] Preferably, the frame has an inner circumference at opposite locations on its outer periphery, and the light source is disposed on the inner circumference of the frame facing the reflective wall. The frame also includes a base plate, and the base plate, outer periphery, and inner circumference together form a cavity with a forward-facing opening. The mirror body is fitted onto the opening of the cavity.

[0006] Further optimization involves coating the reflective wall with a reflective layer to create a reflective effect.

[0007] Further optimization involves using an opaque material for the outer perimeter and bottom plate of the frame, or coating the inner wall with an opaque layer.

[0008] Further optimization involves using light-transmitting or semi-light-transmitting materials for the outer perimeter and bottom plate of the frame.

[0009] Further optimization involves making the shape of the outer contour of the frame the same as the outer contour of the mirror.

[0010] Further optimization involves the outer edge of the periphery forming contact with the mirror body.

[0011] Further optimization involves the frame comprising an outer perimeter, a bottom plate, and an inner perimeter, all of which extend circumferentially to form a ring-shaped structure.

[0012] The technical advantage of this invention is that the frame is fixedly connected to the back of the mirror. The outer perimeter of the frame is inclined outward or has a gradually curved surface, achieving an ultra-thin visual effect and enhancing the aesthetics of the mirror. Its inner wall forms a reflective wall with a reflective effect. The frame has an inner circumference in the radial direction relative to the reflective wall, with a certain distance between the inner circumference and the reflective wall. A light source is provided on the inner circumference. The outer perimeter, inner circumference, and the base plate between the outer perimeter and inner circumference form a cavity with an opening facing forward. The mirror is located in front of the frame, making... The back of the mirror body is placed over the opening, thus forming a closed cavity. The outer perimeter of the mirror body, that is, the reflective wall, faces forward and is the light-transmitting layer. The light reflected by the reflective wall reaches the light-transmitting layer, and then is refracted and emitted out. The reflective wall can be opaque, light-transmitting, or semi-light-transmitting. The opaque reflective wall reflects the light, while the light-transmitting or semi-light-transmitting reflective wall reflects and refracts the light. Both methods are acceptable. Light will not leak out of the cavity, reducing unnecessary light loss, increasing the light output rate, and thus enhancing the lighting effect. Attached Figure Description

[0013] Figure 1 This is a front view of the overall structure of this utility model;

[0014] Figure 2 This is a rear view of the overall structure of this utility model;

[0015] Figure 3 This is an exploded view of the overall structure of this utility model;

[0016] Figure 4 This is a cross-sectional view of the overall structure of this utility model;

[0017] Figure 5 This is a schematic diagram of the light reflection path in Example 1;

[0018] Figure 6 This is a schematic diagram of the light reflection path in Example 2.

[0019] In the diagram: 1. Mirror body; 11. Light-transmitting layer; 2. Frame; 21. Outer perimeter; 22. Reflective wall; 23. Inner perimeter; 24. Light source; 25. Base plate; 26. Cavity; 27. Outer edge; 28. Mounting part. Detailed Implementation

[0020] 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. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model are within the protection scope of the present utility model.

[0021] Example 1

[0022] This utility model includes a mirror body 1 and a frame 2 located on the back of the mirror body 1. The frame 2 is connected to the back of the mirror body 1. The inner wall of the outer periphery 21 of the frame 2 is inclined outward or has a gradually curved surface to form a reflective wall 22. The outer edge 27 of the outer periphery 21 abuts against the mirror body 1. The frame 2 has an inner periphery 23 opposite to the outer periphery 21. The surface of the inner periphery 23 facing the reflective wall 22 is a vertical surface and has a light source 24. The light source 24 is usually a light strip. The light strip is arranged along the extension direction of the inner periphery 23. The mirror body 1 covers the front of the frame 2. The mirror body 1 has a light-transmitting layer 11 at a corresponding position on its periphery. The light-transmitting layer 11 has a certain width and surrounds the periphery of the mirror body 1, allowing light to pass through. Layer 11 is located in front of reflective wall 22, and a certain distance is formed between light-transmitting layer 11 and reflective wall 22. Light source 24 is also a certain distance from reflective wall 22. Light source 24 is located in the direction inward of reflective wall 22. The light emitted by light source 24 reaches reflective wall 22 forward. After being reflected by reflective wall 22, the light reaches light-transmitting layer 11, and then is refracted by light-transmitting layer 11 and emitted to play an illumination role. The light is reflected by reflective wall 22, so that most of the light can be concentrated and reflected to light-transmitting layer 11, thereby increasing the amount of light used for illumination and improving the light output rate. The light output rate is the proportion of the amount of light used for illumination to the amount of light emitted by light source 24, reducing light waste and loss.

[0023] It should be noted that when the reflector wall 22 is set with a gradually curved surface outward, the longitudinal cross-section of the reflector wall 22 is a smooth curved surface wall with a gradually curved shape outward. The curvature of the reflector wall 22 is relatively gentle, and it reflects the pipeline from the light source 24 at a large angle range, thereby reducing light loss and improving the light output rate.

[0024] From a longitudinal section perspective, the thickness of the frame 2 gradually decreases from the center to the outside along the perimeter 21 to achieve an overall ultra-thin visual effect.

[0025] Furthermore, the light-transmitting layer 11 can be made of transparent materials, such as glass, quartz, and acrylic, or it can be made of translucent materials, such as frosted glass, quartz, and acrylic with a frosted film applied. Different lighting effects can be achieved depending on the material.

[0026] Furthermore, the frame 2 also includes a base plate 25. The base plate 25, the outer perimeter 21, and the inner perimeter 23 enclose a cavity 26 with the opening facing forward. In this embodiment, the frame 2 includes the outer perimeter 21, the base plate 25, and the inner perimeter 23. The outer perimeter 21, the base plate 25, and the inner perimeter 23 all extend in the circumferential direction to form a ring-shaped structure. The frame 2 has a hollow center, which makes the structure of the frame 2 simpler and lighter.

[0027] Furthermore, the mirror body 1 covers the opening of the cavity 26, forming a closed cavity 26. In addition, the outer edge 27 of the outer periphery 21 abuts against the mirror body 1, so the light is concentrated in the cavity 26, which increases the brightness in the cavity 26.

[0028] Furthermore, the shape of the outer contour of the frame 2 is the same as the shape of the outer contour of the mirror 1. In this embodiment, the mirror 1 is circular and the frame 2 is annular.

[0029] Furthermore, the reflective wall 22 is coated with a reflective layer to create a reflective effect, or the reflective wall 22 itself is a reflective material, and the reflective layer can be a thin film layer such as mirror silver or mirror aluminum.

[0030] In this embodiment, as shown in the appendix Figure 5 As shown, the outer perimeter 21 and the bottom plate 25 of the frame 2 are made of opaque material or the inner wall is coated with an opaque layer 11. In this way, light will not penetrate the outer perimeter 21 and the bottom plate 25, and can be concentrated in the cavity 26. That is, most of the light can be reflected to the light-transmitting layer 11 through the reflective wall 22, maximizing the amount of light output and improving the lighting effect. The light can be reflected evenly.

[0031] Furthermore, from the perspective of the longitudinal section, the thickness of the frame 2 gradually decreases from the middle to the outside along the periphery 21. This reduces the material cost of the frame 2 and makes the frame 2 lighter. At the same time, the frame 2 is hidden behind the mirror body 1, making the overall appearance more beautiful and simple.

[0032] Furthermore, the light source 24 is an LED light strip, and the inner circumference 23 has a mounting groove. The LED light strip is embedded in the mounting groove, and the LED beads of the LED light strip can protrude from the mounting groove so that the light is not interfered with by the mounting groove.

[0033] Furthermore, the light source 24 also includes electronic components such as a controller and a power interface that are electrically connected to the LED light. Since these are conventional technologies, they will not be described in detail here.

[0034] Furthermore, the frame 2 is an annular frame 2, and the inner circumference 23 of the frame 2 is provided with a light strip. The outer side of the frame 2 relative to the inner circumference 23, that is, the hollow area, is provided with a mounting part 28. The mounting part 28 is integrated with the frame 2 and is hidden in the hollow area of ​​the frame 2. The mounting part 28 can be used as a fixed part to be suspended on the wall. Some electronic components of the light source 24 can be located inside the mounting part 28. This can save space utilization and also prevent the electronic components from interfering with the light strip and interfering with the light.

[0035] Example 2

[0036] The basic content is the same as in Embodiment 1, except that the outer perimeter 21 and the bottom plate 25 of the frame 2 are made of translucent or semi-translucent materials. Translucent materials include glass, quartz, acrylic sheets, etc., while semi-translucent materials include frosted glass, quartz, acrylic sheets, etc., or a frosted film can be applied to a transparent material, as shown in the attached figure. Figure 6 As shown, this allows some of the light emitted by the light source 24 to be refracted from the outer perimeter 21 and the base plate 25, thus forming an ambient light and increasing the atmosphere. Moreover, the thickness of the frame 2 gradually decreases from the inside to the outside along the outer perimeter 21, meaning that the suspended part of the frame 2 can serve as the area for the ambient light without interfering with the ambient light rays, achieving the ambient light effect. Although this method cannot completely reflect the light to increase the light output, the light is not wasted. Part of the light is reflected and part is refracted, allowing the light to be used reasonably to ensure illumination.

[0037] This utility model is not limited to the above-described preferred embodiments. Anyone can derive other forms of products under the guidance of this utility model. However, regardless of any changes made in their shape or structure, any technical solution that is the same as or similar to this application falls within the protection scope of this utility model.

Claims

1. A lamp mirror, characterized in that, The system includes a mirror body (1) and a frame (2) located on the back of the mirror body (1). The inner wall of the outer periphery (21) of the frame (2) is inclined outward or forms a gradually curved surface to form a reflective wall (22). The frame (2) has a light source (24) opposite to the reflective wall (22). The mirror body (1) is connected to the frame (2). The mirror body (1) has a light-transmitting layer (11) at the corresponding position on the outer periphery (21). The light-transmitting layer (11) is located in front of the reflective wall (22). The light emitted by the light source (24) is reflected by the reflective wall (22) and reaches the light-transmitting layer (11) and is emitted from the light-transmitting layer (11). From the perspective of the longitudinal section, the thickness of the frame (2) gradually decreases from the middle to the outside along the outer periphery (21).

2. The lamp mirror of claim 1, wherein The frame (2) has an inner circumference (23) opposite to the outer periphery (21). The light source (24) is set on the inner circumference (23) of the frame (2) facing the reflective wall (22). The frame (2) also includes a bottom plate (25). The bottom plate (25), the outer periphery (21) and the inner circumference (23) enclose a cavity (26) with the opening facing forward. The mirror body (1) is placed over the opening of the cavity (26).

3. The lamp mirror of claim 2, wherein The reflective wall (22) is coated with a reflective layer to create a reflective effect.

4. The lamp mirror of claim 3, wherein The outer perimeter (21) and bottom plate (25) of the frame (2) are made of opaque material or the inner wall is coated with an opaque layer (11).

5. The lamp mirror of claim 3, wherein The outer perimeter (21) and the bottom plate (25) of the frame (2) are made of light-transmitting or semi-light-transmitting material.

6. The lamp mirror according to claim 2, characterized in that, The shape of the outer contour of the frame (2) is the same as the shape of the outer contour of the mirror (1).

7. The lamp mirror according to claim 2, characterized in that, The outer edge (27) of the periphery (21) comes into contact with the mirror body (1).

8. The lamp mirror according to claim 2, characterized in that, The frame (2) includes an outer perimeter (21), a bottom plate (25), and an inner perimeter (23), all of which extend in a circumferential direction to form a ring structure.

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