KR200456560Y1

KR200456560Y1 - Light emitting mozaiq display system

Info

Publication number: KR200456560Y1
Application number: KR2020110008233U
Authority: KR
Inventors: 조영래
Original assignee: 주식회사 한화미
Priority date: 2011-09-09
Filing date: 2011-09-09
Publication date: 2011-11-07

Abstract

The present invention relates to a mosaic display system. In particular, it relates to a light emitting mosaic display system that emits light in a display direction. One embodiment of the luminescent mosaic display system according to the present invention has a plurality of mosaic cells, each of which is graphicly processed such that each unit graphic constituting the entire graphic is viewed from the front, and at least some of the plurality of mosaic cells A mosaic cell combination between the mosaic cell and the mosaic cell; And an illumination device for irradiating light toward at least one side of the mosaic cell combination to illuminate the light diffused portion.

Description

Light emitting mosaic display system {LIGHT EMITTING MOZAIQ DISPLAY SYSTEM}

The present invention relates to a mosaic display system. In particular, it relates to a light emitting mosaic display system that emits light in a display direction.

The mosaic display device is a device generally used for advertisement or exhibition.

Conventional mosaic advertising device is the Republic of Korea Utility Model Registration No. 20-0181460. Such a conventional mosaic advertisement apparatus is designed to represent a whole graphic by combining a plurality of mosaic cells in which a unit graphic is expressed.

In other words, by expressing a unit graphic in each mosaic cell and combining them, the entire advertisement is expressed. Such a conventional mosaic display device requires a separate lighting device for use at night, and is implemented in a way to irradiate toward the display surface from the front upper side or the side in the irradiation direction.

The present invention provides a mosaic display system including an illumination device.

It also provides a mosaic display system capable of emitting light in the display direction.

One embodiment of the luminescent mosaic display system according to the present invention has a plurality of mosaic cells, each of which is graphicly processed such that each unit graphic constituting the entire graphic is viewed from the front, and at least some of the plurality of mosaic cells A mosaic cell combination between the mosaic cell and the mosaic cell; And an illumination device for irradiating light toward at least one side of the mosaic cell combination to illuminate the light diffused portion.

Each of the plurality of mosaic cells may be made to be transparent from the front to the back, and the unit graphic may be graphicly processed on the front or the back.

In addition, each of the plurality of mosaic cells may be coated with a protective layer on the graphic surface, the back of the protective layer may have an adhesive layer coated with an adhesive.

The light diffusion treatment may be achieved by placing a light diffusion resin between the mosaic cell and the mosaic cell. The light diffusion resin may include a translucent resin generally used.

The light diffusion resin may include an adhesive resin for bonding the mosaic cell and the mosaic cell.

On the other hand, the lighting device may include at least four lights to illuminate toward the four sides of the mosaic cell combination.

The light irradiated by the lighting device penetrates the mosaic cell to the side, and passes through the light diffused portion and partially reflects and diffuses. Some of the reflected light may be irradiated toward the front or the rear. As such, the display system may emit light in the display direction due to the light irradiated toward the front or the rear of the mosaic cell.

A light emitting mosaic display system capable of emitting light in the display direction can be provided.

The displayed graphic can be displayed evenly.

The display system can be made thinner than lighting from the rear to the front.

In addition, since the light is not directly irradiated from the rear to the front, light emission can be made lightly, and eye fatigue is less even when the graphic is closely observed.

1 shows an embodiment according to the present invention.
Figure 2 shows a cross section of the embodiment of figure 1;
3 shows a partial cross-sectional view of FIG. 2.

First, Figure 1 shows an embodiment of a light emitting mosaic display system 100 according to the present invention.

The display system 100 of FIG. 1 includes a mosaic cell combination 10 in which a plurality of mosaic cells 10a to 10g are combined, and a frame accommodating the mosaic cell combination 10.

The unit graphic is represented in each mosaic cell 10a-10g. The mosaic cells 10a to 10g are combined with each other to represent the entire graphic. 1 shows an example in which individual mosaic cells 10a to 10g are combined to represent an automobile.

The unit graphic is represented in the mosaic cells 10a to 10g so as to be seen from the front. The mosaic cells 10a to 10g may be transparent or translucent with respect to the front-rear direction (direction connecting the front and the back). When transparent to the front and rear, the unit graphic may be represented on the back side of the mosaic cells 10a to 10g. In the case of semi-transparent, the unit graphic may be advantageously expressed on the front surface of the mosaic cells 10a to 10g for clear image representation.

The mosaic cells 10a to 10g may be made of a transparent material that can pass light even though it is not completely transparent to the front and rear directions. However, it may be advantageous for the graphic effect to be almost completely transparent to the front and rear directions.

On the other hand, in the mosaic cell combination 10 in which the mosaic cells 10a to 10g are provided and combined, light diffusion processing is performed in the lateral direction. To this end, light diffusion may be performed between the mosaic cells 10a to 10g and the mosaic cells 10a to 10g. The light diffusion treatment in the lateral direction is for reflecting a part of light when the illumination is irradiated in the lateral direction to produce a light diffusion effect.

When the illumination 40a irradiated in the lateral direction passes through the light diffused portion, the light is reflected and diffused so that the light 40c is reflected toward the front or the back of the mosaic cells 10a to 10g. As a result, the mosaic cell combination 10 emits light toward the front.

Illumination devices 40 and 41 are installed in the frame to irradiate the light in the lateral direction.

The lighting devices 40 and 41 include lights installed at least one of the four sides of the lighting device 40, 41.

That is, lighting is installed in each of the left frame 31, the right frame 30, the upper frame 33, and the lower frame 32, respectively. The illumination is preferably LED lighting.

2 shows a partial cross-sectional view. As shown in Fig. 2, there are left side lights 41 and right side lights 40, in which mosaic cells 10a to 10g are arranged and irradiated laterally from their left and right sides.

Since the light diffusion process is performed between the mosaic cell 10b and the mosaic cell 10c, as shown in FIG. 2, the light 40a irradiated from the right side light 40 causes the first mosaic cell 10c to be exposed. When passing through to reach the translucent portion 11, some light 40b passes and some light 40c is reflected toward the front or the rear.

In this way, even if the light is irradiated from the side by the light reflection or light diffusion phenomenon, the light may come forward.

The light diffusion resin 11 may be used between the mosaic cell 10b and the mosaic cell 10c for the light diffusion process. The light diffusion resin 11 may have adhesiveness. Thus, the mosaic cell 10b and the mosaic cell 10c may be bonded to each other.

Alternatively, a translucent film (not shown) may be inserted between the mosaic cell 10b and the mosaic cell 10c for the light diffusion process.

The light diffusion treatment is to direct the light irradiated laterally to the front or the rear. Thus, a method other than the above may be used if such an object can be achieved. For example, the mosaic cells 10a to 10g themselves may be made of a light diffusing material. That is, the mosaic cells 10a to 10g itself may be made using a translucent plastic resin. Alternatively, light diffusion may be induced by roughening the surface of the side surfaces of the mosaic cells 10a to 10g.

When the mosaic cells 10a to 10g themselves are made of translucent resin, it is advantageous for the graphic to be processed on the front part for a clear image effect.

Meanwhile, the mosaic cells 10a to 10g itself may be made of transparent glass. In this case, the graphic may be processed on the back side of the mosaic cells 10a to 10g. When viewed from the front, the graphic processed on the back side is seen through glass, so that the graphic to be displayed can be made more elegant. In particular, when displaying a work of art rather than a simple advertisement can be added to the luxurious image.

3 shows a case where the graphic processing is performed on the back surface of the mosaic cells 10a to 10g.

As shown in Fig. 3, a translucent resin 11 is interposed between the mosaic cell 10b made of glass and the mosaic cell 10c for light diffusion treatment. The translucent resin 11 has adhesiveness, and also serves to bond the mosaic cell 10b and the mosaic cell 10c to each other.

The mosaic cells 10a to 10g are attached to the rear frame through an adhesive. At this time, the protective layers 13b and 13c may be formed to protect the processed graphics on the back side. In other words, the protective layers 13b and 13c may be formed on the rear surfaces of the rear graphic surfaces 12b and 12c, and the protective layers 13b and 13c may be adhered to the rear frame 20 with an adhesive. Accordingly, the rear portion of the mosaic cells 10a to 10g has graphic layers 12b and 12c which have been processed, protective layers 13b and 13c for graphic protection, and adhesive layers 14b and 14c for adhesion.

As the protective layers 13b and 13c, a white protective paint generally used may be used.

In the light emitting mosaic display system 100 according to the above-described embodiment, the front surface of the mosaic cell combination 10 is emitted by the illumination devices 40 and 41 that laterally illuminate the mosaic cell combination 10 so that the front view of the mosaic cell combination 10 is viewed from the front. When the display effect of the image stand out.

It is possible to make the display system 100 thinner than by illuminating the lights from the rear to the front. In addition, since it is not a method of directly irradiating light from the rear to the front, light emission can be made lightly, and eye fatigue is less even when the graphic is closely observed.

10: mosaic cell combination
10a-10g: mosaic cell
11: Light diffusion resin
12b, 12c: graphic layer
13b, 13c: protective layer
14b, 14c: adhesive layer
20: rear frame
30: right frame
31: left frame
32: lower frame
33: upper frame
40, 41: lighting
40a: light
40b: light transmitted
40c: reflected light
100: emitting mosaic display system

Claims

A plurality of mosaic cells, each of which is graphicly processed so that each unit graphic is viewed from the front, are combined and installed to form one whole graphic, wherein at least some of the mosaic cells and each side of the mosaic cell are interposed. Mosaic cell combinations having a diffusion resin interposed therebetween; And
An illumination device positioned on at least one side of the mosaic cell combination so as to illuminate the light diffused portion to irradiate light toward one side of the mosaic cell combination;
Light emitting mosaic display system comprising a.

The light emitting mosaic display system of claim 1, wherein each of the plurality of mosaic cells is made to be transparent between a front surface and a back surface, and the unit graphic is graphicly processed on the front surface or the back surface.

The light emitting mosaic display system of claim 2, wherein each of the plurality of mosaic cells has a protective layer that protects the graphic surface of the graphic processed back surface and an adhesive layer formed on the back surface of the protective layer.

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The light emitting mosaic display system of claim 1, wherein the light diffusion resin comprises an adhesive resin for adhering the mosaic cell to the mosaic cell.

4. A luminescent mosaic display system according to any one of the preceding claims, wherein said illumination device comprises at least four illuminations for illumination towards four sides of said mosaic cell combination.

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