KR100976366B1 - Display device with light and manufacture method thereof - Google Patents

Abstract

Disclosed is a light emitting display device. The disclosed light emitting display device includes: a screen base portion having a mounting hole along a shape to be projected, a light transmitting cell member expressing color by light inserted into the mounting hole, and a screen base portion into which the light transmitting cell member is inserted; And a support having an area through which light passes, an illumination unit providing light exiting to the light transmitting cell member through the support unit, and a lighting unit moved by a position adjusting unit and a positioning unit for moving the lighting unit in a direction parallel to the supporting unit. And an illumination guide for guiding light to be illuminated only in a limited area of the support.

Floodlight cell member, screen base part, lighting part, lighting guide part, position adjusting part

Description

LIGHT DEVICE WITH LIGHT AND MANUFACTURE METHOD THEREOF

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a light emitting display device and a method of manufacturing the same, and more particularly, to a light emitting display device and a method of manufacturing the same, which can express various images through cell members having various light emitting colors or textures.

In general, a display device provided with an illumination is used to display any pattern or letters in a dark place.

Signboards are mainly used as illuminated displays. The signboard is equipped with a fluorescent lamp on the inside and a translucent acrylic plate or a flex sign plate on the outside, and the acrylic plate is formed with an embossed part coated with colors along the pattern, thereby ensuring visibility even in the dark.

The foregoing invention refers to the background of the art to which the present invention pertains, and does not mean the prior art.

Conventional light emitting display devices improve readability by securing a small number of colors and high illuminance. This ensures uniform illumination and bright saturation throughout the screen. However, this method has difficulty in differentially expressing saturation colors or lighting intensities in the same lighting. In addition, there is a disadvantage that it is difficult to express various depths and adjustments of depth and depth according to the material of the object by using the light transmittance, and it becomes discolored when exposed for a long time. Therefore, unlike the case of signboards that effectively convey simple information, it is required to improve the personality of specific spaces and to express pictorial expressions.

SUMMARY OF THE INVENTION The present invention has been made by the above-mentioned necessity, and has a light emitting display device which can prevent the visibility and aesthetics from being deteriorated by not displaying various concentrations of illumination and displaying only the color of uniform saturation. The purpose is to provide a manufacturing method.

A light emitting display device according to an embodiment of the present invention comprises: a screen base portion having a mounting hole along a shape to be projected, a light emitting cell member expressing color by light inserted into the mounting hole, and a light transmitting cell member; Is supported by the screen base portion is inserted into the support portion provided with light passing through, the light guide to provide the light exiting to the light transmitting cell member through the support portion, the position adjusting portion and position for moving the lighting unit in a direction parallel to the support portion It includes an illumination guide for guiding the light moved by the control unit to be illuminated only in the limited area of the support.

In addition, the screen base portion and the light transmitting cell member are preferably formed on the same plane.

In addition, it is preferable that the light transmitting cell member includes a plurality of cell members classified according to light transmittance, color, and material.

In addition, the support portion is preferably a plurality of support plates including at least one material of the translucent material and the translucent material are combined to form the same plane.

 In addition, the position adjusting unit preferably includes a rail member for guiding the movement path of the lighting unit, a fixing member for restraining the movement of the movable member and the movable member is fixed along the rail member the lighting unit is fixed.

In addition, it is preferable to further include a height adjusting unit for adjusting the height of the lighting unit by adjusting the distance between the rail member and the moving member.

In addition, the height adjusting portion is fixed to one side of the moving member, and the inner side is provided with a first extension piece having a first moving hole of a long hole shape, and a second moving hole installed in contact with the first extension piece and in communication with the first moving hole. The second extension piece and the first extension piece and the second extension piece are in contact with each other, and then the height of the lighting unit is adjusted, and then it is fastened through the first and second moving holes to fix the first extension piece and the second extension piece. It is preferable to include a fastening member.

In addition, the illumination guide portion, it is preferable that the guide partition is formed in a shape surrounding the light source of the illumination unit.

A method of manufacturing a light emitting display device according to an embodiment of the present invention includes: a cell forming step of forming a light transmitting cell member by processing a light transmitting material having a specified color, and forming a mounting hole in the screen base to insert the light transmitting cell member To a light transmitting cell member through a supporting step and a supporting part to fix the screen base portion into which the light transmitting cell member is inserted into the mounting hole, and a screen base portion into which the light transmitting cell member is inserted, by a supporting part having a light emitting portion. It includes a lighting installation step of installing the lighting unit to transmit light.

In addition, the cell forming step includes a design step of drawing a boundary line according to the appearance of the pattern, a classification step of dividing the inside of the boundary into a light emitting cell member having a plurality of colors, and a light emitting cell member corresponding to a color plate classified by colors. It is preferable to include a redesign step of designing to display the shape and a cutting step of cutting along the shape of the light transmitting cell member designed on the color plate.

In addition, in the supporting step, it is preferable that a plurality of supporting plates including at least one material of the translucent material and the translucent material are successively combined to form the same plane.

According to another exemplary embodiment of the present invention, there is provided a light emitting display device comprising: a display unit in which a color is expressed by light emitted by a light-transmitting cell and a non-light-transmissive cell, a support unit having a portion for supporting the screen unit and passing light; And a lighting unit for providing light to the translucent cell through the support, a position adjusting unit for moving the lighting unit in a direction parallel to the supporting unit, and a light guiding so that the light of the lighting unit moved by the position adjusting unit is illuminated only in a limited area of the supporting unit. It includes a guide.

In addition, it is preferable to further include an intermediate member having one end inserted into the non-transparent cell and the other end inserted into the support part to fix the non-transparent cell to the support part.

In addition, an intermediate auxiliary plate for thickness control is further provided on the rear side of the non-translucent cell, and the translucent cell is preferably made of colored glass, and the non-transmissive cell is preferably made of stainless steel plate.

In addition, the support portion is preferably a plurality of support plates including at least one material of the translucent material and the translucent material are combined to form the same plane.

In addition, the position adjusting unit preferably includes a rail member for guiding the movement path of the lighting unit, a fixing member for restraining the movement of the movable member and the movable member is fixed along the rail member the lighting unit is fixed.

In addition, it is preferable to further include a height adjusting unit for adjusting the height of the lighting unit by adjusting the distance between the rail member and the moving member.

In addition, the height adjusting portion is fixed to one side of the moving member, and the inner side is provided with a first extension piece having a first moving hole of a long hole shape, and a second moving hole installed in contact with the first extension piece and in communication with the first moving hole. It is preferable to include a fastening member for fixing the first extension piece and the second extension piece by being fastened through the second moving piece of the second extension piece and the first extension piece and the second moving hole of the second extension piece.

In addition, the illumination guide portion, it is preferable that the guide partition is installed surrounding the light source of the illumination portion.

According to another aspect of the present invention, there is provided a method of manufacturing a light emitting display device, including: a drawing step of creating a drawing, a cell classification step of dividing the drawing into a plurality of cells, and individually assigning properties corresponding to the cells; A redesigning step of reconstituting the cell shape in the layer according to the cell classification by tying together, a cutting step of cutting according to the cell shape designed in the layer, and an assembly step of assembling the cell to a support having a portion where light is transmitted according to the drawing And an illumination installation step of installing an illumination unit such that light is transmitted to the cell through the support unit.

In addition, between the redesigning step and the cutting step, it is preferable to further include an arrangement step of rotating each cell pattern in the layer so that the grain direction of the cells provided in the layer using the stainless steel plate among the layers to face the same direction.

In addition, the cell preferably includes a light transmitting cell through which light is transmitted and a non-light transmitting cell through which light is not transmitted.

As described above, the light emitting display device and its manufacturing method according to the present invention, unlike the conventional invention, by varying the intensity of the screen by the selective use of the cell member to express a variety of colors with the brightness and saturation of the screen portion By providing visibility and aesthetics can be improved.

In addition, the present invention can reduce the production cost by minimizing the loss of material by re-assembling after re-assembling the pieces of the cells forming the shape by attributes.

Hereinafter, an embodiment of a light emitting display device and a method of manufacturing the same will be described with reference to the accompanying drawings. For convenience of explanation, a light emitting display device used for decoration and a manufacturing method thereof will be described as an example. In this process, the thickness of the lines or the size of the components shown in the drawings may be exaggerated for clarity and convenience of description. In addition, terms to be described below are terms defined in consideration of functions in the present invention, which may vary according to the intention or convention of a user or an operator. Therefore, definitions of these terms should be made based on the contents throughout the specification.

1 is an exploded perspective view of a light emitting display device according to an embodiment of the present invention, FIG. 2 is a perspective view of an upper side cut in a state where a portion of the light emitting display device shown in FIG. 1 is coupled, and FIG. 4 is a side cross-sectional view of the light emitting display device shown in FIG. 3, and FIG. 5 is an enlarged perspective view of a part related to the lighting unit shown in FIG. 1. 6 is an exploded perspective view showing other parts except for the lighting guide part in the part shown in FIG. 5.

1 to 4, a light emitting display device according to an embodiment of the present invention includes a screen base portion 10 having a mounting hole 12 and a mounting hole 12 in a shape of a light projecting shape. And a support part 20 having a light transmissive cell member 1, a screen base part 10 into which the light transmissive cell member 1 is inserted, and having a portion through which light passes, An illumination unit 30 that provides light exiting to the light transmitting cell member 1 through the support unit 20, and a position control unit 40 and a position control unit 40 for moving the illumination unit 30 in a direction parallel to the support unit. It includes a lighting guide 50 for guiding the light of the lighting unit 30 moved by) to be illuminated only in a limited area of the support 20.

Light transmitting cell member 1 may be used in a variety of materials and colors within the technical concept for passing the light irradiated from the lighting unit (30). The light transmitting cell member 1 may be used by selecting at least one or more of a transparent material, a translucent material and an opaque material, and preferably, color glass is used as the material of the light transmitting cell member 1.

Transparent materials of the light transmitting cell member 1 may be made of materials such as glass or acrylic, and translucent materials may be made of materials such as color glass and color acrylic, and opaque materials such as stone, metal plate, opaque glass, and color acryl. Material is used.

In addition, the light transmitting cell member 1 preferably includes a plurality of cell members classified by color. The light transmitting cell member 1 is formed by distributing a plurality of cells having a predetermined color to form a shape such as a zebra or a shape such as a letter.

It is also an embodiment of the present invention that the light transmitting cell member 1 consists of a single cell member and a single color.

The light transmitting cell member 1 is made of one or two or more pieces, and may be made of several dozen or more pieces in some cases. In addition, each piece of the light transmitting cell member 1 is classified according to the color and the material to be produced by various colors can be represented to improve visibility and aesthetics.

The mounting hole 12 for inserting and fixing the light transmitting cell member 1 is provided in the screen base part 10. The screen base unit 10 may select and use at least one of a transparent material, a translucent material, and an opaque material.

The screen base unit 10 may serve as a function of an interior interior wall of a building, and the screen base unit 10 may be provided in plural to decorate a surface of a three-dimensional object by being installed three-dimensionally.

The light transmitting cell member 1 is fixed by various methods such as being fixed to the screen base portion 10 by being fixed or fixed by an adhesive or by being coupled to the support 20.

The light transmitting cell member 1 may be fixed in various forms, such as being installed into the inside of the screen base or installed out of the screen base. Preferably, the screen base unit 10 and the light transmitting cell member 1 are disposed on the same plane. Is formed.

The screen base unit 10 and the light transmitting cell member 1 are combined to form a screen unit according to an embodiment of the present invention.

The support base 20 for supporting the screen base unit 10 and the light transmitting cell member 1 may be variously modified, such as a part where the light passes through is partially provided or entirely provided.

In addition, the support unit 20 may be made of a single material, or a variety of embodiments may be possible, such as a plurality of light-transmitting materials manufactured as one embodiment and assembled into a single planar shape.

The support 20 is made of a light-transmitting material, it is preferable that a plurality of support plates 22 having a color are combined to form the same plane.

By the plurality of support plates 22 having a color forming the support 20, various colors can be produced.

The support 20 may be used to select at least one or more of a transparent material, a translucent material and an opaque material, preferably using colored glass as the material of the support 20.

As a transparent material of the support part 20, materials such as glass and acrylic are used, and materials such as color glass and color acrylic are used as translucent materials, and materials such as stone, metal plate, opaque glass, and color acrylic are used as opaque materials. Will be used.

The lighting unit 30 is installed in consideration of the configuration of the screen base unit 10 including the light transmitting cell member 1 and the mounting hole 12 and the configuration of the support unit 20 according to the drawing.

The lighting unit 30 is composed of an illuminating body 34 emitting light and an illuminating body 32 in which the illuminating bodies 34 are installed at regular intervals.

The illuminator 34 may be selectively used in various kinds of lights, including LED lighting or light emitting diodes, in a technical concept for producing durable and expressive effects.

The lighting unit 30 may be installed on the lighting back plate 72 or may be installed on the support unit 20, and various embodiments may be possible by illuminating a specific portion of the screen unit by the lighting guide unit 50.

The position adjusting unit 40 for moving the lighting unit 30 in a direction parallel to the supporting unit 20 includes a rail member 42 for guiding a moving path of the lighting unit 30, and the lighting unit 30 is fixed to the rail member. It is preferable to include a moving member 45 moving along the 42 and a fixing member 49 for restraining the movement of the moving member 45.

The movable member 45 is bent on both sides of the body on which the lighting unit 30 is mounted to form the movable groove 47. The moving groove portion 47 is bent in a 'c' shape to the front (left of Fig. 6) is opened to form a moving groove portion 47.

Rail member 42 for guiding the movement path of the lighting unit 30 mounted to the moving member 45 is installed. The rail member 42 is bent in both sides of the '' 'shape of the body to form a fixing groove 44. The fixing groove 44 is open in the direction in which the moving member 45 is installed, and one end of the moving groove 47 is inserted into the fixing groove 44 to be fixed by the fixing member 49.

That is, one end of the moving groove 47 provided on both sides of the moving member 45 may be inserted into the fixing groove 44 to be fixed by the fixing member 49, and to the height adjusting unit 60 as necessary. By adjusting the distance between the movable member 45 and the rail member 42 fixed to the lighting unit 30 to adjust the height of the lighting unit 30.

The height adjusting part 60 is fixed to one side of the moving member 45 and in contact with the first extension piece 62 and the first extension piece 62 having an elongated first moving hole 64 therein. The lighting unit in the state where the second extension piece 66 and the first extension piece 62 and the second extension piece 66 are in contact with each other and provided with a second moving hole 68 communicating with the first moving hole 64. After the height adjustment of the 30 is made and fastened through the first moving hole 64 and the second moving hole 68 to fasten the first extension piece 62 and the second extension piece 66 ( 69).

One side of the first extension piece 62 is fixed to the moving member 45, and one side of the second extension piece 66 is fixed to the rail member 42, and then the first moving hole of the first extension piece 62 is fixed. After installing the 64 and the second moving hole 68 of the second extension piece 66 to communicate with each other, the length of the first extension piece 62 and the second extension piece 66 is adjusted and the fastening member 69 is provided. The height of the lighting unit 30 is achieved by fixing the first extension piece 62 and the second extension piece 66.

The height adjusting unit 60 is an auxiliary tool for illuminating a specific part of the screen unit, and broadens a range of expressions by adjusting the brightness of various lights through the change of the illumination angle reflected on the screen unit.

In addition, the lighting guide 50 serves as a lighting passage that is connected to the lighting unit 30 from the rear side (left side of FIG. 1) of the support unit 20, and its function provides illumination of a special effect to the local part of the screen. It is used to produce bright brightness without the interference of ambient light.

That is, when a flashing light, a light of a specific color, or a light having a specific brightness is provided to a specific part of the screen part consisting of the screen base part 10 and the transparent cell member 1 through the support part 20, the other screen part is provided. In order not to affect the lighting guide 50 is used.

The lighting guide unit 50 is a technical idea that the guide partition is installed surrounding the light source of the lighting unit 30, and in such a technical concept, the lighting guide unit 50 may be manufactured in various shapes including a square tube shape. have.

After the lighting unit 30 is fixed to the movable member 45, the movable member 45 is directly mounted to the rail member 42, or the first and second extension pieces 62 and 66 are connected to the movable member 45. Various implementations are possible, such as being mounted to the rail member 42.

In addition, a separate rail member 43 is provided to surround the lighting body 32 in order to directly mount the lighting unit 30 including the lighting body 34 and the lighting body 32.

The shape of the rail members 42 and 43 may be variously changed within the technical concept for sliding the lighting unit 30.

The lighting back plate 72 for fixing the rail members 42 and 43 and the lighting guide unit 50 has a panel shape, and also serves to reflect the light from the lighting unit 30 to be transmitted to the screen unit through the support unit 20. Done.

In order to increase the reflectance of the light emitted from the lighting unit 30, a reflective material may be applied to the surface of the lighting back board 72.

The screen unit consisting of the light transmitting cell member 1 and the screen base unit 10 and the support unit 20 for supporting the screen unit are fixed to the front of the auxiliary frame 70 having a rectangular frame shape (right of FIG. 1), and guide lighting. The rail member 42 for adjusting the position of the unit 50 and the lighting unit 30 is fixed to the lighting back plate 72 and fixed to the rear of the auxiliary frame 70 (left of FIG. 1).

The auxiliary frame 70 serves as a skeleton in the configuration of the sculpture, and determines the dimensions of the auxiliary frame 70 in consideration of the distance between the lighting unit 30 and the support 20. The material of the auxiliary frame 70 may be used a variety of materials including a metal plate.

The main frame 74 is installed to surround the outer side of the auxiliary frame 70. The main frame 74 serves as a picture frame and provides an aesthetic finishing effect.

The auxiliary frame 70 may be omitted for aesthetic reasons, including a case in which the support 20, the screen base 10, and the light emitting cell member 1 are embedded in a wall for the interior of a building. .

When the light emitting display device is embedded in the wall, the main frame 74 is embedded in the wall, and the auxiliary frame 70 can be easily maintained by the structure detachable from the main frame 74.

A method of manufacturing a light emitting display device according to an embodiment of the present invention having the above configuration will be described.

7 is a flowchart illustrating a method of manufacturing a light emitting display device according to an embodiment of the present invention, and FIG. 8 is a flowchart illustrating a method of manufacturing a cell forming step illustrated in FIG. 7.

A method of manufacturing a light emitting display device according to an embodiment of the present invention has a cell forming step of forming a light transmitting cell member 1 by processing a light transmitting material having a specified color (S10).

The cell forming step has a design step of drawing a boundary line according to the appearance of the pattern (S11). For example, in the case of a zebra, it refers to the task of drawing a boundary along the zebra's appearance.

Then, the inside of the boundary line has a classification step of dividing the light emitting cell member 1 having a plurality of colors (S13).

After partitioning the inner side of the boundary into a plurality of cells, attributes are assigned to each cell. For example, the attributes of the cells to be expressed, such as the direction of grain color of the light cells such as blue or yellow and the material of the cells, are displayed by displaying the unique numbers assigned to each cells.

Such a cell may be made of only the light transmitting cell member 1, and various materials may be used as the cell, including an opaque cell member, as necessary.

Then, it has a redesign step of designing to display the shape of the light-transmitting cell member 1 corresponding to the color plate divided by color (S13).

For example, if the cell is divided into a yellow cell member and a blue sal member, only the yellow cells are collected and redesigned in a yellow color plate, and only the blue cells are collected and redesigned in a blue color plate. .

If a metal material or another material is used instead of the light transmitting cell member 1, the cell corresponding to the layer of the corresponding material is redesigned.

Then, it has a cutting step of cutting along the shape of the light transmitting cell member 1 designed in the color plate (S17).

Cutting can be done either manually or automatically, and cutting methods such as waterjet, laser or CNC processing using a computer are preferred.

Then, it has a processing step of forming a mounting hole 12 in the screen base portion 10 for the light transmitting cell member 1 is inserted (S20).

The screen base part 10 may be formed of an opaque material, or the screen base part 10 may be formed of a light transmissive material or a translucent material.

The screen base unit 10 may be used as an interior wall, and the screen base unit 10 may be three-dimensionally coupled to form a surface of a three-dimensional object.

Then, the light transmitting cell member 1 is inserted into the mounting hole 12 to have an insertion step (S30).

Since the screen base unit 10 and the light transmitting cell member 1 are formed in different layers and then recombined, the screen base unit 10 and the light transmitting cell member 1 may have more accurate and stable processing dimensions than the processing operations are performed in the same plane layer.

Therefore, the light transmitting cell member 1 is correctly inserted into the mounting hole 12 of the screen base part 10 to form the same plane.

Then, the screen base unit 10 into which the light transmitting cell member 1 is inserted has a support step of fixing by the support unit 20 having the light emitting portion (S40).

Of course, only the screen base unit 10 into which the light-transmitting cell member 1 is inserted without the support unit 20 can be used independently, such that the screen base unit 10 is used in a plurality of sheets or the support unit 20 is used in a plurality of sheets. Various embodiments may be used.

The screen base unit 10 and the light transmitting cell member 1 may be coupled to the support unit 20 by an adhesive or the like, and a separate intermediate member may be inserted into the support unit 20 and one end of the light transmitting cell member 1 or the screen base may be used. The other end of the intermediate member is inserted into the portion 10 may be fixed to each other.

In the supporting step, the support part 20 is preferably formed of the transmissive support plate 22 is coupled to form the same plane, but is not limited thereto, and various kinds of materials are in contact with each other to form the support part 20. .

Then, it has a lighting installation step of installing the lighting unit 30 so that the light is transmitted to the light transmitting cell member 1 through the support 20 (S50).

After the lighting unit 30 is installed in the moving member 45, the first extension piece 62 is inserted into and fixed to the moving groove 47 of the moving member 45, and the first extension piece 62 and the second extension piece ( After adjusting the length of 66), the fastening member 69 is fixed. Then, the second extension piece 66 is inserted into the fixing groove 44 of the rail member 42 by sliding, and then the second extension piece 66 is fixed to the fixing groove 44 of the rail member 42 at a desired position. After the position is fixed to the fixing member (49).

In addition, the rail members 42 and 43 may be used in various embodiments such as to be installed on the rear side of the support 20 as necessary.

In an embodiment of the present invention, the rail members 42 are installed side by side and one lighting unit 30 is installed side by side in one rail member 42, but this is only by way of example, and the rail members 42 and Various embodiments may be possible, such that the lighting unit 30 is installed in an inclined direction to the neighboring rail member 42 or the lighting unit 30 is installed perpendicularly to the rail member 42.

And, as shown in FIG. 4, the lighting unit 30 directly installed on the rear side of the supporting unit 20 includes a first supporting member 140 and the first supporting member 140 surrounding the lighting body 32. The fixing is performed by the second support member 142 fixed to 20).

The lighting unit 30 adjusts a portion where the first support member 140 and the second support member 142 are coupled to each other, thereby controlling the distance between the lighting unit 30 and the support unit 20.

In addition, the lighting unit 30 is installed in contact with the screen portion 20 directly in contact with the screen portion or by drilling a hole in a portion of the screen portion to install the lighting portion 30 so that the light emitted from the lighting portion 30 to go directly to the outside, etc. Various embodiments according to the installation of the lighting unit 30 will be possible.

In addition, the first extension piece 62 may be formed in a simple straight shape, but a portion bent and opened in a 'c' shape is installed toward the rail member 42, and moves with the first extension piece 62. The member 45 is fixed by the fastening bolt in contact with each other.

Hereinafter, a light emitting display device according to another embodiment of the present invention will be described with reference to the drawings.

For convenience of description, the same reference numerals are used to designate elements having the same configuration and operation as the exemplary embodiment, and detailed description thereof will be omitted.

FIG. 9 is an exploded view of a light emitting display device according to another embodiment of the present invention, and FIG. 10 is a view illustrating a state in which the screen portion shown in FIG. FIG. 11 is a view illustrating a state in which the support part shown in FIG. 9 is disassembled into respective parts and a state in which the assembly is completed by the support part, and FIG. 12 is a non-translucent cell shown in FIG. It is a side sectional view which shows the state.

9 to 11, a light emitting display device according to another embodiment of the present invention includes a screen unit in which a color is expressed by light emitted by the light-transmitting cell 102 and the non-light-transmitting cell 104 being combined ( 100, a support part 120 supporting the screen part 100 and a portion through which light passes, an illumination part 30 providing light exiting to the translucent cell 102 through the support part 120, and an illumination part. An illumination guide for guiding the light of the position control unit 40 and the light unit 30 moved by the position control unit 40 to move the light in a direction parallel to the support unit only to a limited area of the support unit 120. A portion 50 is included.

The screen unit 100 is a light transmitting the light emitted by the illumination unit 30 and the translucent cell 102 representing the color and the non-translucent cell 104 that reflects the surrounding environment or expresses its own texture without passing the light It is used by mixing.

The screen unit 100 may be used for interior walls or surfaces of three-dimensional objects.

Translucent cell 102 is made of colored glass and non-translucent cell 104 is made by cutting a stainless steel plate, but this is only an embodiment of the present invention, all materials that emit color by light transmission is a translucent cell A material which can be used as 102 and can be expressed by its own texture or material property without passing light can be used as a material of the non-translucent cell 104.

And, when the light-transmissive cell 102 is made of glass and the non-light-transmissive cell 104 is made of stainless steel plate material, the thickness of the light-transmissive cell 102 is thicker than that of the non-light-transmissive cell 104. On the side is installed a separate intermediate auxiliary plate 140.

That is, an intermediate auxiliary plate 140 for thickness control is further provided on the rear side of the non-transparent cell 104, the translucent cell 102 uses cut color glass and the non-transparent cell 104 is cut stainless steel plate material. Although it is preferable to use, other materials for transmitting light may also be used as the light-transmitting cell 102 according to another embodiment of the present invention, other materials such as other stones or metal plate material that can be expressed only by its own texture without transmitting light Also can be used as a non-light transmitting cell 104 according to another embodiment of the present invention.

For example, when the thickness of the light transmissive cell 102 is 10 mm and the thickness of the non-translucent cell 104 is 2 mm, the thickness of the intermediate subsidiary plate 140 is 8 mm so that the thickness of the light transmissive cell 102 and the non-translucent cell ( The thickness of the 104 and the intermediate subsidiary plate 140 are equal to each other so that the screen unit 100 forms the same plane.

On the contrary, when the thickness of the non-translucent cell 104 is thicker than the translucent cell 102, the intermediate auxiliary plate 140 may be added behind the translucent cell 102. Even in this case, the material of the intermediate subsidiary plate 140 may be selectively used for light transmission, semi-transmission, and non-transmission according to the expression effect.

However, various embodiments are possible, such as a configuration in which the screen unit 100 has different surface heights, and a configuration in which the intermediate subsidiary plate 140 is omitted.

The screen unit 100 draws an outline in the shape of the drawing, divides the inside of the appearance into a plurality of cells, and assigns a characteristic and a unique number to each divided cell.

Then, after classifying cells by layers having characteristics of each material, cells corresponding to each layer are drawn, and cutting operations are performed for each layer to obtain a light transmitting cell 102 and a non-light transmitting cell 104.

Then, the cut cells are collected again in the original arrangement to form the screen unit 100.

The screen part 100 is fixed by the support part 120, and the support part 120 is combined with a plurality of support plates 122 to form one flat support part 120.

The material constituting the support plate 122 may optionally use one or more of a translucent material and a translucent material, and a non-translucent material may be further added as necessary.

The support unit 120 may be configured in the same configuration as the screen unit 100 to express various color and illuminance changes.

The portion visible from the outside is referred to as the screen portion 100 and the portion supporting the screen portion 100 is referred to as the support portion 120. However, this is merely a classification for convenience and the configuration of the screen portion 100 and the support portion 120. Similar or identical implementations will be referred to as embodiments of the present invention.

Support 120 may be a variety of embodiments, such as a glass plate of a different color to be combined with each other, or to form a support 120 with a glass plate of a single color in order to express a plurality of colors.

In addition, the support 120 is made of a light-transmitting material, it is preferable that a plurality of support plates 122 having a color are combined to form the same plane.

The support 120 may be used to select at least one or more of a transparent material, a translucent material and an opaque material, preferably using colored glass as a material of the support 120.

As a transparent material of the support unit 120, a material such as glass or acrylic is used, and a material such as color glass or color acrylic is used as a translucent material, and materials such as stone, metal plate, opaque glass, and color acrylic are used as opaque materials. Will be used.

And, as shown in Figure 12, one end is inserted into the non-translucent cell 104 and the other end is inserted into the support portion 120 so that the non-translucent cell 104 is fixed to the support portion 120, the intermediate member 130 It will include more.

The intermediate member 130 is installed between the non-transparent cell 104 and the support 120, or is installed between the intermediate subplate 140 and the support 120 to which the non-transparent cell 104 is attached, thereby fixing both members. It will play a role.

According to another embodiment of the present invention, the lighting unit 30, the position adjusting unit 40, the height adjusting unit 60, the lighting guide unit 50, the lighting back plate 72, the auxiliary frame 70, and the main frame 74 Detailed configuration and operation state are the same as in the embodiment of the present invention, detailed description thereof will be omitted.

A method of manufacturing a light emitting display device according to another embodiment of the present invention having the above configuration will be described. 13 is a flowchart illustrating a method of manufacturing a light emitting display device according to another embodiment of the present invention.

Referring to FIG. 13, a method of manufacturing a light emitting display device according to another exemplary embodiment of the present invention has a design step of preparing a design (S100).

For example, in the case of showing the shape of the city, the operation of drawing a boundary along the exterior of a building, etc. is performed.

Then, the pattern is divided into a plurality of cells, and a cell classification step of individually assigning attributes corresponding to the cells is provided (S110).

In addition, the cell preferably includes a light transmitting cell 102 through which light is transmitted and a non-light transmitting cell 104 through which light is not transmitted.

After partitioning the inner side of the boundary into a plurality of cells, attributes are assigned to each cell. For example, the attributes of the cells to be expressed, such as the grain direction of the light cells such as blue or yellow and the material of the cells, are displayed for each cell and classified by unique numbers.

The cell classification of the screen unit 100 is divided into a light transmissive cell 102 that transmits light and displays a color, and a non-light transmissive cell 104 that does not transmit light and is expressed only by its own color and texture.

The light transmitting cell 102 may be classified into color glass of each color or classified into other light transmitting materials.

Then, the same attributes among the cells have a redesigning step of reconfiguring the cell shape in the layer according to the cell classification (S120).

For example, when the non-translucent cell 104 is processed using a stainless steel sheet, the non-translucent cell 104 is classified by each direction according to which direction the grain direction of the surface of the non-transmissive cell 104 is directed.

Collect the non-translucent cells 104 formed with the grains of the cell in the right grain direction to form a single layer, and collect the non-translucent cells 104 separated by the respective grains such as the vertical grain direction, the horizontal grain direction and the left comb grain direction. Repaint on the appropriate layer.

The transparent cell 102 redesigns the transparent cell 102 in layers corresponding to pink tempered glass, yellow tempered glass, white tempered glass, blue tempered glass, and the like.

In the layer using the stainless steel plate among the layers, the cell pattern in the layer is rotated so that the grain direction of the cell faces the same direction (S130).

That is, when the grain direction of one large stainless steel plate is vertical, the cells arranged in the left grain direction and the cells in the horizontal grain direction are rotated, including the cells arranged in the right grain direction according to the grain direction. Will be in accordance with

This makes it possible to display all of the non-translucent cells 104 in the drawing of one plate.

And, it has a cutting step of cutting in the cell shape designed in the layer (S140).

The cutting operation can be either manual or automatic, and a cutting method such as laser, waterjet, C & C processing using a computer is preferable.

Then, the cell has an assembly step of assembling the support unit 120 having a portion where light is transmitted according to the drawing (S150).

Only the light transmitting cell 102 and the non-light transmitting cell 104 may be coupled to the support part 120. If necessary, the light transmitting cell 102 and the non-light transmitting cell 104 may be combined with the intermediate auxiliary plate 140 after being combined with the intermediate plate 140. The auxiliary plate 140 may be coupled to the support 120.

In addition, when using only the screen unit 100 in a state in which the support unit 120 is omitted, a screen unit such as the case where the screen unit 100 is used by overlapping multiple sheets and the case where the support unit 120 is used by overlapping multiple sheets The 100 and the support 120 may be selectively overlapped to express various colors and illuminance.

That is, by overlapping the light passing portion of the screen unit 100 and the support unit 120, the expression effect through the screen unit 100 is varied, it is possible to express bright and dark or various colors at the same amount of light painting Expression is possible.

And, through the support unit 120 has a light installation step of installing the lighting unit 30 so that the light is transmitted to the light transmitting cell 102 in the cell (S160).

After the lighting unit 30 is installed in the moving member 45, the first extension piece 62 is inserted into and fixed to the moving groove 47 of the moving member 45, and the first extension piece 62 and the second extension piece ( After adjusting the length of 66), the fastening member 69 is fixed. Then, the second extension piece 66 is inserted into the fixing groove 44 of the rail member 42 by sliding, and then the second extension piece 66 is fixed to the fixing groove 44 of the rail member 42 at a desired position. After the position is fixed to the fixing member (49).

In addition, the rail member 42 may be used in various embodiments such as to be installed at the rear side of the support part 120 as necessary.

Although the present invention has been described with reference to the embodiments shown in the drawings, this is merely exemplary, and those skilled in the art to which the art belongs can make various modifications and other equivalent embodiments therefrom. I will understand.

In addition, the light emitting display device for displaying a zebra pattern and a city shape has been described as an example, but this is merely exemplary, and various letters and patterns may be formed only by the light transmitting cell 102 or the light transmitting cell 102 and the non-light transmitting cell 104. Various embodiments, such as the use of a mixture) will be possible.

The present invention includes a light transmissive cell 102 and a non-light transmissive cell 104, and optionally constitutes the screen unit 100 through numerous cell members. Then, each piece of the cell member is processed by designing a cell corresponding to a layer having respective characteristics so that the pieces are assembled without errors.

The material of the cell member is selected in consideration of the texture of the object and the transmittance of light, and the height and position of the lighting unit 30 are also changed in various ways for various expressions.

Therefore, the true technical protection scope of the present invention will be defined by the claims.

1 is an exploded perspective view illustrating a light emitting display device according to an embodiment of the present invention.

FIG. 2 is a perspective view of the upper side cut in a state where a portion of the light emitting display device illustrated in FIG. 1 is coupled;

3 is a perspective view illustrating a state in which the light emitting display device illustrated in FIG. 1 is coupled.

4 is a side cross-sectional view of the light emitting display device shown in FIG. 3.

5 is an enlarged perspective view illustrating a part related to the lighting unit illustrated in FIG. 1.

FIG. 6 is an exploded perspective view illustrating other parts except for the lighting guide part in the portion shown in FIG. 5.

7 is a flowchart illustrating a method of manufacturing a light emitting display device according to an embodiment of the present invention.

8 is a flowchart illustrating a method of manufacturing a cell forming step illustrated in FIG. 7.

9 is an exploded view illustrating a light emitting display device according to another embodiment of the present invention.

FIG. 10 is a view illustrating a state in which the screen unit illustrated in FIG. 9 is disassembled into parts, and a state in which the screen unit is assembled to the screen unit is completed.

FIG. 11 is a view illustrating a state in which a support part illustrated in FIG. 9 is disassembled into parts and a state in which assembly is completed with a support part.

FIG. 12 is a side cross-sectional view illustrating a state in which the non-translucent cell and the support part shown in FIG. 11 are coupled by an intermediate member.

13 is a flowchart illustrating a method of manufacturing a light emitting display device according to another embodiment of the present invention.

<Description of Symbols for Main Parts of Drawings>

1: light transmitting cell member 10: screen base portion

12: mounting hole 20: support

22: support plate 30: lighting unit

32: lighting body 34: lighting body

40: position adjusting portion 42: rail member

44: fixing groove 45: moving member

47: moving groove 49: fixing member

50: lighting guide 60: height adjustment

62: first extension 64: first moving hall

66: 2nd Extension 68: 2nd Movement Hall

69: fastening member 70: auxiliary frame

72: lighting whiteboard 74: mainframe

100: screen portion 102: light transmitting cell

104: non-light transmitting cell 120: support

122: support plate 130: intermediate member

Claims (18)

A screen base unit having a mounting hole along a light-transmitting shape; A transmissive cell member in which color is expressed by light inserted into the mounting hole and transmitted; A support part for supporting the screen base part into which the light-transmitting cell member is inserted and having a portion through which light passes; An illumination unit providing light exiting to the light transmitting cell member through the support unit; A position adjusting unit for moving the lighting unit in a direction parallel to the support unit; And And an illumination guide unit for guiding the light moved by the position adjusting unit to be illuminated only in a limited area of the support unit. A screen unit in which a color is expressed by light emitted by combining the light transmitting cell and the non-light transmitting cell; A support part supporting the screen part and provided with a light passing portion; An illumination unit configured to provide light exiting the light transmitting cell through the support unit; A position adjusting unit for moving the lighting unit in a direction parallel to the support unit; And And a lighting guide unit for guiding the light of the lighting unit moved by the position adjusting unit to be illuminated only in a limited area of the support unit. The method of claim 1, And the screen base portion and the light transmitting cell member are formed on the same plane. The method of claim 1, The transmissive cell member includes a plurality of cell members classified according to light transmittance, color, and material. The method of claim 2, And an intermediate member having one end inserted into the non-transmissive cell and the other end inserted into the support part to fix the non-translucent cell to the support part. The method of claim 2, It further has a thickness of the light-transmitting cell minus the thickness of the non-light-transmissive cell and further comprises an intermediate auxiliary plate installed on the rear side of the non-light-transmissive cell, Wherein the light-transmissive cell uses color glass and the non-transmissive cell uses stainless steel plate. The method according to claim 1 or 2, The support unit is a light emitting display device, characterized in that a plurality of support plates made of at least one material of the transmissive material and the translucent material are combined to form the same plane. The method according to claim 1 or 2, The position adjusting unit rail member for guiding the movement path of the lighting unit; A moving member fixed to the lighting unit and moving along the rail member; And And a fixing member for restraining movement of the moving member. The method of claim 8, And a height adjusting unit controlling the height of the lighting unit by adjusting a distance between the rail member and the moving member. The method of claim 9, The height adjusting portion is fixed to one side of the moving member and the first extension piece provided with a first moving hole of the long hole shape inside; A second extension piece installed in contact with the first extension piece and having a second moving hole communicating with the first moving hole; And And a fastening member fixed through the first moving hole of the first extension piece and the second moving hole of the second extension piece to fix the first extension piece and the second extension piece. . The method according to claim 1 or 2, The illumination guide unit, the light emitting display device surrounding the light source of the illumination unit characterized in that the guide partition is installed. A cell forming step of forming a light transmitting cell member by processing a light transmitting material having a specified color; Forming a mounting hole for inserting the light transmitting cell member into a screen base part; An insertion step of inserting the light transmitting cell member into the mounting hole; A support step of fixing the screen base part into which the light transmitting cell member is inserted by a support part having a light transmitting part; And And a lighting installation step of installing an illumination unit such that light is transmitted to the light transmitting cell member through the support unit. 13. The method of claim 12, The cell forming step may include a design step of drawing a boundary line along the appearance of the pattern; Dividing the inner side of the boundary into a light transmitting cell member having a plurality of colors; A redesigning step of designing to display the shape of the light transmitting cell member corresponding to the color plate classified by color; And And a cutting step of cutting along the shape of the translucent cell member designed on the color plate. 13. The method of claim 12, And in the supporting step, a plurality of support plates including at least one material of a translucent material and a translucent material are successively coupled to form a same plane. A drawing step of creating a drawing; A cell classification step of dividing the pattern into a plurality of cells and individually assigning attributes corresponding to the cells; A redesigning step of reconfiguring the cell shape in a layer according to cell classification by tying the same attributes among the cells; A cutting step of cutting into the cell shape illustrated in the layer; An assembling step of assembling the cell to a support having a portion where light is transmitted according to the drawing; And And installing a lighting unit to transmit light to the cell through the support unit. The method of claim 15, Between the redesigning step and the cutting step, further comprising an array step of rotating each cell pattern in the layer so that the grain direction of the cells provided in the layer using a stainless steel plate of the layer to face the same direction A method of manufacturing a light emitting display device. The method of claim 15, And the cell comprises a light transmitting cell through which light is transmitted and a non-light transmitting cell through which light is not transmitted. A light emitting display device manufactured by the method of any one of claims 12 to 17.

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