KR20080102531A - Sunlight lighting illumination plate - Google Patents

Abstract

A flat type sunlight daylighting illumination device adding availability and functionality is provided to facilitate installation by classifying a sunlight condenser for fixing of a thin box type and a sunlight tracking daylighting device. A flat type sunlight daylighting illumination device includes convex lens of a plurality of sunlight condensers which is located in center of a condenser lens(a) or center of a connection part(b). A front panel(c) is comprised of at least one of more things among flat type, curved type, or bending type. A rear panel(d) is formed in a connection part of the condenser or an optical fiber extended in the condenser connection part. A case(e) is fixed to the front panel or the rear panel transparently.

Description

Plate-shaped sunlight illuminating device

1 is a perspective view of a plate-shaped light mining device.

2 is a cross-sectional view of the slide type light emitting device.

3 is an image input and transmission output device and a solar light concentrating radiation device comprising a lens and an optical fiber.

4 is an internal perspective view of the optical fiber converter.

5 is a perspective view of a drawing roll provided in a case.

Condensing sunlight with a lens and using a light transmission device such as an optical fiber

Device to be used as illumination,

Advertisement using optical fiber, tourism lighting, sculptures, works of art.

Conventional solar lighting collects and transmits light through a lens to a light pipe.

Reflecting sunlight into a mirror,

There was a method of condensing with a relatively large one or several lenses and transferring them to the optical fiber.

It has large volume, low condensation rate and transmission rate.

  Because of its bulky form, it is difficult to install and manage.

 Low scalability

Because of its bulky shape, it is difficult to be mounted on a moving object such as a car or an airplane, and difficult to move from an installed place.

  Difficult to make in the form of artistic sculptures.

It is difficult to produce with company name, logo, mark, etc., so its utilization is low.

 Price and installation cost are high, and installation space is limited. (Only installed on the roof or flat)

Low stability

Patented (10-2003-0057149 name: image input and transmission output device consisting of lens and optical fiber and solar condensing transmission radiator) technology, this plate-type condenser that applies this technology is a thin rectangular shape It is divided into box-type or three-dimensional fixed solar concentrator and sun and tracking miner. The sun and concentrator are easy to install on the roof, as well as the front of the building, the railing, the wall between the floors of the building, and the upper part of the window. Easy to install on my bus When manufacturing, it can be made according to the intention of the sculpture, logo, and trade name.In addition, at night, if the light is sent to the collector through the optical fiber, it is made of logo or sculpture, and the light is sent to the light collecting plate using various light emitting elements. Maximizes advertising functionality and adds efficiency because it uses cheaper midnight power. Thus, it is a technology that adds greater usability and functionality than existing products that were used only as solar collectors.

A more advanced application, the solar tracking concentrator, flexibly secures the latter part of the solar concentrator and the optical converging radiator using optical fibers and installs a moving plate in the middle of the solar tracking concentrator. It can be manufactured to track sunlight with perfection and stability.

It has a large volume, low light collection rate and transmission rate of a conventional solar light collecting device.

Easy to install and manage due to the plate type.

 It's scalable because you just need to add it around the device you're using to scale it.

Since it is plate-shaped, it is easy to be mounted on a moving object such as a car or an airplane, and it is easy to move from an installed place.

  It can be produced in the form of a plate and three-dimensional shape can be produced as the creators can be produced in the form of artistic sculptures and can be produced by the company's name, logo, mark and the like.

 It can be produced at a low price without breaking the high price.

Photovoltaic tracking and fixing photovoltaic condensers that can be produced in plate and three-dimensional shapes.

  In order to maximize the advertising effect and the range of use, various effects are provided with a light-emitting body and a film equipped with advertisement and artistry.

Example (the example at the time of backplate movement) drive of plate-type sunlight tracking lighting device

An electric motor driven by the electricity supply of the process by the solar position recognition of the solar tracking device attached to the case or the front plate with the connection part or the optical fiber or by the electricity supply process by the time according to the sunlight path Due to the back plate driven by the can change the angle and position of the extension portion, and the angle and position to be incident on the optical fiber is kept constant due to the integrated light collecting device.

And at night, the individual or bundle of the optical fiber terminal provided in the radiator portion or the concave lens individual or bundle is moved to the light emitting portion or by moving the light emitting portion to transmit light through the optical fiber to the light collecting plate in the light collecting plate.

Multiple photovoltaic condensing and radiating devices (FIG. 3a) using lenses and optical fibers

In the middle portion of the lens (Fig. 1-a) to the connection (Fig. 1-b) of the connection portion (Fig. 1-b) of the plurality of solar light collecting devices (Fig. 1-a, b) and the lens (Fig. 1) -a) to a plurality of pipes provided in the width and size of the cross-sectional shape of the intermediate portion or more, provided in the middle portion of the lens (Fig. 1-a) to the connecting portion (Fig. 1-b), either flat or curved or curved The front plate composed of the above (Fig. 1-c) and

Parallel to the front plate and parallel to the center of the individual figures of the front plate are parallel to the front plate, and the cross-sectional view of the condenser connecting portion (Fig. A back plate (FIG. 1-D) provided with a conduit and provided on an optical fiber extending from the concentrator connecting portion (FIG. 1-B) to the back of the front plate;

 At least one of a side plate fixed to the front plate or the back plate and vertically provided at upper, lower, left, and right sides of the front plate, extending in parallel with the front plate at the side plate, or being flat or curved or curved The case (FIG. 1-e) provided with a width greater than the front and back plates and the front and back plates of the front and back panels protruding photoconcentrator and extending beyond the height and width of the front and back plates;

A process unit provided in the case, a driving unit driven by the process and a driving unit extending from the driving unit and provided on the front plate or the rear plate;

A power unit for supplying power to the process

At least one of an optical fiber extending from the condenser of the condenser, an optical fiber end extending from the optical fiber, or a concave lens connection part extending from the optical fiber, and a concave lens provided at the connection part, and an illumination unit provided with an illuminant sculpture (FIG. Step 3);

The light emitting device to be incident on at least one or more of the individual or bundle of optical fiber ends or individual concave lenses or bundles of optical fibers provided at the ends of the optical fibers of the individual solar condensing radiating devices or the optical fibers opposite to the condensing portion (Fig. 2- a plate-shaped solar light illuminating device having a device capable of driving a) manually or automatically and a plate-shaped solar tracking light illuminating device,

Multiple solar concentrators using lenses and optical fibers (abbreviated as solar concentrators)

The front plate is provided in the middle portion of the connection portion of the plurality of solar light collecting devices and provided with a plurality of pipe holes provided in a width and size of the cross-sectional shape or more of the intermediate portion and composed of any one or more of flat or curved or curved (FIG. c) or a photovoltaic concentrator connection portion (FIG. 1-b) which is parallel to the front plate and in parallel with the center of the individual figures of the front plate perpendicular to the front plate and behind the front plate (FIG. 1-b). The tube is provided with at least one of a cross-sectional view of the section and provided with at least one of a connection portion (FIG. 1-B) at the rear side of the condenser front plate and a rear plate (FIG. 1-D) provided at the optical fiber extending from the concentrator connection portion. And

The front plate extends and includes a side plate provided vertically on the upper, lower, left, and right sides of the front plate, and a curved and curved surface that is at least horizontal to the vertical or front plate or the rear plate on the opposite side from the side plate. The case of the front part of the protruding photovoltaic concentrator of the back plate, the width of the optical fiber and the back plate or more, and the case (FIG. 1-e) transparently provided beyond the height and width of the front plate and the back plate;

The light source incident on the optical fiber terminal portion or the concave lens bundle provided at the end of the optical fiber of the individual solar condensing radiation emitting device;

At least one or more of an optical fiber extending from the condenser of the light collecting device (FIG. 1-b), an optical fiber end extending from the optical fiber or a concave lens connecting portion extending from the optical fiber, and a concave lens provided on the connecting portion With lighting unit (FIG. 3)

A light emitting device to be incident on at least one or more of individual or bundles of concave lenses or bundles of optical fiber ends provided at the ends of the optical fibers of the respective solar light concentrating radiating devices or the optical fibers opposite to the condensing portion (FIGS. Plate-shaped solar light illumination device having a device capable of driving a) manually or automatically.

 The front plate or the back plate is provided with a cord with flexibility and elasticity or without flexibility and elasticity

The line is a plate-shaped solar tracking light lighting device and a plate-shaped sun provided to be formed more than the width and size of the cross-section of the cross section of the intermediate portion of the connecting portion (Fig. Light mining lighting device.

The figure of the lens (Fig. 1-a) of the solar light collecting device is at least one of triangular, rectangular or hexagonal

The triangular lens is provided in the form of a triangular pyramid with the lens as a base, and the connection point is provided with a vertex extending in the opposite direction and the optical fiber,

 Or the rectangular lens is provided in the form of a square pyramid with the lens as a base and a connecting portion that the vertex in the opposite direction extends with the optical fiber,

 Or the hexagonal lens is provided in the form of a hexagonal pyramid having the lens as a bottom, and a solar tracking light illuminating device and a plate-shaped solar light illuminating device, each of which is provided with a connecting portion in which vertices in opposite directions extend with the optical fiber.

Is provided with a fixing part extending from the back or forward connection portion of the solar light concentrating radiator connection portion (Fig. 1-b) to the back plate or the front plate provided on the back plate or the front plate or flexible and elastic Solar tracking light illuminator and plate-shaped solar light illuminator with fixed parts.

 At least one or more of the upper side or the lower side or the left side or the right side of the case is provided with a linear tube hole at a position parallel to the side of the front plate or the back plate and the length of the side and the thickness of the front plate or the back plate or more Light tracking skylight lighting device.

 And a photocatalyst (TiO 2) having a photocatalyst (TiO 2) coated on at least one of a lens (FIG. 1-a) or an inner surface or an outer surface of the solar light collecting device.

 The electricity supplied to the process and the power unit is a solar tracking skylight lighting device and a plate-type solar supplied from a general battery or a rechargeable battery supplied from a solar generator or a solar generator provided in any one or more of the front or case. Light mining lighting device.

 The process is provided with at least one of a chip or an electromagnetic plate

Solar recognition device provided in the case and

Plate-type solar tracking skylight lighting apparatus is provided with an algorithm for supplying power to the driving unit or the power for each time the sunlight moves by the recognition of the solar tracking device.

 The width and height of the case (Fig. 1-e) is a plate-shaped solar tracking light illumination device provided with a length of more than the range of moving back plate or front plate.

 The solar light transmitting and radiating device is a plate-type sun provided with an image input and output device (FIG. 3-b), which is an integrally provided device for condensing sunlight collected from a convex lens into a concave lens and incident light into the optical fiber in parallel rays. Light tracking skylight lighting device.

The lighting device is a device having a light source for driving the slide through the exterior of the lighting device to inject light into the optical fiber or lens provided in the lighting device The light source is provided on the opposite side of the slide device provided with the light source, which moves to a position horizontal to the bundle of the optical fiber bundle or the lens and rises vertically so that the light source is engaged in parallel with the bundle of the optical fiber bundle or the lens. A light emitting device having a light emitting device or a detachable light emitting device or a light emitting device which is provided to rotate at a central axis and is vertically extended from a lower end of the exterior of the light emitting device or a lighting device and moved to a position where the optical fiber or the lens can be incident; The motor, the process and the film are provided together in the case

The light emitting device moving to the slide and the light emitting device rotating at the center point of the extension part are driven by an electric motor driven by the control of a process having an electric power sent by a user-specified time and an algorithm to be driven in a driving direction specified by the user. Being driven or manually

 The light emitting device may be incident on the bundle of the optical fiber bundle or the lens at the same time or may be incident on the optical fiber or the lens separately.

The light emitting device emits light by electric power supplied by the process

The slide-driven light emitting device includes a cylindrical device that rotates around a light source provided with a color or pattern.

The electric power is generated by the solar power generator provided in the front plate (Fig. 1-c) or the case of the general power or plate-shaped solar tracking light lighting device and the plate-shaped solar light lighting device that is stored in the battery.

  The light emitting device includes a cross section (FIG. 4-B) of an optical fiber or a bundle of optical fibers extending from the skylight plate, a cross section of the optical fiber or a bundle of optical fibers (FIG. 4-C) extending toward an illumination unit, and a reflector of the light source and the light source (FIG. 4-B). d) and the film, the motor (Fig. 4-a) and the process are provided in the case

The cross section of the optical fiber or the optical fiber bundle extending from the skylight plate and the optical fiber or the optical fiber bundle extending toward the lighting unit are identical in shape and size. Equipped

The optical fiber or optical fiber bundle extending from the skylight plate in the case is driven toward the optical fiber cross section or the optical fiber bundle cross section extending toward the lighting unit or toward the light source inside the case and

After the optical fiber or the optical fiber bundle is driven to the top, the cross section is driven to be bonded to match the end surface of the optical fiber or optical fiber bundle extending toward the lighting unit.

After the optical fiber or the optical fiber bundle is driven downward, the optical fiber or the optical fiber bundle is driven to be bonded to match the end surface of the light emitting device or the end of the reflecting device.

The light source is provided with a luminaire mechanical device that can be incident on the bundle of optical fibers at one time or to enter the individual optical fibers,

The light emitting device includes a cylindrical film having a color or pattern rotated or stopped by an electric motor driven by a process equipped with a driving direction algorithm and transmitting power at a time specified by a user around the light emitting device. Plate-shaped solar tracking lighting device and plate-shaped solar lighting device, which is provided surrounded by a cylindrical shape.

The light emitting device is a plate-shaped solar tracking light illumination device and a plate-shaped solar light illumination device provided with at least one of a bulb or a lamp or CCFL or LED or OLED or FED or PDP or PLED or EEFL or FFL.

 The front plate of the case is provided with a removable film or a film and a battery driven by a film winding roll (Fig. 6) driven by a drive device provided on the left and right or upper and lower sides of the inside or outside of the case; Equipped with electric motors and processes and solar generators

The film is at least one of synthetic resin or woven or paper

The film is provided with at least one or more of transparent areas or colored or patterns or patterns or phrases or provided for each area

The drive device is an electric motor and is driven by electric power supplied by the process

The electric power is generated by the general power or the solar generator provided in the front plate (Fig. 1-c) or the case and stored in the battery

The film is a plate-shaped solar tracking skylight lighting device and at least one of a synthetic resin, fabric or paper provided with a plate-shaped solar tracking light lighting device.

Many solar concentrators using lenses and optical fibers

Is provided in the middle portion of the connection portion of the plurality of solar light collecting devices and provided with a plurality of tube holes in the width and size of the lens (Fig. 1-a) to the cross-sectional shape of the intermediate portion or more of any one of flat or curved or curved Solar photovoltaic device connected in parallel with the front plate (Fig. 1-c) or the front plate and parallel to the center of the individual figures of the front plate perpendicular to the front plate and rear than the front plate Of the back plate (FIG. 1-D) having the tube section or more of the cross-sectional view of the optical fiber portion (FIG. 1-B), provided only as the front plate, or provided as the front plate and the back plate;

Widths above the front and rear plates of the side plate provided vertically at the sides of the front plate, the left and right sides of the front plate, and the solar condensing radiating device extending vertically inward from the side plate and protruding from the front plate and the back plate. And a case (Fig. 1-e) which is transparently provided beyond the height and width of the front plate or the back plate;

A light source incident on the optical fiber or the concave lens bundle provided at the end of the optical fiber of the individual solar condensing radiation device;

A device capable of manually or automatically driving a light emitting device (Fig. 2-a) to be individually or bundled at an end of an optical fiber provided at an end of an optical fiber of each of the solar light concentrating radiating devices, or to an individual or a concave lens; Plate-type solar light illuminating device provided.

 The front plate or the back plate is provided with a flexible and elastic or a string without the flexible and elastic

The line-shaped solar tracking skylight lighting apparatus is provided so that the space inside the line is formed to cross the line is formed more than the width and size of the cross section of the cross section of the connecting portion (Fig. 1-b).

 The figure of the lens (Fig. 1-a) of the solar light collecting device is a triangle or a square or a hexagon

The triangular lens has the lens as the base and is provided in the form of a triangular pyramid and the connecting portion in which the vertex in the opposite direction extends with the optical fiber,

 Or the rectangular lens is provided in the form of a square pyramid with the lens as a base and the connecting portion extending in the opposite direction of the optical fiber and

 Or the hexagonal lens is provided in the form of a hexagonal pyramid with the lens as a base plate solar light collecting device having a connection portion extending from the vertex in the opposite direction and the optical fiber.

 Is provided with a fixing portion extending from the connection behind or in front of the portion of the solar condensing radiating device connecting portion (Fig. 1-b) of the back plate provided in the back plate or a flexible and elastic fixing part Plate solar light lighting device.

 Plate-type solar light illuminating device is a photocatalyst (TiO 2) is applied to at least one of the lens (Fig. 1-a) or the front or rear of the front plate of the case.

 The solar light transmitting and radiating device is a plate-type sun provided with an image input and output device (FIG. 3-b), which is an integrally provided device that collects sunlight condensed from a convex lens into a concave lens and enters the optical fiber in parallel light. Light tracking skylight lighting device.

 The solar light transmitting and radiating device is a plate-type sun provided with an image input and output device (FIG. 3-b), which is an integrally provided device for condensing sunlight collected from a convex lens into a concave lens and incident light into the optical fiber in parallel rays. Light tracking skylight lighting device.

 The light emitting device includes a cross section (FIG. 4-B) of an optical fiber or a bundle of optical fibers extending from the skylight plate, a cross section of the optical fiber or a bundle of optical fibers (FIG. 4-C) extending toward an illumination unit, and a reflector of the light source and the light source (FIG. 4-B). d) and the film, the motor (Fig. 4-a) and the process are provided in the case

The cross section of the optical fiber or the optical fiber bundle extending from the skylight plate and the optical fiber or the optical fiber bundle extending toward the lighting unit are identical in shape and size, and the cross section of the light source is greater than the cross section of the optical fiber or optical fiber bundle.

The optical fiber or the optical fiber bundle extending from the skylight plate in the case is driven toward the cross section of the optical fiber or the optical fiber bundle extending toward the lighting unit or toward the light source inside the case.

After the optical fiber or the optical fiber bundle is driven to the top, the cross section is driven to be bonded to match the end surface of the optical fiber or optical fiber bundle extending toward the lighting unit.

After the optical fiber or the optical fiber bundle is driven downward, the optical fiber or the optical fiber bundle is driven to be bonded to match the cross section of the light emitting device.

The light source is provided with a luminaire mechanical device that can be incident on the bundle of optical fibers at one time or to enter the individual optical fibers,

The light emitting device is a cylindrical film having a color or pattern rotated or stopped by an electric motor driven by a process equipped with an algorithm that transmits power around the light emitting device at time and adjusts a driving direction. The enclosed plate solar tracking light unit and plate solar light unit.

 The light emitting device is a plate-shaped solar tracking light illumination device and a plate-shaped solar light illumination device provided with at least one of a bulb or lamp or CCFL or LED or OLED or FED or PDP or PLED or EEFL or FFL.

 The front plate of the case is provided with a removable film or by a film winding roll (FIG. 6) driven by a driving device provided on at least one of the left side and the right side or the upper side and the lower side inside or outside the case. With film driven, solar generators, rechargeable batteries and processes

The film is provided with at least one or more of the transparent areas or colored or patterns or patterns or phrases or for each area

The driving device is an electric motor driven by power supplied by a process provided with an algorithm for transmitting power and adjusting a driving direction for each time, and the power is provided in a general power or a front plate (FIG. 1-c) or a case. It is the power generated by the solar generator and stored in the battery

The film is a plate-shaped solar tracking light tracking device and a plate-shaped solar light lighting device of at least any one of synthetic resin or woven or paper.

 The case or plate has a movable extension, a solar tracking device, a solar generator, a rechargeable battery and a process.

The extension part is provided to allow the case to rotate vertically and horizontally

The driving of the extension may be performed by a process including an algorithm for supplying electric power to the electric motor so as to transmit electricity by time or to adjust the case direction according to the recognition of the sun direction of the solar tracking device provided on the case or the front plate. Sent out

The electricity is provided to the general power or the case or the front plate

 A plate-type solar light lighting device that is electricity generated by a solar generator and stored in a rechargeable battery.

It is divided into a rectangular box-shaped fixed photovoltaic light collecting device and the sun and tracking light collecting device. The sun and the light collecting plate can be easily installed on the roof, the front of the building, and the lower part of the window, and can be easily installed on a car or a bus. It can be produced according to the intentional solid and plate-shaped sculptures or logos and trade names of the orderer.In addition, at night, when the light is sent to the condenser through the optical fiber, the condenser made of the logo or the sculpture maximizes the advertising function, and at this time, the low-cost power Adding efficiency adds efficiency. Thus, it is a technology that adds greater usability and functionality than existing products that were used only as solar collectors.

A more advanced application, the solar tracking concentrator, provides flexibility in fixing the latter part of the solar condensing radiator using the lens and the optical fiber in the condenser plate and installing a moving plate in the middle. It is made to track sunlight with high integrity.

It has a large volume, low light collection rate and transmission rate of a conventional solar light collecting device.

Easy to install and manage due to the plate type.

 It's scalable because you just need to add it around the device you're using to scale it.

Since it is plate-shaped, it is easy to be mounted on a moving object such as a car or an airplane, and it is easy to move from an installed place.

  Since the shape of the mining device can be manufactured by the manufacturer, it can be produced in the form of an aesthetic three-dimensional sculpture (eg, a Venus statue, etc.). In addition, to maximize the advertising effect and the range of use is provided with a light emitting body and a film. It can be produced by company name, logo, mark, etc., so it is very useful.

The mass production and production of solar condensing and radiating devices avoids the high price and is excellent for transmission, installation, management, expansion, movement and price in the solar lighting market. It is popular for infants, infants, the sick and the elderly who have not yet been pioneered, and for homes and floors to be used for beauty or electricity saving. Can be.

Claims (25)

The steps of a plurality of solar condensing and radiating radiators (abbreviation: condenser, Fig. 3 -a) utilizing a lens and an optical fiber; The lens (FIG. 1) is provided at an intermediate portion of the lens (FIG. 1-A) to the connecting portion (FIG. 1-B) of the condensing unit (FIGS. 1-A and B) provided with convex lenses of the plurality of solar light collecting devices. -a) to a plurality of tube holes having a width and a size larger than the cross-sectional view of the middle portion are provided in the middle portion of the lens (Fig. 1-a) to the connecting portion (Fig. 1-b) and at least flat or curved or curved A step of the front plate (FIG. 1-c) composed of any one or more; Parallel to the front plate and parallel to the center of the individual figures of the front plate are parallel to the front plate, and the cross-sectional view of the condenser connecting portion (Fig. A step of a back plate (FIG. 1-D) provided in the optical fiber having a tube and extending from the light concentrator connection portion (FIG. 1-B) to the concentrator connection portion; At least one of a side plate fixed to the front plate or the back plate and vertically provided at upper, lower, left, and right sides of the front plate, extending in parallel with the front plate at the side plate, or being flat or curved or curved Steps of the case (FIG. 1-e) provided with a transparent and more than the width of the front plate and the back plate and the front plate and the back plate and the front plate and the back plate of the protruding photovoltaic device of the front plate and the back plate; A process provided in the case, a drive unit driven by the process and a drive unit extending from the drive unit and provided on the front plate or the back plate; A power unit for powering the process;   An optical fiber extending from the extension part of the condenser (FIG. 1-b), an optical fiber end or multiple ends extending from the optical fiber, or a concave lens connection part extending from the optical fiber, a concave lens provided with the connection part or a plurality of concave lenses A step of an illumination unit (FIG. 3) provided with at least one of the at least one of the luminescent sculptures; The light emitting device to be incident on at least one or more of the individual optical bundles or individual concave lenses or bundles of the optical fiber ends provided at the end of the optical fiber opposite to the light collecting portion of the individual solar condensing and radiating devices provided in the illumination unit or optical fiber. A plate-shaped solar tracking skylight illuminating device comprising a device capable of manually or automatically driving (Fig. 2-a). The method according to claim 1, wherein the front plate or the back plate is provided with a string having flexibility and elasticity or no flexibility and elasticity; The line is a plate-shaped photovoltaic tracking, characterized in that the space inside the line to form a cross is formed so as to be formed more than the width and size of the cross section of the cross section of the connection portion (Fig. 1-b) provided Skylight lighting device. The method of claim 1, wherein the figure of the lens of the solar light collecting device (FIG. 1-A) is at least one or more of a triangle, a square, or a hexagon: The triangular lens is provided in the form of a triangular pyramid with the lens as a base and the connecting portion (Fig. 1-b) is provided with a vertex extending in the opposite direction and the optical fiber;   The rectangular lens is provided in the form of a square pyramid with the lens as a base and a connecting portion having a vertex in the opposite direction extending with the optical fiber;   The hexagonal lens is a plate-shaped solar tracking light collecting device, characterized in that provided in the form of a hexagonal pyramid with the lens as a base and the connecting portion extending in the opposite direction of the optical fiber. According to claim 1, wherein the back plate or the front plate provided with a fixing portion extending from the connection behind or in front of the portion in contact with the back plate or the front plate of the solar light transmitting radiator connection portion (Fig. 1-b) Or a plate-shaped solar tracking skylight lighting device characterized in that it is provided with a flexible and elastic fixing part. The tube of claim 1, wherein at least one of the upper side or the lower side, the left side, or the right side of the case is a linear tube having a side length and a thickness of the front plate or the back plate at a position parallel to the side of the front plate or the back plate. Plate-shaped solar tracking light lighting device characterized in that the ball is provided. According to claim 1, wherein the photocatalyst (TiO 2) is coated on at least one of the lens (Fig. 1-a), the inner surface or the outer surface of the solar light collecting device, characterized in that the plate-shaped solar tracking skylight Device. The method of claim 1, wherein the electricity supplied to the process and the power unit is characterized in that the electricity supplied from a rechargeable battery which is supplied from a solar generator or a photovoltaic generator that is provided in any one or more of the front or case. Plate type solar tracking skylight lighting device. The method of claim 1, wherein the process comprises: at least one of a chip and an electromagnetic plate; A step of solar tracking device provided in the case; The solar tracking device has a plate-shaped solar tracking mining, characterized in that the step of supplying the power enough to track the sun to the driving unit or the power supply to the driving unit for each time the sunlight moves. Lighting device. According to claim 1, wherein the width and height of the case (Fig. 1-e) is a plate-shaped solar tracking light illumination device, characterized in that provided with a length more than the back plate or the front plate moving range.  The image input and output device according to claim 1, wherein the solar light transmitting and radiating device is an integrally provided device for condensing sunlight condensed from a convex lens into a concave lens and incident light into an optical fiber with parallel rays (FIG. 3-b). Plate-type solar tracking skylight lighting device, characterized in that provided with. According to claim 1, wherein the illumination unit is provided with a light source (FIG. 2) having a light source (FIG. 2) having a light source for driving the slide through the exterior of the illumination unit for injecting light into the optical fiber or lens provided in the illumination unit (FIG. 2) The light source is driven to be engaged in parallel to the bundle of or the detachable light emitting device or a wall or extension that extends perpendicularly from the lower end of the exterior of the illuminator provided to rotate to the central axis is incident to the optical fiber or lens The light emitting device is moved to a position capable of being equipped with a motor, a process, and a film; The light emitting device that moves to the slide and the light emitting device that rotates at the center point of the extension are driven by an electric motor driven by control of a process equipped with an algorithm for driving power and driving direction sent by a user specified time or Manually driven;  The light emitting device is provided so as to be incident on the bundle of the optical fiber bundle or the lens at the same time or to be incident individually to the optical fiber or lens; The light emitting device is a light emitting device by the power supplied by the control of the process equipped with a user-designated algorithm; The slide-driven light emitting device is a cylindrical film that is rotated by an electric motor driven by a process equipped with an algorithm for driving power in a driving direction and power sent by a user-specified time around a light source having a color or a pattern. Providing an apparatus; The electric power is a plate-shaped solar tracking skylight lighting apparatus, characterized in that the electric power generated by the solar generator provided in the front plate (Fig. 1-c) or the case stored in the battery.  The light emitting device of claim 1, wherein the light emitting device includes a cross section (FIG. 4-B) of an optical fiber or a bundle of optical fibers extending from the skylight plate (FIG. 1), a cross section of the optical fiber or an optical fiber bundle (FIG. 4-C), and a light source extending toward an illumination unit. And a reflector (FIG. 4-D) of the light source, a film, an electric motor (FIG. 4-A), and a process are provided together in the case; A cross section of the optical fiber or the optical fiber bundle extending from the skylight plate and a cross section of the optical fiber or the optical fiber bundle extending toward the lighting unit are identical in shape and size, and a cross section of the light source is greater than a cross section of the optical fiber or the optical fiber bundle; The end face of the optical fiber extending from the skylight plate in the case or the end face of the optical fiber bundle is driven toward the end face of the optical fiber or the end face of the optical fiber bundle extending toward the lighting unit or toward the light source inside the case; After the optical fiber or the optical fiber bundle is driven upward, the cross section is driven to be bonded to match the end surface of the optical fiber or optical fiber bundle extending toward the lighting unit; After the optical fiber or the optical fiber bundle is driven by the light emitting device, the optical fiber or the optical fiber bundle is driven to be bonded to match the end surface of the light emitting device or the end of the reflecting device; The light source is provided to be incident on the bundle of optical fibers at one time or to be individually incident on the optical fibers; The light emitting device includes a cylindrical film having a color or pattern that is rotated or stopped by an electric motor driven by a process including an algorithm that transmits power at a time specified by a user and adjusts a driving direction around a light emitting device. It is provided surrounded by; The driving device is an electric motor and is driven by electric power supplied by adjustment of a process equipped with an algorithm for adjusting a driving direction designated by a user; The electric power is generated by a general power or a solar generator provided in the front plate (FIG. 1-c) or a case and stored in a storage battery; And said film is at least one of synthetic resin or fabric or paper.  According to claim 1, The light emitting device is a plate-shaped solar tracking light illumination device characterized in that provided with at least one or more of the bulb or lamp or CCFL or LED or OLED or FED or PDP or PLED or EEFL or FFL. The film of claim 1, wherein the front plate of the case is provided with a removable film or a film driven by a film winding roll driven by a driving device provided at a left and right side or an upper side and a lower side inside or outside the case ( 6) and a storage battery, an electric motor, a process, and a solar generator; Wherein the film is provided with at least one or more of the transparent portion or at least one of colored or pattern or pattern or phrases or provided for each area; The driving device is an electric motor and is driven by adjustment of a process equipped with an algorithm of a time and driving direction designated by a user; The electric power is generated by a general power or a solar generator provided in the front plate (FIG. 1-c) or a case and stored in a storage battery; The film is a plate-shaped solar tracking light illumination device, characterized in that provided with at least one of synthetic resin or woven or paper. The steps of a plurality of solar condensing and radiating radiators (abbreviation: condenser, Fig. 3 -a) utilizing a lens and an optical fiber; The lens (FIG. 1-A) to the intermediate portion of the connecting portion (FIG. 1-A) of the condensing portion (FIG. 1-A, B) provided with the convex lens of the plurality of solar light collecting devices and the lens ( 1-a) through a plurality of tube holes having a width and a size larger than the cross-sectional view of the middle portion, and are provided in the middle portion of the lens (Fig. 1-a) to the connecting portion (Fig. 1-b) and are flat or curved or curved. The lens of the condenser (FIGS. 1-A, B) provided with a front plate (FIG. 1-C) composed of any one or more, or provided with a convex lens of the connection portion of the plurality of solar concentrators. The front plate is provided in the middle portion and provided with a plurality of tube holes provided in the width and size of the lens (Fig. 1-a) or more than the cross-sectional shape of the middle portion and composed of any one or more of flat or curved or curved (Fig. 1-c). ) Parallel to the front plate and the centers of the individual figures of the front plate coincide with each other Back plate provided in the optical fiber extending from the condenser connecting portion (FIG. 1-B) to the condenser connecting portion (FIG. 1-d); At least one of a side plate fixed to the front plate or the back plate and vertically provided at upper, lower, left, and right sides of the front plate, extending in parallel with the front plate at the side plate, or being flat or curved or curved A case of a case (FIG. 1-e) provided with a width greater than the front portion and the back plate and the front plate and the back plate of the photoconcentrator protruding from the front plate and the back plate and extending beyond the height and width; An optical fiber extending from the extension part of the condenser (FIG. 1-b), an optical fiber end or multiple ends extending from the optical fiber, or a concave lens connection part extending from the optical fiber, a concave lens provided with the connection part or a plurality of concave lenses A step of an illumination unit (FIG. 3) provided with at least one of the at least one of the luminescent sculptures; A light emitting device (FIG. 2-a) which is incident on at least one of the individual or bundles of the optical fibers or the concave lenses or the bundles provided at the end of the optical fiber opposite to the optical fiber condenser of the respective solar light collecting units. A plate-shaped solar light illumination device characterized by having a device that can be driven manually or automatically. The method of claim 15, wherein the front plate or the back plate is provided with a string having flexibility and elasticity or no flexibility and elasticity; The line has a plate-shaped solar light, characterized in that the space inside the line to form a cross is formed so as to be formed more than the width and size of the cross section of the cross section of the intermediate portion (Fig. 1-b) provided Lighting device. 16. The method of claim 15, wherein the figure of the lens (FIG. 1-a) of the solar light collecting device is triangular or square or hexagonal: The triangular lens is provided in the form of a triangular pyramid with the lens as a base and the connecting portion (Fig. 1-b) is provided with a vertex extending in the opposite direction and the optical fiber;   The rectangular lens is provided in the form of a square pyramid with the lens as a base and a connecting portion having a vertex in the opposite direction extending with the optical fiber;   The hexagonal lens is a plate-shaped solar light collecting device, characterized in that provided in the form of a hexagonal pyramid with the lens as a base and the connecting portion extending in the opposite direction of the optical fiber. 16. The flexible or elastic fixing part according to claim 15, wherein the fixing part extends from the connection part behind or in front of the contact portion of the solar light transmitting and radiating device connecting part (FIG. 1-b) provided on the back plate. Plate-type solar light illumination device characterized in that provided. [Claim 15] The plate-shaped sunlight of claim 15, wherein the photocatalyst TiO 2 is coated on at least one of the lens (FIG. 1-a) of the solar light illuminating device or the inner surface or the outer surface of the case. Lighting device.  The image input and output device according to claim 15, wherein the solar light transmitting and radiating device is an integrally provided device that collects sunlight condensed from a convex lens into a concave lens and enters the optical fiber as parallel rays (FIG. 3-b). Plate-type solar light illumination device characterized in that provided with.  The apparatus of claim 1, wherein the illumination unit is provided with a light source (FIG. 2) having a light source for driving a slide through the exterior of the illumination unit (FIG. 2) to inject light into the optical fiber or lens provided in the illumination unit (FIG. 2). The light source being driven in parallel to the bundle of the optical fiber bundle or the lens by moving horizontally to the bundle of the light source, or a wall or extension extending vertically from the lower end of the detachable light emitting device or illuminator exterior A light emitting device which is rotated about a central axis and moved to a position capable of being incident on the optical fiber or a lens, and includes an electric motor, a process, and a film; The light emitting device that moves to the slide and the light emitting device that rotates at the center point of the extension are operated by an electric motor driven by a process equipped with an algorithm for driving in the driving direction and the power sent by the user specified time. Driven;  The light emitting device is provided so as to be incident on the bundle of the optical fiber bundle or the lens at the same time or to be incident individually to the optical fiber or lens; The light emitting device emitting light by electric power supplied by a process; The slide-driven light emitting device is a cylindrical film that is rotated by an electric motor driven by a process equipped with an algorithm for driving power in a driving direction and power sent by a user-specified time around a light source having a color or a pattern. Providing an apparatus; The electric power is a plate-type solar light illumination device, characterized in that the electric power generated by the solar generator provided in the front plate (Fig. 1-c) or the case stored in the battery. The light emitting device of claim 15, wherein the light emitting device includes a cross section (FIG. 4-B) of an optical fiber or a bundle of optical fibers extending from the skylight plate (FIG. 1), a cross section of the optical fiber or a bundle of optical fibers or an optical fiber extending toward the illumination unit, and a light source. And a reflector (FIG. 4-D), a film, an electric motor (FIG. 4-A), and a process of the light source are provided together in the case; A cross section of the optical fiber or the optical fiber bundle extending from the skylight plate and a cross section of the optical fiber or the optical fiber bundle extending toward the lighting unit are identical in shape and size, and a cross section of the end of the light source or the reflector is an abnormality of the cross section of the optical fiber or the optical fiber bundle; ; The end face of the optical fiber extending from the skylight plate in the case or the end face of the optical fiber bundle is driven toward the end face of the optical fiber or the end face of the optical fiber bundle extending toward the lighting unit or toward the light source inside the case; After the optical fiber or the optical fiber bundle is driven upward, the cross section is driven to be bonded to match the end surface of the optical fiber or optical fiber bundle extending toward the lighting unit; After the optical fiber or the optical fiber bundle is driven downward, the optical fiber or the optical fiber bundle is driven to be bonded to match the end surface of the light emitting device or the end of the reflecting device; The light source is provided to be incident on the bundle of optical fibers at one time or to be individually incident on the optical fibers; The light emitting device includes a cylindrical film having a color or pattern that rotates or stops in a forward or reverse direction by a motor driven by a process including an algorithm for transmitting power at a time specified by a user around a light emitting device. Plate-type solar light illumination device characterized in that the surrounding is provided. The driving device is driven by the power supplied by the control of the process is provided with an algorithm for sending the power for each user specified time; The electric power is a plate-type solar light illumination device, characterized in that the electric power generated by the solar generator provided in the front plate (Fig. 1-c) or the case stored in the battery. The plate-shaped solar light illumination device of claim 15, wherein the light emitting device is provided with at least one of a light bulb or a lamp or CCFL or LED or OLED or FED or PDP or PLED or EEFL or FFL. The film winding roll according to claim 15, wherein the front plate of the case is provided with a removable film or a film winding roll driven by a driving device provided on at least one of a left side and a right side or an upper side and a lower side inside or outside the case. Having a film driven (FIG. 6), a solar generator, a rechargeable battery and a process; The film is provided with at least one or more of the transparent areas or colored or patterns or patterns or phrases or provided for each area; The driving device is an electric motor, and is driven by adjustment of a process provided with an algorithm for sending electric power and adjusting a driving direction for each time; The electric power is generated by a general power or a solar generator provided in the front plate (FIG. 1-c) or a case and stored in a storage battery; The film is a plate-shaped solar light illumination device characterized in that provided with at least one of synthetic resin or woven or paper. 17. The method of claim 15, further comprising: the case or plate having a driveable extension, a solar tracking device, a solar generator, a rechargeable battery and a process; The extension unit is provided so as to rotate the case up and down and left and right rotation; The driving of the extension unit includes an algorithm for supplying electric power to the motor and adjusting the driving direction so as to transmit electricity by time or adjust the case direction according to the sun direction of the solar tracking device provided on the case or the front plate. Driven by the process; The electricity is a plate-type solar light lighting device, characterized in that the electricity generated by the solar power provided in the general power or the case or plate stored in the rechargeable battery.

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