KR102057180B1 - Multichannel Interior Mood Light Equipped with Ceiling by using Optical Fiber - Google Patents

Abstract

According to the present invention, a multichannel attachable indoor mood light using optical fiber comprises: an optical fiber attaching plate panel (110) fixed on a ceiling or a wall; a first optical module (120) to guide an LED light of a first color by a first optical fiber bundle (121); a second optical module (130) to guide an LED light of a second color by a second optical fiber bundle (131); a third optical module (140) to guide an LED light of a third color by a third optical fiber bundle (141); and a slave control module (150) including a first optical module control unit (151) to transmit an optical control signal to the first optical module (120), a second optical module control unit (152) to transmit an optical control signal to the second optical module (130), a third optical module control unit (153) to transmit an optical control signal to the third optical module (140), and a wireless communication unit (154) to receive an optical control signal from a smart device (200) via short-range wireless communication and transmit an optical control signal to the first to the third optical module control unit (151, 152, 153). The optical fiber attaching plate panel (110) and the slave control module (150) are modularized in fragment units to control to link each slave control module (150) independently or in an integrated manner by an application associated with indoor mood light control to form a specific pattern and present various lighting effects such as brightness, color combinations, and dimming changes.

Description

Multichannel Interior Mood Light Equipped with Ceiling by using Optical Fiber}

The present invention relates to a multi-channel attached indoor mood light apparatus using an optical fiber, and more specifically, an optical fiber attachment plate panel and a slave control module are modularized by piece units, and each slave control module is controlled through an indoor mood light control related app. The present invention relates to a multi-channel attached indoor mood light device using optical fibers that can be controlled independently or integrally to produce a variety of lighting effects while varying brightness, color combinations and dimming while forming specific patterns.

As is well known, various patterns of lighting effects are produced using optical fibers to create an atmosphere in an indoor space. For this purpose, optical fiber bundles arranged in various patterns on an optical fiber attachment plate attached to a ceiling or a wall, and light are optically It consists of a LED light module to guide the bundle, a control unit for controlling the LED light module, and a power supply unit for supplying driving power by converting the external power to the control unit.

Indoor mood light using such a conventional optical fiber, while fixing the fiber mounting plate on the ceiling or wall surface, and performs the wiring of the control signal line and the power line connected to the control unit and the power supply, such a separate wiring is very cumbersome, The construction process of the interior mood is complicated, and the wiring is inevitably exposed to the outside, which may hinder the atmosphere of lighting.

Accordingly, a technology for more easily performing the ceiling or wall attachment process of the optical fiber attachment plate, eliminating the wiring of the control signal line and the power line, and controlling the lighting output of various patterns in real time is required.

Korea Patent Publication No. 1893877 (Smartphone linked mood light, 2018.08.27) Korean Utility Model Registration No. 0487861 (Framed LED mood light, 2018.11.14)

The technical problem to be achieved by the idea of the present invention is to make it easier for the unskilled person to perform the ceiling or wall mounting process of the optical fiber attachment plate, eliminating the wiring work of the control signal line and the power line, and to produce various patterns of lighting in real time. The present invention provides a multi-channel attachable indoor mood light apparatus using optical fibers that can be controlled.

In order to achieve the above object, the present invention, the optical fiber mounting plate panel formed of a multi-layered fiber layer; A first optical module for guiding the LED light of the first color with the first optical fiber bundle inserted into the optical fiber attachment plate panel in a first specific shape; A second optical module for guiding the LED light of the second color with a second optical fiber bundle inserted into the optical fiber attachment plate panel in a second specific shape; A third optical module for guiding LED light of a third color with a third optical fiber bundle inserted into the optical fiber attachment plate panel and arranged in a third specific shape; And a first optical module controller connected to a signal line and a power line for transmitting an optical control signal to the first optical module, and a second optical module connected to a signal line and a power line for transmitting an optical control signal to the second optical module, respectively. A third optical module controller connected to a control unit, a signal line for transmitting an optical control signal to the third optical module, and a power line, respectively, and receiving the optical control signal through short-range wireless communication from a smart device; It comprises a slave control module, consisting of a wireless communication unit for transmitting to the module control unit, wherein the optical fiber mounting plate panel and the slave control module is formed by grouping by a piece size of a certain size and modularized, a plurality of pieces of optical fiber attachment plate The panel is attached to the ceiling or the wall so as to produce a specific pattern, and the smart device is installed in the control device, such as indoor mood, the interior mood Through the app related app, for each piece of the optical fiber attachment plate panel, generating the light control signal for generating the LED light of the specific pattern of the color and brightness and dimming of the first to third optical modules, respectively, the corresponding slave control module Multi-channel attachment type indoor using optical fiber that transmits light control signals to each other to produce a specific pattern corresponding to the installation space and to control each slave control module to produce various lighting effects of brightness, color combination and dimming change. Provides a mood light device.

Here, the installation area is displayed on the ceiling or wall, which is an installation space, in a puzzle form corresponding to a specific pattern for each unit corresponding to the size of the optical fiber mounting plate panel, and the optical fiber mounting plate panel is attached to the installation area by piece or foam tape. Can be fixed.

In addition, a metal angle of a specific shape connected by wires is arranged and fixed to the ceiling, which is an installation space, and a magnet plate is fixedly formed at an upper end edge of the optical fiber attachment panel, and may be attached and fixed to the angle by the magnet plate. .

In addition, the power connector of the power line for supplying external power to each slave control module may be connected to each other by the optical fiber mounting plate panel and the external power may be integrated and supplied.

In addition, the power connector of the power line for supplying external power to the slave control module is formed on the side of the fiber optic plate panel, the power connector is interlocked with the corresponding power connector formed on the side of another adjacent fiber optic plate. External power can be supplied.

In addition, the indoor mood light control-related app, each of the pieces of fiber-optic plate panel with the engraving unit, the independent light control signal of RGB color, saturation, brightness, dimming depth and dimming speed for each channel of the first to third optical modules Transmits to the corresponding slave control module to perform independent lighting output for each piece of optical fiber panel, or transmits the optical control signals interoperated with each piece of optical fiber panel to the slave control module. It is possible to perform integrated lighting output in a mode.

The indoor mood light control related app may list and store the illumination output settings, load the illumination output settings of the list, and transmit an optical control signal to the slave control module.

The first optical module, the second optical module, or the third optical module may include an insertion hole into which the optical fiber bundle is inserted, a connection hole into which the corresponding signal line and a power line are inserted, and a specific pattern by the optical control signal. It may be composed of an LED module for irradiating LED light.

In addition, a tray-shaped metallic rail is arranged and fixed to the ceiling, which is an installation space, by a screw screw, and a magnetic plate is fixedly formed at an upper end edge of the optical fiber attachment panel panel, and is attached to the rail by the magnetic plate or an adhesive member. Can be fixed.

The apparatus may further include an F-shaped fixing bracket fixed in a vertical direction from the ceiling to insert and fix the side surface of the outermost fiber optic panel, or further comprising an indirect lighting installation structure between the outermost fiber optic panel and the wall. can do.

In addition, a pair of fixing holes may be formed adjacent to the side of the rail, and hooks connected by strings may be formed at upper edges of the optical fiber attachment plate panel, and the hooks may be coupled to the fixing holes.

In addition, the optical fiber mounting plate panel is formed in a rectangular shape, an elliptical shape or a circular shape, a metal reinforcing material corresponding to the shape is fixed to the top surface is installed on the ceiling, the optical fiber mounting plate panel corresponding to the metal reinforcing material A magnet plate is fixedly formed on an upper surface of the fiber plate, and the optical fiber mounting plate panel and the metal reinforcing material are coupled to each other by the magnet plate.

In addition, the indirect illumination of the optical fiber may be installed on the outer surface of the metal reinforcing material.

According to the present invention, there is an effect that can be adaptively installed corresponding to the size of the indoor space by modularizing the fiber optic plate panel and the slave control module by the standardized piece unit.

In addition, through the control-related apps such as the indoor mood of the smart device, by controlling each slave control module independently or integrated to form a specific pattern, it is easy to produce various lighting effects of brightness and color combination and dimming change There is.

In addition, by generating a light control signal to control the light control module in real time there is an effect that can be applied to the lighting output in the field in real time.

In addition, there is an effect to easily perform the construction by attaching the optical fiber mounting plate panel in the form of a puzzle by a piece, foam tape or magnetic plate on the ceiling or the wall on which a specific pattern is formed.

Furthermore, separate signal line wiring work is unnecessary by wireless control by smart devices, and the installation is easily performed by integrating and supplying external power without separate wiring work by the male and female power connectors formed on the side of each optical fiber attachment plate panel. It is effective to make the interior construction easy even for the unskilled person.

Figure 1 schematically shows the configuration of a multi-channel attached indoor mood light apparatus using an optical fiber according to an embodiment of the present invention.
FIG. 2 illustrates a front configuration and a rear configuration of a multi-channel attached indoor mood lamp device using the optical fiber of FIG. 1.
3 is a view illustrating an optical control module having a rear structure of a multi-channel attached indoor mood lamp device using the optical fiber of FIG. 2.
Figure 4 is an enlarged view of the optical control module and the slave control module of the rear configuration of the multi-channel attached indoor mood light apparatus using the optical fiber of FIG.
5 is a circuit diagram of a slave control module of the multi-channel attached indoor mood lamp device using the optical fiber of FIG.
FIG. 6 illustrates a network configuration of a slave control module and a smart device of a multi-channel attached indoor mood light apparatus using the optical fiber of FIG. 2.
FIG. 7 illustrates a construction method of an optical fiber mounting plate panel of a multi-channel attachable indoor mood lamp device using the optical fiber of FIG. 2.
FIG. 8 illustrates a UI screen configuration of an indoor mood light control related app of the multi-channel attached indoor mood light apparatus using the optical fiber of FIG. 2.
FIG. 9 illustrates a method for constructing an optical fiber mounting plate panel by rails of an apparatus for attaching a multichannel indoor light using the optical fiber of FIG. 2.
FIG. 10 illustrates a construction method of an optical fiber mounting plate panel by a bracket of a multi-channel attachable indoor mood light apparatus using the optical fiber of FIG. 2.
FIG. 11 illustrates a construction method of an optical fiber mounting plate panel by a hook of a multi-channel attachable indoor mood light apparatus using the optical fiber of FIG. 2.
FIG. 12 illustrates a construction method using various types of optical fiber mounting plate panels and metal reinforcing materials of a multi-channel attachable indoor mood light apparatus using the optical fiber of FIG. 2.

Hereinafter, with reference to the accompanying drawings will be described in detail an embodiment of the present invention having the above-described features.

1 to 6, the multi-channel attachment type indoor mood light apparatus using the optical fiber according to the embodiment of the present invention, the optical fiber panel plate 110, the first optical fiber bundle (fixed to the ceiling or wall as a whole) 121, the first optical module 120 to guide the LED light of the first color, the second optical module 130 to guide the LED light of the second color with the second optical fiber bundle 131, the third optical fiber bundle ( 141, a third optical module 140 for guiding the LED light of the third color, a first optical module controller 151 for transmitting an optical control signal to the first optical module 120, and a second optical module ( A second optical module controller 152 for transmitting an optical control signal to the 130, a third optical module controller 153 for transmitting an optical control signal to the third optical module 140, and a short range from the smart device 200; Consists of a slave control module 150, consisting of a wireless communication unit 154 for receiving an optical control signal through wireless communication and transmitting to the first to third optical module control unit (151, 152, 153). , The fiber optic panel 110 and the slave control module 150 are modularized by piece units, and control each slave control module 150 independently or integrally through a control-related app such as indoor mood to control a specific pattern. The main idea is to produce various lighting effects of brightness, color combination and dimming change.

First, as shown in FIGS. 1 and 2, the optical fiber attachment plate panel 110 is formed of a standardized non-flammable multilayered fiber layer, and the optical fiber strands of the optical fiber bundles 121, 131, and 141 are inserted into the fiber layer from the rear side to the front side. One end of the optical fiber strand on the front surface is exposed to the outside of the front surface can be configured to produce a specific shape lighting effect (see Fig. 2 (c)).

Here, the optical fiber strands may be fixed by the silicone adhesive 111 (see FIG. 3) after insertion from the rear surface of the optical fiber attachment plate panel 110.

On the other hand, the fiber-optic plate panel 110 is urethane coated in addition to the fiber layer. wood. MDF. LPM. PET. PVC material. Membrane. Thermal transfer. acryl. FRP. Sound insulation. Sound absorbing material. Synthetic resin. Processing material. Artificial stone. Aluminum panel. It may include any one or more of the iron plate or PB.

Next, the first optical module 120 guides the LED light of the first color with the first optical fiber bundle 121 inserted and arranged in the first specific shape on the optical fiber attachment plate panel 110.

For example, as shown in FIG. 4A, the first optical module 120 includes an insertion hole 122 into which the optical fiber bundle 121 is fixed and a corresponding signal line from the slave control module 150. The connector 123 into which the power line is drawn may be formed, and an LED module (not shown) for irradiating LED light of a specific pattern by the light control signal of the signal line.

Next, the second optical module 130 guides the LED light of the second color with the second optical fiber bundle 131 inserted into the optical fiber attachment plate panel 110 in a second specific shape.

For example, as shown in FIG. 4A, the second optical module 130 includes an insertion hole 132 into which the optical fiber bundle 131 is inserted and fixed, and a corresponding signal line from the slave control module 150. The connector 133 into which the power line is inserted may be configured, and an LED module (not shown) for irradiating LED light of a specific pattern by the light control signal of the signal line.

Next, the third optical module 140 guides the LED light of the second color with the second optical fiber bundle 131 inserted into the optical fiber attachment plate panel 110 in a third specific shape.

For example, as shown in (b) of FIG. 4, the third optical module 140 includes an insertion hole 142 into which the optical fiber bundle 141 is inserted, and a corresponding signal line from the slave control module 150. The connector 143 into which the power line is drawn may be included, and the LED module 144 irradiating LED light of a specific pattern by the light control signal of the signal line.

Next, as illustrated in FIGS. 1, 4, and 5, the slave control module 150 may include a first optical module controller to which a signal line and a power line, which transmit an optical control signal to the first optical module 120, are respectively connected. 151, a second optical module controller 152 connected to a signal line for transmitting an optical control signal to the second optical module 130, and a power line, respectively, and an optical control signal to the third optical module 140. Receives the optical control signal from the third optical module control unit 153 connected to the signal line and the power line, respectively, and the smart device 200 through short range wireless communication such as RF, ZigBee, Bluetooth, WiFi, NFC, or beacon. The wireless communication unit 154 transmits to the first to third optical module controllers 151, 152, and 153, and a power supply unit 155 for converting a voltage applied from the outside into the corresponding optical module driving power.

Here, the smart device 200 is not limited to the smart phone illustrated in FIG. 1, and may include all master devices capable of wireless communication with the wireless communication unit 154.

In addition, as shown in FIG. 1, an independent controllable optical module may be defined as a channel, and the aforementioned optical module and the corresponding optical module controller are not limited to three channels, but the channel of the optical module and the optical module controller. The number may be increased or decreased depending on the installation environment or the size and needs of the fiber optic plate panel 110.

On the other hand, Figure 7 illustrates the construction method of the optical fiber mounting plate panel of the multi-channel attachment type indoor mood light apparatus using the optical fiber of FIG.

Referring to FIG. 7, the fiber optic plate panel 110 and the slave control module 150 are formed by grouping pieces of a predetermined size into pieces and modularized. Arranged and fixed to the ceiling or wall to produce the.

Here, a pattern of a specific pattern is installed in a puzzle form for each unit corresponding to the size of the mounting plate on the ceiling or wall, which is an installation space, to produce a pattern of a specific pattern by the corresponding fiber bundles 121, 131, and 141 of the fiber attachment plate panel 110. Areas may be displayed or separated by symbols of numbers or letters, so that the attachment of the fiber optic plate panel 110 may be easily performed.

On the other hand, as a construction method, as shown in Fig. 7 (a), the optical fiber mounting plate panel 110 is a piece 112 or foam tape (not shown) on the ceiling or wall in accordance with the pattern of the specific pattern of the installation area Can be attached and fixed directly.

Alternatively, as a construction method, as shown in (b) of FIG. 7, the magnet plate 113 is fixedly formed at the edge of the top surface of the optical fiber attachment panel panel 110, and a metal plate of a ceiling or a wall surface which is an installation space (not shown). ) Can be attached and fixed by magnetic force.

Alternatively, as a construction method, as shown in (c) of FIG. 7, a metal angle 114 having a specific shape connected by wires to the ceiling, which is an installation space, is arranged and fixed, and the upper end of the optical fiber mounting plate panel 110 is formed. Magnetic plate 113 is fixed to the surface edge, it can be attached and fixed to the angle 114 by the magnetic plate 113 by a magnetic force.

Meanwhile, FIG. 8 illustrates a UI screen configuration of an indoor mood light control related app of the multi-channel attached indoor mood light apparatus using the optical fiber of FIG. 2.

Referring to FIG. 8, the smart device 200 is installed with a control-related app such as an indoor mood, and the UI unit of the control-related app such as indoor mood, for each piece of optical fiber attachment plate panel 110, first to third. Slave control module by generating optical control signals of hue, brightness, depth of dimming and dimming speed of RGB and SATURATION of LED module of optical module 120, 130, 140, respectively By wirelessly transmitting the light control signal to each of the 150, to produce a specific pattern corresponding to the installation space and to control each slave control module 150 can produce a variety of lighting effects of brightness and color combination and dimming change.

Thus, as shown in Figure 8 (a), the indoor mood light control-related app, RGB color and saturation for each channel of the first to third optical module (120, 130, 140) piece by piece unit fiber attachment plate panel 110, And transmits independent light control signals of brightness, dimming depth, and dimming speed to the corresponding slave control module 150 to perform independent lighting output for each piece of optical fiber panel plate 110 in pieces. As shown in a), the optical speed control signal of the speed of panorama, brightness, dimming depth, and dimming speed, which are interlocked with each other by the fiber-optic panel panel 110, is transmitted to each slave control module 150. It is possible to perform the integrated lighting output in the panorama mode.

That is, the independent unit of light output for each piece of optical fiber mounting plate panel 110 may be performed, or the integrated unit of light output may be performed by integrating the piece of optical fiber mounting plate panel 110.

In addition, the control-related apps such as indoor mood, list and store the light output settings (SAVE), load the light output settings of the list and transmits the light control signal to the slave control module 150 to reset the light of a specific pattern without resetting You can also perform the production conveniently.

On the other hand, although not shown, the power connector of the power line for supplying external power to each slave control module 150 may be connected to each optical fiber attachment plate panel 110 to be integrated with the external power supply.

Alternatively, as shown in FIG. 7A, the power connector 115 of the power line for supplying external power to the slave control module 150 is formed on the side surface of the optical fiber attachment plate panel 110 and the power connector. 115 may be coupled to the corresponding power connector formed on the side of the other optical fiber attachment plate adjacent to each other to supply external power.

For example, the male power connector 115 and the female power connector (not shown) formed on each side of the optical fiber attachment plate panel 110 may be provided without a separate power connection configuration exposed to the outside. By the arrangement of the optical fiber panel plate 110, the external power may be supplied by interlocking by the male and female connections of the power connector 115 of the optical fiber panel plate 110 that the sides are in contact with each other.

Thus, even without a separate wiring work for external power supply, by supplying the external power to each slave control module 150 only by the arrangement of the optical fiber panel plate 110, it is possible to perform the construction work easily and simply.

In addition, Figure 9 illustrates the construction method of the optical fiber mounting plate panel by the rail of the multi-channel attachment type indoor mood light apparatus using the optical fiber of FIG.

Referring to FIG. 9, a tray-shaped metallic rail 160 is arranged and fixed to a ceiling, which is an installation space, by a screw screw 161 (see FIG. 11A), and the optical fiber mounting plate panel 110 is formed. The magnet plate 113 is fixedly formed at the top edge, and is attached to the rail 160 by the magnet plate 113 or a separate adhesive member, such that the optical fiber mounting plate panel 110 may be installed on the ceiling.

In addition, FIG. 10 illustrates a method of constructing an optical fiber mounting plate panel by a bracket of a multi-channel attachable indoor mood light apparatus using the optical fiber of FIG. 2.

Referring to FIG. 10, the apparatus further includes an F-shaped fixing bracket 171 fixed in the vertical direction from the ceiling to insert and fix the side surface of the outermost optical fiber mounting plate panel 110, or the outermost optical fiber mounting plate panel 110. Indirect lighting may further include an indirect lighting installation structure (not shown) between the walls and the wall to further produce an auxiliary mood effect by indirect lighting.

In this case, the magnet plate 113 or a separate adhesive member may be attached to and fixed to a rail (not shown), so that the optical fiber attachment plate panel 110 may be installed on the ceiling.

In addition, Figure 11 illustrates the construction method of the optical fiber mounting plate panel by the hook of the multi-channel attachment type indoor mood light apparatus using the optical fiber of FIG.

Referring to FIG. 11, a pair of fixing holes 162 are formed adjacent to a side surface of the rail 160 (see (a)), and a string 181 is connected to an upper edge of the fiber attachment plate panel 110. Hook 182 is formed (see (b)), the hook 182 may be coupled to the fixing hole 162.

For example, the hook 182 is fixed to the fixing hole 162 of one rail 160 and then the other pair of hooks 182 is fixed to the fixing hole 162 of the other rail 160. Fixed by walking, even if the size of the optical fiber mounting plate panel 110 is difficult to handle by the operator alone, by the sequential hook fixation can be easily and simply perform the ceiling installation alone.

In addition, FIG. 12 illustrates a construction method using various types of optical fiber mounting plate panels and metal reinforcing materials of the apparatus such as a multi-channel attachment type indoor mood using the optical fiber of FIG. 2.

Referring to FIG. 12, the optical fiber mounting plate panel 110 is formed in a rectangular shape (a, b), an elliptical shape (c), or a circular shape (d), and the above-described surface of the optical fiber mounting plate panel 110 is described above. A metal reinforcing member 191 corresponding to a specific shape is fixed and installed on the ceiling, and a magnet plate (not shown) is fixedly formed on the top surface of the optical fiber attachment plate panel 110 in correspondence with the metal reinforcing member 191, and the magnetic plate By coupling the optical fiber mounting plate panel 110 and the metal reinforcing material 191 with each other, it is possible to install the optical fiber mounting plate panel 110 of various sizes and shapes on the ceiling.

Here, although not shown, the indirect illumination of the optical fiber 191 is installed on the outer surface of the metal reinforcing material 191, by the indirect illumination may further produce an effect such as auxiliary mood.

Therefore, by the configuration of a multi-channel attached indoor mood light apparatus using the optical fiber as described above, the optical fiber attachment plate panel and the slave control module can be modularized for each of the standard pieces and adaptively installed corresponding to the size of the indoor space. Through the control-related apps such as indoor mood of smart devices, each slave control module can be controlled independently or integrated to form a specific pattern, and can easily produce various lighting effects of brightness and color combination and dimming change. It generates light control signal and controls light control module in real time so that lighting output can be applied in real time in real time, and it is possible to make a fiber-optic plate panel in puzzle form by piece, foam tape or magnetic plate on ceiling or wall with a specific pattern. Easy to carry out construction by attaching Wireless signal control eliminates the need for separate signal line wiring, and the male and female power connectors on each side of the fiber-optic plate panel allow the external power source to be integrated and supplied without additional wiring, simplifying the installation process and making it easier for even unskilled people. Can be carried out construction.

The embodiments described in the specification and the drawings shown in the drawings are only the most preferred embodiments of the present invention, and do not represent all of the technical idea of the present invention, and various equivalents may be substituted for them at the time of the present application. It should be understood that there may be water and variations.

110: fiber optic attachment panel panel 111: silicone adhesive
112: piece 113: magnetic plate
114: angle 115: power connector
120, 130, 140: first to third optical module
121,131,141: first to third optical fiber bundles
122,132,142: Insertion port 123,133,143: Connector
144: LED module 150: slave control module
151, 152, 153: first to third optical module control unit
154: wireless communication unit 155: power unit
160: rail 161: screw screw
162: fixing hole 171: fixing bracket
181: string 182: hook
191: metal reinforcement

Claims (13)

A plurality of optical fiber attachment plate panels formed of a multi-layered fiber layer;
A first optical module for guiding the LED light of the first color with the first optical fiber bundle inserted into the optical fiber attachment plate panel in a first specific shape;
A second optical module for guiding the LED light of the second color with a second optical fiber bundle inserted into the optical fiber attachment plate panel in a second specific shape;
A third optical module for guiding LED light of a third color with a third optical fiber bundle inserted into the optical fiber attachment plate panel and arranged in a third specific shape; And
A first optical module controller connected to a signal line and a power line for transmitting an optical control signal to the first optical module, and a second optical module controller connected to a signal line and a power line for transmitting an optical control signal to the second optical module, respectively. And a third optical module controller connected to a signal line for transmitting an optical control signal to the third optical module and a power line, respectively, and receiving the optical control signal through short-range wireless communication from a smart device. Includes; slave control module, consisting of a wireless communication unit for transmitting to the control unit,
The fiber optic plate panel and the slave control module are formed by grouping each piece unit of a predetermined size into a modular form, and a plurality of pieces of fiber unit plate panel is fixed to the ceiling or wall to produce a specific pattern,
The smart device is installed with a control-related app such as indoor mood, and the specific pattern of the color, brightness and dimming of the first to third optical modules, for each piece of the fiber-attached plate panel by the engraving unit through the indoor mood-control related app Generates a light control signal for generating LED light of each of the light beams and transmits the light control signal to the corresponding slave control module, respectively, to produce a specific pattern corresponding to the installation space, and to control each of the slave control modules with brightness and color combinations; Produce various lighting effects of dimming change,
The optical fiber attachment plate panel is formed of the same standard, the power connector of the power line for supplying external power to the slave control module is formed on the side of the optical fiber attachment plate panel, the optical fiber attachment plate contact when the optical fiber attachment panel panels are installed The power connector of the plate panel is disposed facing each other and coupled to each other by being connected to each other by the optical fiber plate attached panel panel, the external power is integrated and supplied, multi-channel attached indoor mood light device using the optical fiber.
The method of claim 1,
The installation area is displayed on the ceiling or wall, which is an installation space, in a puzzle form corresponding to a specific pattern for each unit corresponding to the size of the optical fiber mounting plate panel, and the optical fiber mounting plate panel is fixed to the installation area by piece or foam tape. A multi-channel attachment type indoor mood light device using an optical fiber, characterized in that the.
The method of claim 1,
A metal angle of a specific shape connected by wires to the ceiling, which is an installation space, is arranged and fixed, and a magnet plate is fixedly formed at an upper end edge of the optical fiber attachment plate panel, and is fixed to the angle by the magnet plate. , Multi-channel attached indoor mood light device using optical fiber.
delete delete The method of claim 1,
The indoor mood control related apps,
For each piece of the fiber-optic plate panel, each piece of RGB color, saturation, brightness, dimming depth and dimming speed is transmitted to the corresponding slave control module for each channel of the first to third optical modules. Independent lighting output can be performed for each fiber optic panel.
Multi-channel attached indoor mood light apparatus using optical fiber, characterized in that to transmit the light control signal interlocked by each piece of the optical fiber attachment plate panel to the slave control module to perform the integrated light output in the panoramic mode. .
The method of claim 6,
The indoor mood light control-related apps list and store the illumination output settings, load the illumination output settings of the list, and transmit an optical control signal to the slave control module. Attached indoor mood light device.
The method of claim 1,
The first optical module, the second optical module, or the third optical module includes an insertion hole into which the optical fiber bundle is inserted and fixed, a connection hole into which the corresponding signal line and a power line are inserted, and an LED light having a specific pattern by the optical control signal. Multi-channel attached indoor mood light device using an optical fiber, characterized in that consisting of an LED module for irradiating.
The method of claim 1,
Tray-shaped metallic rails are arranged and fixed to the ceiling, which is an installation space, by a screw screw, and a magnet plate is fixedly formed at an upper end edge of the optical fiber mounting panel panel to be fixed to the rail by the magnet plate or an adhesive member. A multi-channel attachment type indoor mood light device using an optical fiber, characterized in that the.
The method of claim 9,
It further comprises an F-shaped fixing bracket fixed in the vertical direction from the ceiling and the side of the outermost optical fiber mounting plate panel is inserted and fixed,
And an indirect lighting installation structure between the outermost optical fiber mounting plate panel and the wall.
The method of claim 10,
A pair of fixing holes are formed adjacent to the side of the rail, and hooks connected by strings are formed at upper edges of the optical fiber mounting plate panel, and the hooks are coupled to the fixing holes. Multichannel indoor mood light device.
The method of claim 1,
The optical fiber mounting plate panel is formed in a rectangular shape, an elliptical shape or a circular shape, a metal reinforcing material corresponding to the shape is fixed to the top surface is installed on the ceiling, and corresponding to the metal reinforcing material, the top of the optical fiber mounting plate panel Magnetic plate is fixed to the surface, the magnetic plate attached to the optical fiber mounting plate panel and the metal reinforcing material, characterized in that the mutual channel-attached indoor mood light apparatus using the optical fiber.
The method of claim 12,
The outer surface of the metal reinforcing material is characterized in that the optical fiber indirect illumination is installed, multi-channel attached indoor mood light apparatus using the optical fiber.

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