KR20080072229A - Remote control and monitoring system for lighting and light thereof - Google Patents

Abstract

A remote lighting control and monitoring system and a lighting apparatus thereof are provided to control and monitor a plurality of lighting apparatuses in a wide area remotely by including a remote controller and a plurality of relays. A remote lighting control and monitoring system includes a remote monitoring system(10), a remote controller(12), relays(141-14M), and wireless communication modules. The remote monitoring system has identification information about some of a plurality of lighting apparatuses and generates control commands for turning on/off, illumination, and color. The remote controller converts the control commands into wireless signals and wirelessly transmits the wireless signals. The relays wirelessly relay the control commands received from the remote controller. The wireless communication modules transmit control data for controlling turning on/off, illumination, and color to the lighting apparatuses according to the control commands when the identification information included in the control commands received from the relays corresponds to their own identification information.

Description

Remote control and monitoring system for landscape lighting, and lighting device accordingly {REMOTE CONTROL AND MONITORING SYSTEM FOR LIGHTING AND LIGHT THEREOF}

1 is a block diagram of a landscape lighting wireless control system according to a preferred embodiment of the present invention.

2 is a view showing a grouping of lighting devices according to a preferred embodiment of the present invention.

Figure 3 is a block diagram of a wireless communication module and a lighting device according to a preferred embodiment of the present invention.

4 is a rear view of the lighting apparatus according to the preferred embodiment of the present invention.

5 is a side cross-sectional view of a lighting apparatus according to a preferred embodiment of the present invention.

6 is a flow chart of a landscape lighting remote control and monitoring, simulating method using a control screen according to an embodiment of the present invention.

7 and 8 show an example of the configuration of the control screen according to a preferred embodiment of the present invention.

9 is a flow chart of a landscape lighting radio control method according to a preferred embodiment of the present invention.

10 is a flow diagram of a landscape lighting monitoring method according to a preferred embodiment of the present invention.

* Description of the main symbols in the drawings *

10: remote monitoring system

12: remote control device

141 ~ 14M: First to Mth Wireless Repeaters

161 ~ 18P: Multiple Wireless Communication Modules

201 ~ 20M: First to Mth lighting device group

221 ~ 26P: Multiple lighting devices

32: power supply

34: control unit

36: memory

38: power control unit

40: main lamp

42: LED control unit

44: LED array

461-46Q: First to QLED

48: power measurement unit

The present invention relates to a landscape lighting system, and more particularly to a landscape lighting remote control and monitoring system for wirelessly controlling landscape lighting, and a lighting device accordingly.

The city's landscape lighting can beautify and beautify the city at night, as well as improve the safety and security of citizens, thereby enhancing the dignity of the city. As a result, perceptions of the importance of urban landscapes are spreading across countries with economic growth.

In particular, as the city's activity time is extended to nighttime, human activity is not only daytime, but also nighttime, and 24-hour day and night urbanization phenomenon appears in urban space, and the beauty and comfort of the city is required even at night.

Accordingly, landscape lighting, which is one of the elements that form the urban landscape, becomes part of the urban landscape and maximizes the effect of the urban landscape at night.

In order to realize the beautiful landscape lighting as described above, in the related art, the development of a technology capable of remotely monitoring the operation status of a plurality of lighting devices as well as remote control of lighting and turning off, illuminance and color of a plurality of lighting devices has been developed. It was desperately required.

There is also an urgent need to develop a technology that enables remote control and monitoring of multiple lighting devices scattered over a wide area.

In addition to the simple monitoring of a plurality of lighting devices, the development of a technology that can simulate the landscape lighting by the plurality of installed lighting devices by installing a plurality of lighting devices virtually in a predetermined area.

The present invention is to solve the above problems of the prior art, in order to realize a beautiful landscape lighting, remote control of the lighting and extinction, illuminance, color of a plurality of lighting devices as well as remotely operating state of the plurality of lighting devices It is an object of the present invention to provide a landscape lighting wireless control system and a lighting device accordingly, which can be monitored.

In addition, another object of the present invention to provide a landscape lighting wireless control system and a lighting apparatus according to the remote control and monitoring for a plurality of lighting devices installed scattered over a large area.

In addition, another object of the present invention is to provide a landscape lighting wireless control system and a lighting device according to the installation of a plurality of lighting devices to simulate the landscape lighting by the installed lighting device virtually.

Landscape lighting wireless control system according to the present invention for achieving the above object and to solve the problems of the prior art includes identification information for some of the plurality of lighting devices, and the flashing or illuminance, color control for some of the lighting devices A remote monitoring system for generating control commands for the device; A remote control device which receives the control command and converts it into a wireless signal for wireless transmission; A repeater for wirelessly relaying control commands wirelessly received from the remote control apparatus; When the identification information included in the control command wirelessly received from the repeater corresponds to the identification information thereof, the lighting device may include a plurality of lighting devices that blink or adjust the illuminance or adjust the color according to the control command. .

The present invention as described above allows remote monitoring of lighting and extinction, illuminance, and color of a plurality of lighting apparatuses scattered over a wide area, so as to remotely monitor operating states of a plurality of lighting apparatuses. Make it possible.

The configuration of the landscape lighting wireless control system according to a preferred embodiment of the present invention will be described with reference to FIG.

The landscape lighting wireless control system is largely a remote monitoring system 10 and a remote control device 12, the first to M wireless repeaters (141 ~ 14M), a plurality of wireless communication modules (161 ~ 18P), a plurality of lighting devices (221-26P).

The remote monitoring system 10 is a terminal such as a personal computer. The remote monitoring system 10 generates a control screen for simulating, controlling, and monitoring landscape lighting according to a manager's operation, and performs landscape lighting simulation, control, and monitoring through the control screen. do.

That is, the remote monitoring system 10 transmits a remote control command for turning on, turning off, illuminance, and color of the plurality of lighting devices 221 to 26P grouped into a plurality according to a manager's operation to the remote control device 12. The control function to provide and display the drive state data for the plurality of lighting devices (221 ~ 26P) provided through the remote control device 12 to implement the monitoring function to guide the administrator.

In particular, the remote monitoring system 10 controls the plurality of lighting devices (221 ~ 26P) for each individual, group, the whole, thereby providing the convenience of the lighting direction by the manager.

In addition, the remote monitoring system 10 has a color control table for color control for each lighting device, the color control table has a plurality of colors and each LED flashing information of each LED array for implementing the corresponding color and each LED Array illuminance information is mapped.

The remote control command includes group identification information, individual identification information, main lamp blink information and main lamp illuminance information, LED blink information of each LED array, and illuminance information of each LED as shown in Table 1.

Identification Information Group identification Individual identification information Main Lamp Control Information Main lamp flashing information Main Lamp Illumination Information LED Array Control Information LED blinking information for LED arrays Each LED illuminance information in the LED array

As shown in Table 2, the driving state data of the plurality of lighting devices 221 to 26P includes group identification information, individual identification information, main lamp illuminating state information and main lamp illuminance state information, and LED blinking states of the LED array. Information, each LED illuminance status information of the LED array.

Identification Information Group identification Individual identification information Main Lamp Status Information Main lamp blinking status information Main Lamp Illumination Status Information LED Array Status Information Information on each LED blink state in the LED array Information about each LED illuminance status in the LED array

The remote control device 12 and the remote monitoring system 10 are connected to a commercialized interface such as a USB, and converts the remote control commands provided by the remote monitoring system 10 into remote control data for wireless transmission. And wireless transmission to the first to Mth wireless repeaters 141 to 14M.

In addition, the remote control device 12 transmits the drive status data for a plurality of lighting devices (221 to 26P) wirelessly received from the first to the M-th wireless repeater (141 ~ 14M) via the remote monitoring system ( 10) to provide.

When the first to Mth wireless repeaters 141 to 14M receive the remote control data provided by the remote control device 12 and the group identification information of the remote control data corresponds to the group identification information of the remote control data, The remote control data is wirelessly transmitted to the wireless communication modules 161 to 18P corresponding to the lighting devices 221 to 22N, 241 to 24O, and 261 to 26P of the lighting device groups 201 to 20M.

In addition, the first to Mth wireless repeaters 141 to 14M correspond to the lighting devices 221 to 22N, 241 to 24O and 261 to 26P of the first to Mth lighting device groups 201 to 20M to which they belong. Receives the driving state data provided from the wireless communication modules (161 ~ 18P) to be wirelessly transmitted to the remote control device 12

The lighting devices 221 to 22N, 241 to 24O, and 261 to 26P are grouped according to the installation position to form the first to Mth lighting device groups 201 to 20M. That is, as shown in FIG. 2, the lighting devices scattered in a predetermined area may be grouped into first to third groups according to their installation positions.

The wireless communication modules 161 to 18P connected to each of the first to Mth lighting device groups 201 to 20M include group identification information of the corresponding lighting device and the lighting devices 221 to 22N, 241 to 24O, 261-26P) individual identification information assigned to each is stored.

The wireless communication modules 161 to 18P connected to each of the lighting devices 221 to 22N, 241 to 24O, and 261 to 26P are connected to the remote control data when the remote control data is received through a wireless repeater of the corresponding group. When the individual identification information included corresponds to the individual identification information of the user, the main lamp blinks and controls the illumination of the main lamp according to the main lamp control information included in the remote control data, and controls the LED array included in the remote control data. The main lamp control and the LED array control information according to the remote control data are provided to the corresponding lighting device to control the blinking and illumination of each LED of the LED array according to the information.

In addition, the wireless transmission modules (161 to 18P) connected to each of the lighting devices (221 to 22N, 241 to 24O, 261 to 26P) are connected to the lighting device according to the request of the remote monitoring system (10). Requests information about the flashing state and the illuminance state and the flashing state and the illuminance state of each LED of the LED array, and when the above state information is provided from the lighting apparatus according to the request, the identification information is included in the state information. , Generating driving state data by adding group identification information, and transmitting the driving state data to the remote monitoring system 10 through a wireless repeater of the corresponding group.

Since the lighting devices 221 to 22N, 241 to 24O, 261 to 26P and the corresponding wireless transmission modules 161 to 18P have the same configuration and operation, the lighting devices 221 to 22N and 241 are the same. Only the configuration and operation of any one of 221 of 260, 261 and 26P will be described with reference to FIGS.

The wireless transmission module 161 and the lighting device 221 are connected through a wireless communication module connector and a lighting device connector having a plurality of pins.

The wireless transmission module 161 provides control information for controlling the main lamp 40 and control information for controlling the LED array 44 through predetermined pins of the first and second connectors. And the state information received from the lighting device 201 is received through the wireless communication module connector and other predetermined pins of the lighting device connector.

The lighting device 221 is largely a power supply unit 32, control unit 34, memory unit 36, power control unit 38, main lamp 40, LED control unit 42, LED array 44, power measurement The part 48 is comprised.

The wireless communication module 30 provides the remote control data received from the wireless repeater 141 of the lighting device group 201 to the controller 34, and provides driving state information provided by the controller 34. Provided to the wireless repeater 141.

The power supply unit 32 supplies power to each of the lighting devices 221.

The controller 34 controls the main lamp 40 and the LED array 44 according to the control information of the main lamp 40 and the LED array 44 received through the wireless communication module 161.

That is, the controller 34 supplies driving power to the main lamp 40 or cuts off the supply of the main lamp 40 according to the main lamp blinking information received through the wireless communication module 161. The power control unit 38 is controlled to control the blinking.

In addition, the controller 34 controls the illuminance of the main lamp 40 by controlling the phase of driving power supplied to the main lamp 40 according to the main lamp illuminance information received through the wireless communication module 161. do.

In addition, the control unit 34 supplies driving power to each of the LEDs 461 to 46Q of the LED array 44 according to the LED blinking information of the LED array 44 received through the wireless communication module 161. The LED control unit 42 is controlled to block the supply to control the blinking of the LEDs 461 to 46Q.

In addition, the controller 34 adjusts the phase of the driving power of each of the LEDs 461 to 46Q of the LED array 44 according to the LED illumination information of the LED array 44 received through the wireless transmission module 161. By controlling, the illuminance of each of the LEDs 461 to 46Q is controlled.

The memory unit 36 stores various information including a processing program of the control unit 34.

The power controller 38 supplies driving power to the main lamp 40 or cuts off the supply of the main lamp 40 under the control of the controller 34 to turn on or turn off the main lamp 40. In addition, the power control unit 38 controls the potential or phase of the driving power source of the main lamp 40 under the control of the control unit 34, thereby changing the illuminance of the main lamp 40.

The main lamp 40 is a halogen or sodium lamp, and serves as a white light source of the lighting device.

The LED controller 42 supplies driving power to or blocks supply of the LEDs 461 to 46Q of the LED array 44 according to the control of the controller 34, thereby preventing the LEDs 461 to 46Q. Lights or flashes. In addition, the LED controller 42 controls the illuminance of each of the LEDs 461 to 46Q by controlling the potential or the phase of the driving power supplied to each of the LEDs 461 to 46Q under the control of the controller 34. do.

The LED array 44 is composed of a plurality of LEDs (461 ~ 46Q) arranged in a circle around the main lamp (40), the plurality of LEDs (461 ~ 46Q) are arranged in alternating LEDs of RGB colors Is installed. This is to allow the RGB color light emitted from the plurality of LEDs 461 to 46Q and the white light from the main lamp 40 to be evenly mixed to output light of beautiful color.

In addition, the power measuring unit 48 measures power consumption of the main lamp 40 and the plurality of LEDs 461 to 46Q and provides the power to the control unit 34, and the control unit 34 includes the main lamp 40 and The flashing state and the illuminance state of the main lamp 40 and the plurality of LEDs 461 to 46Q may be detected based on power consumption of the plurality of LEDs 461 to 46Q.

4 and 5, a fluorescent dye is coated on an inner surface of the lamp protective film 50 and accommodates a plurality of LEDs 461 to 46Q arranged in a circle around the main lamp 40. It protects the main lamp 40 and the plurality of LEDs 461 to 46Q, and increases the amount of light of the main lamp 40 and the plurality of LEDs 461 to 46Q.

In particular, a plurality of LEDs 461 to 46Q of the LED array 44 are formed with a blocking film 54 for blocking heat generated from the main lamp 40, so that the LED array 44 is connected to the main lamp ( It is not damaged by the heat generated from 40).

In addition, the circuit housing 52 disposed on the upper surface of the lamp protection film 50 has the wireless communication module 30, the power supply unit 32, the control unit 34, the memory unit 36, the power control unit 38, and the LED control unit. 42, the power measuring unit 48 and the like are accommodated.

Now, a process of configuring a control screen for simulating, controlling, and monitoring landscape lighting by an administrator during the operation of the landscape lighting wireless control system configured as described above, simulating landscape lighting, controlling, The process of implementing the monitoring will be described with reference to FIG. 6.

The remote monitoring system 10 checks whether a control screen configuration is requested by an administrator.

When the control screen configuration is requested, the bird's-eye view selected by the administrator is loaded or captured and displayed as shown in FIG. 7A (step 100). Here, the bird's eye view is a bird's-eye view produced by a construction company.

After loading the bird's-eye view, the remote monitoring system 10 receives the positions of the plurality of lighting devices on the loaded bird's-eye view according to an administrator's operation using an unshown user interface or the like, and marks the bird's-eye view in steps 102 and 104. ). Here, by double-clicking the location information of the lighting device marked on the bird's eye view, it is possible to input the detailed information about the marked lighting device.

When the remote monitoring system 10 double-clicks the marked lighting device location information, the remote monitoring system 10 displays a window for inputting lighting device detailed information as shown in FIG. It receives and stores the group name of the device, the icon corresponding to the lighting device, the group identification information of the lighting device, and the individual identification information of the lighting device, and marks the icon of the lighting device at the designated position of the bird's eye view.

As described above, when all the detailed information about all the lighting apparatuses are input and set, the remote monitoring system 10 is connected to the bird's eye view and detailed information about the plurality of lighting apparatuses as shown in FIG. Create a control screen by combining the lighting device icons accordingly.

On the upper side of the control screen shown in (a) of FIG. 8, the background brightness and the illumination brightness are varied as shown in (b) of FIG. 8, so that landscape lighting by illumination can be easily performed in a dark environment. There is a variable window for background and lighting brightness that can be rated.

On the right side of the control screen shown in (a) of FIG. 8, a window for changing detailed information of individual lighting devices is located as shown in (c) of FIG. 8.

On the left side of the control screen shown in FIG. 8A, as shown in FIG. 8D, the main lamp blinks, illuminance, blinks each LED of the LED array, and controls illuminance of each LED as shown in FIG. Control window is located.

When the configuration of the control screen is completed as described above, the remote monitoring system 10 receives a simulation control command for a group or an individual lighting device according to the simulation request of the administrator, and the corresponding lighting device in the control screen. Flashing, illuminance, color change, screen brightness and illumination brightness are varied to enable simulation according to the manager's request (steps 110 and 112).

In addition, the remote monitoring system 10 generates a remote control command for a group or individual lighting device according to the remote control request of the administrator and transmits the remote control command to the corresponding lighting device, thereby performing remote control of the lighting device according to the remote control request. (Steps 114,116).

In addition, the remote monitoring system 10 requests status information to all lighting devices according to a monitoring request from an administrator, and if all lighting devices provide status information according to the request, the remote monitoring system 10 displays all of the lighting information through the control screen. The state of the lighting device is guided (steps 118 and 120).

The operation of the landscape lighting wireless control system configured as described above will now be described in detail with reference to FIGS. 9 and 10.

First, the remote control process will be described with reference to FIG. 9.

The remote monitoring system 10 receives various selection information for implementing landscape lighting from the manager. The selection information may be a command for blinking the main lamp, adjusting the brightness of the main lamp, and controlling the color of the lighting devices in the group unit or the individual lighting devices. When the color control command is input from the manager, the remote monitoring system 10 reads a flashing and dimming control command for each of the LEDs of the LED array corresponding to the corresponding color from the table.

Thereafter, the remote monitoring system 10 transmits the identification information on the group and individual lighting devices selected from the manager, the main lamp flashing and illuminance, and the flashing and illuminance of each of the LEDs of the LED array as landscape lighting control commands. It is configured and provided to the remote control device 12 (steps 60 and 62).

The remote control device 12 converts the landscape lighting control command into landscape lighting control data for wireless transmission and transmits the landscape lighting control data to the plurality of wireless repeaters 141 to 14M (steps 64 and 66).

Each of the plurality of wireless repeaters 141 to 14M checks whether the group identification information included in the received landscape lighting control data corresponds to its own group identification information, and checks the group identification information included in the received landscape lighting control data. If the corresponding to the group identification information, it is wirelessly transmitted to the plurality of wireless communication modules (161 ~ 18P) of the plurality of lighting devices (221 ~ 26P) to which they belong (step 68).

When the plurality of wireless communication modules (161 to 18P) correspond to their respective identification information included in the received landscape lighting control data, the main lamp flashes and illuminance and LEDs included in the landscape lighting control data. The control data on the blinking and illuminance of each of the LEDs of the array is provided to the corresponding lighting devices 221 to 26P (step 69), and each lighting device 221 to 26P is connected to the main lamp and the LED array according to the control data. By adjusting the blinking and illuminance of the LEDs, the landscape lighting selected by the manager is implemented (step 70).

The remote monitoring process will now be described with reference to FIG.

When the monitoring request for the landscape lighting is generated from the administrator, the remote monitoring system 10 generates driving state data request information and transmits the driving state data request information to the remote control apparatus 12 (steps 72 and 74). Here, the driving state data request information includes identification information of all lighting devices of the entire lighting device group.

When the driving state data request information is received, the remote control apparatus 12 transmits it to the plurality of wireless repeaters 141 to 14Q (step 76).

The plurality of wireless repeaters 141 to 14Q transmit the driving state data request information to the plurality of lighting devices 221 to 26P through the plurality of wireless communication modules 161 to 18P (steps 78 and 80).

The plurality of lighting devices 221 to 26P detect flashing states and illuminance of each of the LEDs of the main lamp and the LED array according to the driving state data request information, and respectively detect the LEDs of the detected main lamp and the LED array. The driving state data is generated by adding the information indicating the blinking state and illuminance of the generated state, and the generated driving state data is transmitted to the plurality of wireless repeaters 141 to 14Q through the plurality of wireless communication modules 161 to 18P ( 82,84,86 steps).

The plurality of wireless repeaters 141-14Q wirelessly transmit the driving state data to the remote control device 12, and the remote control device 12 transmits the received driving state data to the remote monitoring system 10. (88, 90 steps).

The remote monitoring system having received the driving state data guides the driving state of the plurality of lighting apparatuses to the manager according to the driving state data (step 92).

In the above-described embodiment of the present invention, only a plurality of lighting devices transmit driving state data at the request of an administrator, but the main lamp according to the landscape lighting control data provided by the lighting device from the remote monitoring system 10. And when the blinking state and illuminance of each of the LEDs of the LED array and the blinking state and the illuminance of each of the LEDs of the actual main lamp and the LED array are different, generate the driving state data and transmit the generated state data to the remote control system 10. It will be apparent to those skilled in the art by the present invention that the present invention can be implemented to enable efficient management.

Also, unlike the above, when the lighting apparatus periodically generates the driving state data and transmits the driving state data to the remote control system 10, the remote control system 10 LEDs of the main lamp and the LED array according to the landscape lighting control data. It is also apparent to those skilled in the art by the present invention that it is possible to determine whether the blinking state and illuminance for each of the LEDs of the actual main lamp and the LED array are different and to guide the administrator.

In addition, in the above-described embodiment of the present invention, only one group of lighting devices is formed per wireless repeater, but a small group consisting of a small number of lighting devices is formed to provide ease of landscape lighting design by the administrator. It will be apparent to those skilled in the art by the present invention that a plurality of small groups can be bundled to form a medium or large group, and the collective control of the lighting devices belonging to the small group or the medium / large group can be enabled.

The present invention as described above has the advantage of enabling remote monitoring of the operating state of a plurality of lighting devices as well as remote control of lighting and turning off, illuminance, color of a plurality of lighting devices to realize a beautiful landscape lighting.

In addition, the present invention has the advantage of configuring the wireless communication system with a remote control device and a plurality of repeaters, enabling remote control and monitoring of a plurality of lighting devices scattered over a wide area.

As described above, the present invention has been described by way of limited embodiments and drawings, but the present invention is not limited to the above-described embodiments, which can be variously modified and modified by those skilled in the art to which the present invention pertains. Modifications are possible.

Accordingly, the spirit of the present invention should be understood only by the claims set forth below, and all equivalent or equivalent modifications thereof will belong to the scope of the present invention.

Claims (9)

In the landscape lighting wireless control system, A remote monitoring system including identification information of some of the plurality of lighting devices and generating control commands for controlling the blinking or illuminance and color of the some lighting devices; A remote control device which receives the control command and converts it into a wireless signal for wireless transmission; A repeater for wirelessly relaying control commands wirelessly received from the remote control apparatus; When the identification information included in the control command wirelessly received from the repeater corresponds to the identification information of the repeater, transmitting control data for blinking the light source, adjusting the illuminance, or adjusting the color to the lighting device connected with the control command according to the control command. Multiple wireless communication module Landscape lighting wireless control system comprising a. The method of claim 1, The repeater includes group identification information for a plurality of grouped lighting devices, and the group identification information is added to the control command. And the relay wirelessly relays the control command to a plurality of lighting apparatuses belonging to the group when the group identification information included in the control command corresponds to the group identification information. The method of claim 1, The lighting apparatus generates driving state data including information about its own identification information, light source blinking state, illuminance state, color state, and transmits it to the remote monitoring system through the repeater and the remote control device. And the remote monitoring system displays and guides driving state data provided by the lighting device. The method of claim 1, The remote monitoring system, Load and display the bird's eye view, The bird's eye view is assigned a position for a plurality of lighting devices, Regarding the plurality of lighting apparatuses in which the positions are specified, group identification information, individual identification information, and lighting apparatus icons are selected and stored, and displayed on the displayed bird's eye view. Create a control screen by adding a control icon for each group to the bird's eye view, Landscape lighting wireless control system, characterized in that for receiving the control command through the control screen or displays the driving state data. The method of claim 4, wherein The remote monitoring system, After generation of the control screen, After reducing the brightness of the control screen at the request of the administrator, By varying the light source flickering state, illuminance state, color state of the plurality of lighting devices displayed on the control screen, Landscape lighting wireless control system, characterized in that to provide a landscape lighting simulation by a plurality of lighting devices displayed on the control screen. The method of claim 5, The remote monitoring system, And a table that maps lighting and illumination control commands for each of the LEDs of the LED array corresponding to the color information. And when the color information is selected, reading lighting and illumination control commands for each of the LEDs of the LED array corresponding to the color information and adding the same to the control command. In the lighting device, A main lamp for generating white light; An LED array in which RGB LEDs are alternately arranged around the main lamp; A power control unit which supplies or cuts off driving power to the main lamp, controls the blinking of the main lamp, and controls the illuminance of the main lamp by phase controlling the voltage and current of the driving power; An LED controller for supplying or blocking driving power for each of the LEDs of the LED array and controlling a color of output light of the lighting device by controlling a voltage or a current of the driving power; If the identification information included in the control command received wirelessly from the wireless communication module in charge of the wireless communication with the repeater corresponding to the identification information, it characterized in that it comprises a control unit for controlling the power control unit and the LED control unit according to the control command Lighting equipment. The method of claim 7, wherein The control unit, Detect a blinking state and an illuminance state for each of the LEDs of the main lamp and the LED array; Driving state data is generated by adding own identification information to the detected information; Illumination device, characterized in that for transmitting the drive state data to the remote monitoring system through the repeater. The method of claim 7, wherein The control unit, Detect a blinking state and an illuminance state for each of the LEDs of the main lamp and the LED array; Check whether the detected information corresponds to a flashing state and an illuminance state according to the received control command; If the two states are different from each other, the identification information is added to the detected information to generate driving state data. Illumination device, characterized in that for transmitting the drive state data to the remote monitoring system via the repeater.

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