JP4605486B2 - LED lighting control system - Google Patents

Description

  The present invention relates to an LED illumination control system that controls dimming of LED illumination.

  Conventionally, the illuminance sensor detects the illuminance of the illuminated surface of the illumination load (hereinafter referred to as illuminance), and feedback control is performed on the light output value of the illumination load so that the illuminance is substantially constant at a predetermined illuminance. An illumination device that turns on an illumination load is known (see, for example, Patent Document 1).

  In FIG. 6, the block block diagram of the illumination light control system proposed by patent document 1 is shown.

  This illuminating lamp control system includes an illuminating lamp 101 incorporating an inverter device 105 on the ceiling of a room and the like and a detecting device 102 in the vicinity thereof.

  The detection device 102 constantly detects the illuminance of the illuminating lamp 101 with the illuminance sensor 103, compares the detection value of the illuminance sensor 103 with a preset reference value of the target illuminance range by the illuminance determination circuit 104, and the illuminance is the target illuminance. The inverter device 105 is operated so as to be within the range, and the dimming of the illumination lamp 101 is performed smoothly.

  When the illuminance sensor 103 still cannot detect the illuminance within the target illuminance range even if the inverter device 105 is controlled so that the output of the illuminating lamp 101 exceeds the predetermined output, the alarm signal generation circuit 106 outputs an alarm signal, The signal generator 107 alerts the user by light emission such as an LED or voice output.

  With the operation as described above, the dimming control is performed so that the illuminating lamp 101 always illuminates the surrounding area with the target illuminance, and the illuminating lamp 101 is notified that the illuminance of the illuminating lamp 101 has decreased due to long-term use or the like. Can prompt the user to replace

JP-A-5-242972

  However, in the conventional illumination light control system, only dimming control is performed so as to be within a predetermined target illuminance range, and flexible dimming control according to the surrounding environment cannot be performed.

  For example, in the case where the illuminating lamp 101 is provided in a room with a window through which external light enters, even if the output of the illuminating lamp 101 is controlled so as to be within the same target illuminance range, the user can enter sunlight through the window. When it comes, it feels dark and when it's cloudy, it feels bright.

  Therefore, in order to prevent the user from feeling that the room in which the illuminating lamp 101 is provided is too bright or too dark, a predetermined target illuminance range is set when sunlight enters from the window. The output of the illuminating lamp 101 is controlled so that the illuminance is brighter than that, and when it is cloudy, the output of the illuminating lamp 101 may be controlled so that the illuminance becomes darker than a predetermined target illuminance range. In the lighting control system, dimming control according to the surrounding environment was not possible.

  Also, contrary to the above-described control contents, depending on the usage environment, when sunlight enters from a window, the brightness is supplemented by sunlight, so the output of the illumination lamp 101 may be reduced accordingly. Sometimes it is good. That is, the dimming control method is not determined uniformly, and it is necessary to vary the dimming control contents depending on the use environment, the user's feeling, and the like. In the conventional illumination light control system, the dimming control according to the usage environment and the user's feeling cannot be performed.

  An object of the present invention is to provide an LED illumination control system that can perform flexible dimming control according to the surrounding environment and the use state of a user in consideration of the above-described conventional problems.

In order to solve the above-described problem, the first aspect of the present invention provides:
An LED lighting tube having an LED substrate on which LEDs are arranged, a wireless transmission / reception circuit, and an LED control unit that controls lighting, extinction, and dimming of the LEDs;
A wireless remote controller for wirelessly transmitting instructions for turning on, turning off, and dimming the LED to the LED lighting tube;
An internet connection modem that wirelessly transmits and receives data to and from the LED lighting tube and relays the wirelessly transmitted and received data to the Internet;
A control server connected to the Internet connection modem via the Internet and controlling dimming of at least the LED;
An LED lighting control system comprising a user terminal connected to the control server via the Internet,
The control server is transmitted from the wireless remote controller to the user terminal and input data input to the control server itself, information on at least weather and solar radiation angle acquired from the Internet, and the LED lighting tube. Control dimming of the LED based on the indicated information,
The solar radiation angle is calculated from at least the installation location information of the LED lighting tube and the current date time information,
Furthermore, there are a plurality of the LED lighting tubes,
The control server individually controls dimming for each of the plurality of LED lighting tubes belonging to a predetermined range, and dimming by the wireless remote controller is instructed to a predetermined number or more of the LED lighting tubes. If it is, the LED lighting control that controls the dimming of all the LED lighting tube units other than the dimming instruction that belongs to the predetermined range or the predetermined ratio or more, based on the content of the instruction. System.
The second aspect of the present invention
The predetermined range is the LED lighting control system according to the first aspect of the present invention, which is a predetermined area or a room of a predetermined building.

The third aspect of the present invention
The control server controls dimming of the LED by using, as initial data, input data input to the user terminal and the control server itself and information on the at least weather and solar radiation angle acquired from the Internet. When the instruction information transmitted from the wireless remote controller to the LED lighting tube is received from the LED lighting tube via the Internet, learning is performed to reflect the instruction information, and the learning result 1 is an LED illumination control system according to the first aspect of the present invention.

The fourth aspect of the present invention is
Controlling dimming individually for each LED lighting tube unit means controlling dimming for each one of the LED lighting tubes, or controlling dimming for each group of the plurality of LED lighting tubes. 1 is an LED lighting control system according to the first aspect of the present invention.

The fifth aspect of the present invention provides
The LED lighting tube has a rechargeable battery,
In the LED lighting control system according to any one of the first to fourth aspects of the present invention, when the power supplied to the LED lighting tube stops, the LED emits light by the power supplied from the rechargeable battery. is there.

The sixth aspect of the present invention provides
The LED lighting tube has at least one of a camera and a security sensor,
The LED control unit according to any one of the first to fifth aspects of the present invention, wherein the control server notifies the control server of at least one of video data captured by the camera and detection data detected by the security sensor via the Internet. LED lighting control system.

The seventh aspect of the present invention
The control server manages a history for each LED lighting tube,
The user terminal is the LED lighting control system according to any one of the first to sixth aspects of the present invention, in which the history managed by the control server can be referred to via the Internet.

In addition, the eighth aspect of the present invention
The LED illumination tube has a visible light communication module and is the LED illumination control system according to any one of the first to seventh aspects of the present invention, which performs visible light communication with the other LED illumination tubes. .

  According to the present invention, it is possible to provide an LED illumination control system capable of performing flexible dimming control according to the surrounding environment and the usage status of the user.

The block diagram of the LED lighting control system of Embodiment 1 of this invention The figure which shows the flow of the information between each apparatus of the LED lighting control system of Embodiment 1 of this invention. (A)-(f) The figure which shows the example of an input screen of the terminal for users of Embodiment 1 of this invention, and a display screen example The figure which shows the connection structural example of the LED lighting control system of Embodiment 1 of this invention. The block diagram of the LED illumination control system of the other structure of Embodiment 1 of this invention Block diagram of a conventional lighting control system

  Hereinafter, embodiments of the present invention will be described with reference to the drawings.

(Embodiment 1)
In FIG. 1, the block diagram of the LED illumination control system of Embodiment 1 of this invention is shown.

  The LED illumination tube 10 of the first embodiment has a shape that can be replaced with a fluorescent tube. That is, the LED illumination tube 10 has electrode terminals at both ends like the fluorescent tube, and can be used by being attached to an existing fluorescent lamp fixture.

  And in the house, in addition to the LED lighting tube 10, a dimming remote control 13 for dimming the LED 26 of the LED lighting tube 10, an access point 15 for performing wireless communication with the LED lighting tube 10, an access point A broadband router 14 for connecting 15 to the Internet 12 is installed.

  Further, outside the house, connected to the Internet 12 are a control server 11 for controlling dimming of the LED 26 of the LED lighting tube 10, a VPN session server 27, and a terminal 16 of the user of the LED lighting tube 10.

  The user terminal 16 is a personal computer, a PDA, a mobile phone, or the like, and may be installed in the house and connected to the Internet 12 or connected to the Internet 12 from outside the house as shown in FIG. May be.

  The LED lighting tube 10 according to the first embodiment includes an LED substrate in which a control unit 20, a wireless transmission / reception unit 21, a log storage unit 22, a rechargeable battery 23, an environmental sensor 24, a monitoring sensor 25, and an LED 26 are arranged. Is provided.

  The wireless transmission / reception unit 21 includes a wireless transmission / reception circuit, and performs wireless communication using the ZigBee (registered trademark) between the dimming remote controller 13 and the access point 15.

  The log storage unit 22 is an EEPROM, and stores a log for 24 hours of the LED lighting tube 10. The control unit 20 stores the current consumption, power consumption, dimming state of the LED 26, detection information of the environmental sensor 24, detection information of the monitoring sensor 25, etc. in the log storage unit 22 as a log for each predetermined time. Record.

  The rechargeable battery 23 is a built-in battery such as a lithium polymer, and is charged by nighttime power. And when the energization from the commercial power source to the LED lighting tube 10 is stopped, the power from the rechargeable battery 23 is supplied to the LED 26 and used for lighting in an emergency. The emergency lighting by the rechargeable battery 23 is reduced to 50% of the normal time, for example.

  The environmental sensor 24 is a sensor that detects temperature, humidity, illuminance, and the like in the vicinity of the LED lighting tube 10. These sensors are initially provided with only a part of the sensors, and other sensors may be additionally installed sequentially.

  The monitoring sensor 25 is a human sensor, a vibration sensor, a camera, or the like, and is a sensor that monitors a human body or monitors an abnormal situation. These sensors may not be initially installed, and additional sensors may be sequentially installed thereafter. Further, an infrared sensor, a smoke sensor, or the like may be installed as the monitoring sensor 25. The monitoring sensor 25 corresponds to an example of a security sensor according to the present invention.

  The control unit 20 controls the dimming of the LED 26 according to the dimming instruction information from the dimming remote control 13 received by the wireless transmission / reception unit 21, and communicates with the control server 11 via the wireless transmission / reception unit 21 and the Internet 12. Various information is sent and received between them.

  The control unit 20 controls the dimming of the LED 26 according to the dimming control information received from the control server 11, and also stores the information stored in the log storage unit 22 and the detection information acquired from the environment sensor 24 and the monitoring sensor 25. It transmits to the control server 11.

  The control unit 20 corresponds to an example of the LED control unit of the present invention.

  The dimming remote controller 13 wirelessly transmits information instructing to turn on / off the LED 26 and dimming to the LED lighting tube 10 according to the ZigBee protocol, and controls the LED 26 locally. The dimming remote controller 13 is an example of the wireless remote controller of the present invention.

  The access point 15 performs wireless communication with the wireless transmission / reception unit 21 of the LED lighting tube 10 by the ZigBee protocol, and can access the Internet 12 from the control unit 20 of the LED lighting tube 10 through the broadband router 14. It is said.

  The configuration combining the broadband router 14 and the access point 15 corresponds to an example of the Internet connection modem of the present invention.

  Although only one LED lighting tube 10 is shown in FIG. 1, a plurality of LED lighting tubes 10 are connected to the access point 15 by the ZigBee protocol. The broadband router 14 has a VPN function and a router function, and can individually communicate with each of the plurality of LED lighting tubes 10 installed in the house from the control server 11 connected via the Internet 12. It has become.

  The control server 11 includes an application server 28 and a database 29.

  The VPN session server 27 converts the ZigBee access point into a VPN and enables individual control of the plurality of LED lighting tubes 10 connected via the Internet 12 by the control server.

  The application server 28 includes illumination management software for controlling the dimming of the LED lighting tube 10, and controls the dimming of the LED lighting tube 10 via the Internet 12. The lighting management software includes information input from the user terminal 16 by the user, information regarding the LED lighting tube 10 input from the control server 11 itself, information acquired from the LED lighting tube 10 and stored in the database 29, and The dimming is controlled for each LED lighting tube 10 based on information obtained from the Internet 12 acquired from the Japan Meteorological Agency HP17 or the like.

  The database 29 stores customer information about users, history information for each LED lighting tube 10 acquired from the LED lighting tube 10 via the Internet 12, and the like.

  The user terminal 16 can access the control server 11 via the Internet 12 and can refer to the history information of the LED lighting tube 10 stored in the database 29 and the LED lighting tube with respect to the control server 11. A dimming instruction for 10 can also be transmitted.

  Next, operation | movement of the LED illumination control system of this Embodiment 1 is demonstrated using FIGS. 1-3.

  FIG. 2 shows a flow of information between the devices of the LED lighting control system according to the first embodiment. 3A to 3F show an example of an input screen and an example of a display screen on the user terminal 16, respectively.

  First, a user who uses the LED lighting tube 10 inputs information regarding the installation location of the LED lighting tube 10 from the user terminal 16. The information about the installation location of the LED lighting tube 10 includes the address of the installation location, the height of the building, the floor, the size of the room, the presence of windows, and the installation location from the windows Information such as distance. The user logs in to a page provided on the Internet 12 by the application server 28 from the user terminal 16 and inputs the user information 36. For example, FIG. 3A shows a user login screen. When the user inputs login information, a screen as shown in FIG. 3B is displayed. When “basic information” is selected on this screen, a screen as shown in FIG. It becomes possible to input.

  Moreover, the information regarding the LED lighting tube 10 is also input from the control server 11 itself. For example, the longitude and latitude information of the place where the LED lighting tube 10 is installed is obtained from the address information input by the user from the user terminal 16 and input. The solar radiation angle for each hour can be obtained from the longitude and latitude information, the date / time information, the number of floors where the LED lighting tube 10 is installed, the position of the window, and the like. Longitude and latitude information can be easily obtained from an address by using information on the Internet.

  The control server 11 individually sets various setting information 30 for each LED lighting tube 10. The various setting information 30 is, for example, date and time information.

  Moreover, the control server 11 creates the dimming control information 31 for each LED lighting tube 10 based on information input to the user terminal 16 and the control server 11 itself and information on the weather obtained from the Japan Meteorological Agency HP17. Then, the light is transmitted to the LED lighting tube 10 to control the dimming of the LED 26. The information on the weather obtained from the Japan Meteorological Agency HP17 is information on the place where the LED lighting tube 10 is installed, such as weather information on the place, precipitation, temperature, humidity, wind direction, wind speed, and the like.

  For example, the application server 28 creates a program for extracting information data related to the weather in the area where the target LED lighting tube 10 is installed from an HTML document that can be acquired from the Japan Meteorological Agency HP17. It may be incorporated in the lighting management software of which can be acquired automatically. In this way, the dimming of the LED lighting tube 10 can be controlled fully automatically by the control server 11 without human intervention.

  In addition, the control server 11 does not automatically acquire the information on the weather, but the administrator of the control server 11 looks at the Japan Meteorological Agency HP17 and the weather in the area where the target LED lighting tube 10 is installed. It is also possible to confirm information related to the information and input the confirmed information to the control server 11.

  In addition, the control server 11 periodically performs a state check 32 on the LED lighting tube 10. For example, information detected by the environment sensor 24 of the LED lighting tube 10 is acquired every 30 minutes.

  The control unit 20 of the LED lighting tube 10 controls the dimming of the LED 26 in accordance with the dimming control information 31 received from the control server 11, but the user in the place where the LED lighting tube 10 is installed is controlled by the LED 26. If the user feels that it is too bright or too dark, the user uses the dimming remote control 13 to adjust the brightness of the LED 16 locally.

  When the control unit 20 receives the dimming instruction information 33 from the dimming remote controller 13 via the wireless transmission / reception unit 21, the control unit 20 dimmes the light emitted from the LED 26 according to the contents, and the dimming is performed. The dimming state information 34 indicating the state is transmitted to the control server 11.

  When the control server 11 acquires the state information from the LED lighting tube 10 by the periodic state check 32 and the dimming state information 34, the control server 11 records the information as history information in the database 29.

  After that, the control server 11 determines each LED lighting tube 10 based on the history information recorded in the database 29 together with information input to the user terminal 16 and the control server 11 itself and information on the weather obtained from the Japan Meteorological Agency HP17. The dimming control information 31 is generated and transmitted to the LED illumination tube 10 to control the dimming of the LED 26. That is, a situation in which local dimming control is performed by the user is learned, and control reflecting the result is performed.

  By controlling in this way, dimming can be controlled according to the user's request at the place where the LED lighting tube 10 is installed. For example, if the user at that location feels that the initially set dimming control content is too dark, the dimming remote control 13 adjusts the LED 16 to be bright, and the adjustment content is recorded as history information. Is recorded in the database 29. Then, since dimming is controlled based on the history information recorded in the database 29, the dimming control content set first is controlled to be brighter. That is, dimming control is performed in accordance with the request of the user at that location.

  Also, the dimming control of the LED 26 can be performed locally from the user terminal 16. When logging in to the page provided on the Internet 12 by the application server 28 from the user terminal 16 and selecting “dimming setting” on the screen shown in FIG. 3B, a screen as shown in FIG. Is displayed. When the user performs dimming settings on this screen, dimming instruction information 37 corresponding to the settings is transmitted to the control server 11.

  When the control server 11 receives the dimming instruction information 37 from the user terminal 16, the control server 11 creates the dimming control information 31 according to the instruction content and transmits the dimming control information 31 to the instructed LED lighting tube 10. The control unit 20 of the LED lighting tube 10 adjusts the light emission of the LED 26 according to the dimming control information 31, thereby realizing dimming control according to the local setting set by the user in the user terminal 16. Is done.

  Further, when receiving the dimming instruction information 37 from the user terminal 16, the control server 11 records the contents of the dimming control information 31 according to the instruction contents in the database 29 as history information.

  Therefore, the dimming control is performed after reflecting the contents of the dimming instruction information 37 input from the user terminal 16. That is, the user learns the situation that the local dimming control has been performed, and the control reflecting the result is performed.

  The user can also refer to the history information and management information stored in the database 29 from the user terminal 16. When logging in from the user terminal 16 to a page provided on the Internet 12 by the application server 28 and selecting “ECO MONITOR” on the screen shown in FIG. 3B, a screen as shown in FIG. Is displayed. Further, in FIG. 3D, when a desired graph is selected, the selected graph is enlarged and displayed as shown in FIG.

  Thereby, the user can grasp | ascertain the individual power consumption about the some LED lighting tube 10, the temporal transition, etc. from the distant place. Thereby, the user can perform maintenance management and lifetime management of the LED lighting tube 10.

  Further, when the monitoring sensor 25 detects a human body or abnormality, the control unit 20 of the LED lighting tube 10 immediately notifies the control server 11 of the monitoring sensor information 35.

  When the monitoring sensor information 35 is, for example, information indicating that a person has entered the room, the control server 11 creates the dimming control information 31 that makes the LED 26 brighter than before, and transmits it to the LED lighting tube 10. To make it brighter.

  In addition, when the monitoring sensor information 35 received by the control server 11 detects an earthquake by a vibration sensor, detects a fire by a smoke sensor, or detects a suspicious person intrusion by a human sensor 0 or a camera. In such a case, the user may be notified via the Internet 12 or an alarm device may be activated.

  The LED lighting control system according to the first embodiment can be used as a security security monitoring system by performing such an operation.

  In addition, when the control server 11 controls the dimming of the plurality of LED lighting tubes 10, the control server 11 may perform control such that the dimming control content of a certain LED lighting tube 10 is reflected in the other LED lighting tubes 10. .

  FIG. 4 shows a connection configuration example of the LED illumination control system according to the first embodiment. Since the control server 11 can individually control a plurality of LED lighting tubes 10 via the Internet 12, the single control server 11 controls the LED lighting tubes 10 installed at a plurality of locations separated as shown in FIG. can do.

  For example, when A factory, B factory, and C factory shown in FIG. 4 are relatively close to each other, a predetermined ratio (for example, 50) of LED lighting tubes 10 installed near the windows of A factory and B factory. %) If the light is dimmed locally within a predetermined short period of time in the above, it is judged that the outside has suddenly darkened due to the weather, and the other installed near the windows of factory A and factory B The dimming control information 31 for controlling the LED illumination tube 10 to be bright may be created, transmitted, and controlled to be dimmed. In addition, since the C factory is located nearby, the dimming control information 31 for controlling the LED lighting tube 10 installed near the window of the C factory to be bright is created, transmitted, and brightly adjusted. You may control so that it may light.

  Next, in FIG. 5, the block diagram of the LED illumination control system of the other structure of this Embodiment 1 is shown. The same reference numerals are used for the same components as in FIG.

  Here, a different part from the structure of FIG. 1 is demonstrated.

  The LED lighting tube 10 shown in FIG. 1 includes the monitoring sensor 25 inside, whereas in the LED lighting control system shown in FIG. 5, the monitoring sensor 43 is installed in another place outside the LED lighting tube 18. Is different.

  Further, the LED illumination tube 18 shown in FIG. 5 is different from the LED illumination tube 10 shown in FIG. 1 in that a visible light communication unit 41 and a light receiving unit 42 are provided therein. The visible light communication unit 41 is an example of the visible light communication module of the present invention.

  The LED illumination tube 19 shown in FIG. 5 has the same configuration as the LED illumination tube 18.

  Similar to the monitoring sensor 25, the monitoring sensor 43 is a sensor that monitors human bodies and monitors abnormal situations.

  The monitoring sensor 43 has a wireless transmission function based on the ZigBee protocol, and performs wireless communication with the wireless transmission / reception unit 21 of the LED illumination tube 18.

  When the monitoring sensor 43 detects a human body or an abnormal situation, the monitoring sensor 43 transmits the information to the wireless transmission / reception unit 21 of the LED lighting tube 18. When receiving the detection information from the monitoring sensor 43 via the wireless transmission / reception unit 21, the control unit 40 of the LED lighting tube 18 transmits the monitoring sensor information 35 shown in FIG. 2 corresponding to the information to the control server 11. The subsequent operations are the same as when the monitoring sensor 25 detects a human body or an abnormal situation in the LED lighting control system of FIG.

  The visible light communication unit 41 transmits the data passed from the control unit 40 by visible light communication by controlling the LED 26 to blink. In addition, the visible light communication unit 41 passes the received data by visible light communication acquired from the blinking information of visible light from the other LED illumination tubes 19 received by the light receiving unit 42 to the control unit 40.

  In this manner, data is transmitted and received by visible light communication between the control units 40 of the LED lighting tube 18 and the LED lighting tube 19.

  The control server 11 according to the first embodiment may individually control each LED lighting tube 10, or each of the plurality of LED lighting tubes 10 as a single unit. You may make it control to. As a unit of the plurality of LED lighting tubes 10, for example, a group of a plurality of LEDs installed near the window, or in the case of a narrow room, all the LED lighting tubes 10 included in the room are combined into one unit. It is good also as a unit.

  In addition, since people tend to feel dark immediately after lighting, they tend to be less likely to feel dark even if it is dark for a while after being turned on. As the dimming control, it may be set so that it is set a little brighter at the time of lighting and then gradually dimmed so that it becomes a little dark after a predetermined period. By controlling in this way, it is possible to save power without discomfort for the user.

  In the present embodiment, the ZigBee protocol is used for wireless communication between devices, but other wireless systems may be used. For example, any wireless system such as Bluetooth (registered trademark), Wi-fi (registered trademark), Wi-max (registered trademark), GSM, and RF may be used.

  As described above, when the LED illumination control system of the present invention is used, the plurality of LED illumination tubes 10 can be individually controlled in accordance with the environment of each installation location or the user's request.

  The LED lighting control system of the present invention can realize centralized control and management of LED lighting in factories and offices in a plurality of places. Therefore, the control server 11 can also individually control and manage LED lighting in factories and offices of a plurality of companies.

  The LED lighting control system according to the present invention has an effect of performing flexible dimming control according to the surrounding environment and the usage status of the user, and is useful as an LED lighting control system for controlling the dimming of the LED lighting. is there.

10, 18, 19 LED lighting tube 11 Control server 12 Internet 13 Dimming remote control 14 Broadband router 15 Access point 16 User terminal 17 Japan Meteorological Agency HP
20 control unit 21 wireless transmission / reception unit 22 log storage unit 23 rechargeable battery 24 environment sensor 25 monitoring sensor 26 LED
27 VPN Session Server 28 Application Server 29 Database 30 Various Setting Information 31 Dimming Control Information 32 Periodic Status Check 33 Dimming Instruction Information 34 Dimming State Information 35 Monitoring Sensor Information 36 User Information 37 Dimming Instruction Information 38 History / Management Information 40 Control unit 41 Visible light communication unit 43 Monitoring sensor

Claims (8)

An LED lighting tube having an LED substrate on which LEDs are arranged, a wireless transmission / reception circuit, and an LED control unit that controls lighting, extinction, and dimming of the LEDs;
A wireless remote controller for wirelessly transmitting instructions for turning on, turning off, and dimming the LED to the LED lighting tube;
An internet connection modem that wirelessly transmits and receives data to and from the LED lighting tube and relays the wirelessly transmitted and received data to the Internet;
A control server connected to the Internet connection modem via the Internet and controlling dimming of at least the LED;
An LED lighting control system comprising a user terminal connected to the control server via the Internet,
The control server is transmitted from the wireless remote controller to the user terminal and input data input to the control server itself, information on at least weather and solar radiation angles acquired from the Internet, and the LED lighting tube. Control dimming of the LED based on the indicated information,
The solar radiation angle is calculated from at least the installation location information of the LED lighting tube and the current date time information,
Furthermore, there are a plurality of the LED lighting tubes,
The control server individually controls dimming for each of the plurality of LED lighting tubes belonging to a predetermined range, and dimming by the wireless remote controller is instructed to a predetermined number or more of the LED lighting tubes. If it is, the LED lighting control that controls the dimming of all the LED lighting tube units other than the dimming instruction that belongs to the predetermined range or the predetermined ratio or more, based on the content of the instruction. system. The LED lighting control system according to claim 1, wherein the predetermined range is a predetermined area or a room of a predetermined building. The control server controls dimming of the LED by using, as initial data, input data input to the user terminal and the control server itself and information on the at least weather and solar radiation angle acquired from the Internet. When the instruction information transmitted from the wireless remote controller to the LED lighting tube is received from the LED lighting tube via the Internet, learning is performed to reflect the instruction information, and the learning result The LED lighting control system according to claim 1, wherein dimming of the LED is controlled according to: Controlling dimming individually for each LED lighting tube unit means controlling dimming for each one of the LED lighting tubes, or controlling dimming for a group of the plurality of LED lighting tubes. The LED illumination control system according to claim 1 . The LED lighting tube has a rechargeable battery,
The LED illumination control system according to any one of claims 1 to 4, wherein when the power supplied to the LED lighting tube is stopped, the LED emits light by the power supplied from the rechargeable battery. The LED lighting tube has at least one of a camera and a security sensor,
The said LED control part notifies at least any one of the video data image | photographed with the said camera, and the detection data detected with the said security sensor to the said control server via the said internet. LED lighting control system. The control server manages a history for each LED lighting tube,
The LED lighting control system according to claim 1, wherein the user terminal can refer to the history managed by the control server via the Internet.   The LED illumination control system according to claim 1, wherein the LED illumination tube includes a visible light communication module and performs visible light communication with another LED illumination tube.

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