WO2021218092A1 - 一种显示屏通信系统及其通信方法、箱体 - Google Patents

一种显示屏通信系统及其通信方法、箱体 Download PDF

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Publication number
WO2021218092A1
WO2021218092A1 PCT/CN2020/125315 CN2020125315W WO2021218092A1 WO 2021218092 A1 WO2021218092 A1 WO 2021218092A1 CN 2020125315 W CN2020125315 W CN 2020125315W WO 2021218092 A1 WO2021218092 A1 WO 2021218092A1
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WO
WIPO (PCT)
Prior art keywords
box
display screen
cabinet
signal station
information
Prior art date
Application number
PCT/CN2020/125315
Other languages
English (en)
French (fr)
Inventor
王朝
朱卫强
Original Assignee
深圳蓝普科技有限公司
深圳市上隆智控科技有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 深圳蓝普科技有限公司, 深圳市上隆智控科技有限公司 filed Critical 深圳蓝普科技有限公司
Publication of WO2021218092A1 publication Critical patent/WO2021218092A1/zh
Priority to US17/949,563 priority Critical patent/US20230015655A1/en

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Classifications

    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06F—ELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00—Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/14—Digital output to display device ; Cooperation and interconnection of the display device with other functional units
    • G06F3/1423—Digital output to display device ; Cooperation and interconnection of the display device with other functional units controlling a plurality of local displays, e.g. CRT and flat panel display
    • G06F3/1446—Digital output to display device ; Cooperation and interconnection of the display device with other functional units controlling a plurality of local displays, e.g. CRT and flat panel display display composed of modules, e.g. video walls
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W76/00—Connection management
    • H04W76/10—Connection setup
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
    • G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
    • G09G3/22—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters using controlled light sources
    • G09G3/30—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters using controlled light sources using electroluminescent panels
    • G09G3/32—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters using controlled light sources using electroluminescent panels semiconductive, e.g. using light-emitting diodes [LED]
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2300/00—Aspects of the constitution of display devices
    • G09G2300/02—Composition of display devices
    • G09G2300/026—Video wall, i.e. juxtaposition of a plurality of screens to create a display screen of bigger dimensions
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2370/00—Aspects of data communication
    • G09G2370/02—Networking aspects
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2370/00—Aspects of data communication
    • G09G2370/16—Use of wireless transmission of display information
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W76/00—Connection management
    • H04W76/40—Connection management for selective distribution or broadcast
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02D—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D30/00—Reducing energy consumption in communication networks
    • Y02D30/70—Reducing energy consumption in communication networks in wireless communication networks

Definitions

  • the present invention relates to the field of display screens, in particular to a communication system of a display screen, a communication method thereof, and a box body.
  • the display screen is formed by splicing multiple cabinets, and the cabinet is formed by joining multiple display modules.
  • the PCB of the module contains a control driver IC and so on.
  • the box needs to play video information.
  • An existing basic structure is that the video information needs to be sent through a sending card, and the receiving card in the box receives it. After receiving it, it is sent to each module through a flat cable.
  • the box body is connected with the box body through a network cable, and the video signal is transmitted between the box body and the box body through the network cable. In this way, the video signal can realize the transmission between the module and the module and the transmission between the cabinet and the cabinet, which is also an existing display signal transmission process.
  • Multi-channel serial port wiring has higher environmental requirements, and the cabinet needs to have better air tightness and waterproof performance.
  • the embodiments of the present invention provide a communication system for a display screen, a communication method thereof, and a cabinet to solve the problem of complex structure of the display screen.
  • a display screen communication system including: a signal station and a display screen spliced together with a plurality of boxes, and the signal station and the plurality of boxes form a star-shaped communication structure to establish a wireless communication connection for information Wireless signal transmission.
  • a display screen communication method which is applied to a signal station, and the method includes: the signal station obtains initialization information of the display box body, and establishes a wireless communication structure with each box body. Communication connection; wireless signal transmission of information with each box of the display screen.
  • a display screen communication method which is applied to a display screen, and the method includes: establishing a wireless communication connection of a star communication structure between a plurality of boxes of the display screen and a signal station, and communicating with the signal
  • the stations carry out wireless signal transmission of information; the boxes carry out signal transmission in a wireless manner.
  • a display screen communication method which is applied to a cabinet, and the method includes: acquiring a playback coordinate value sent by a signal station; receiving all video information sent by a signal station; Value, play the video information of the corresponding play range in all the video information.
  • a box the box includes a wireless communication device; wherein: the wireless communication device is used between the box and the box, and the box and the signal station Wireless signal communication.
  • each box module the information processing and information transmission of each box module are integrated on one signal station, and multiple box modules are driven by one signal station, and only information reception is reserved on the modules, and only needs to be realized.
  • Video playback and audio playback can make the display screen thinner and lighter.
  • the signal station and several cabinets form a star-shaped communication structure, even if one cabinet fails, it will not affect the normal operation of other cabinets, and the stability is high.
  • Fig. 1 is a schematic structural diagram of a display communication system provided by the present invention
  • Fig. 2 is a schematic structural diagram of a cabinet provided by the present invention
  • Fig. 3 is a schematic flowchart of a display communication method provided by the present invention.
  • module means, “part” or “unit” used to denote elements is only used to facilitate the description of the present invention, and has no specific meaning in itself. Therefore, “module”, “part” or “unit” can be used in a mixed manner.
  • the present invention provides a display screen communication system
  • the communication system includes: a signal station 10 and a display screen 100 spliced together with a plurality of boxes 20, the signal station 10 It establishes a wireless communication connection with a number of boxes 20 in a star-shaped communication structure for wireless signal transmission of information, the signal station 10 drives a number of the boxes 20, and the boxes 20 perform wireless signal transmission in a wireless manner; wherein
  • the information includes one or more of control information, video information, position information of the cabinet, and playback coordinate values of the cabinet.
  • the display screen is formed by splicing multiple cabinets, and the cabinet is formed by joining multiple display modules.
  • Each cabinet is a playback unit, and each cabinet can play video and Audio.
  • the display screen communication system applies wireless connection related technologies, through a signal station to uniformly perform wireless signal transmission including control information, video information, location information and other required information to multiple boxes, so that the boxes do not need to use flat cables, Wired connections with similar structures such as network cables are used for signal transmission, while wireless transmission forms are used for video signal transmission, which saves space in the cabinet, the cabinet structure is simpler, becomes lighter and thinner, and the cabinet control circuit and control logic are simplified to ensure The communication is smoother, more timely, and more convenient; the wireless connection mode omits a large number of serial ports, which further simplifies the information circulation channels and connection methods of the display screen, which is conducive to the convenience of disassembly and maintenance.
  • the display screen 100 is an LED display screen
  • the box body 20 is an LED box body.
  • the signal station 10 establishes a wireless communication connection with a plurality of boxes 20 in a star-shaped communication structure for wireless signal transmission of information, and further includes: the signal station 10 integrates the modules in the box 20
  • the original information processing and information sending have the functions of information sending and information processing, and realize the original information sending and information processing of the module of the box 20.
  • the module of the box body 20 only retains information reception, and realizes video playback and audio playback only by receiving the information.
  • the signal station 10 and a plurality of boxes 20 form a star-shaped communication structure, and the signal station 10 uniformly transmits wireless signals of information to the plurality of boxes 20.
  • the information processing and information transmission of the modules of each box are integrated on a signal station, and only information reception is reserved on the modules, and only video playback and audio playback, information transmission, and information processing are required.
  • information receiving, encoding, amplifying and storing), etc. are integrated on a signal station, and multiple box modules are driven by one signal station.
  • a signal station is used to uniformly transmit signals to multiple cabinets. Since the signal station and several cabinets form a star communication structure instead of a series structure, even if one of the cabinets fails, it will not Affect the normal work of other cabinets, so as to achieve a more stable display effect.
  • the wireless transmission communication technology includes at least one of the following: LiFi (Light Fidelity, visible light wireless communication or optical fidelity technology) or WiFi form for wireless signal transmission.
  • LiFi Light Fidelity, visible light wireless communication or optical fidelity technology
  • WiFi Wireless Fidelity
  • wireless transmission communication technology of the present invention is not limited to the two wireless transmission technologies mentioned above, and all technologies capable of wireless signal transmission are covered in this range.
  • the box body 20 includes a wireless communication device 21, and the wireless communication device 21 is used between the box body 20 and the box body 20, and the box body 20 and the signal station 10 Carry out wireless signal communication.
  • the box body 20 includes a power transmission device 22, and the power transmission device 22 is used for power transmission with the power supply device 30 arranged in the center of the display screen 100.
  • the box 20 and the wireless communication device 21 provide power.
  • the power transmission device may optionally include a flexible connection form, a hard connection form, a wired or wireless form, etc., which are arranged on the edge of the box body, so that the structure of the box body is simple, light and thin, while ensuring good sealing of the box body.
  • the control logic and wiring logic of the system can be simplified.
  • the box body 20 includes a box body code, and the box body code is used to identify the box body.
  • the box body 20 has a unique box body code when it leaves the factory, and the box body code is unique among the entire display screen 100 that supports wireless transmission.
  • the box body and the box body do not need to be tightly connected. Because wireless communication devices are used for wireless signal communication between the box and the box as well as between the box and the signal station, the energization form between the box and the box can be changed to the form of hard connection in the box frame, making the box The seams at the edges of the body are adjustable, without affecting the signal and power supply, so the enclosure does not need to be tightly connected.
  • the splicing between the box body and the box body can be completed only by connecting devices such as buckles. There is no wiring and no openings, which is convenient for disassembly and assembly.
  • the embodiment of the present invention also provides a display screen communication method, which is applied to the signal station of the above-mentioned wireless communication system.
  • the method includes: the signal station obtains the initialization information of the display box body, and establishes a star-shaped communication structure with each box body. Wireless communication connection; wireless signal transmission of information with each cabinet of the display screen.
  • establishing a wireless communication connection in a star communication structure between the signal station and several cabinets includes: establishing an initial wireless communication connection between the signal station and several cabinets in a star communication structure.
  • the establishment of an initial wireless communication connection between the signal station and a number of boxes in a star-shaped communication structure includes at least one of the following methods to establish an initial wireless communication connection.
  • Method 1 The signal station obtains the initialization information of the cabinet of the display screen manually, and establishes an initialization wireless communication connection. Including: A1.
  • the signal station receives the initialization information of the cabinet manually entered into the display screen, where the initialization information includes: the number of cabinets, the cabinet code, and the cabinet installation position.
  • the signal station After the signal station obtains the initialization information of the cabinet of the display screen, it divides the display screen into playing areas according to the corresponding order represented by the cabinet code, and assigns the playing coordinate value to each cabinet spliced into the display screen.
  • the signal station has established an initial wireless communication connection with several boxes. Subsequently, the signal station sends all video information to the box according to the established initial wireless communication connection, and the box receives all the video information sent by the signal station, and outputs the corresponding position according to the playing coordinate value of its own playing area. Video information. In addition, during the communication process, the signal station retains the initialization information of each box, so it can compare the feedback information of the box to detect whether the box has a fault or not responding.
  • Manner 2 The signal station obtains the initialization information of the cabinet of the display screen in an automatic manner, and establishes an initial wireless communication connection.
  • simple information communication is carried out between the box and the box, and the communication result is transmitted to the signal station, so that the signal station automatically obtains the initialization information of the box and establishes an initial wireless communication connection; the initialization information Including: the number of cabinets, cabinet coding, cabinet installation location. Specifically: B1.
  • the signal station puts a label on the display box.
  • the signal station sends out a "reporting number" instruction.
  • each box Before responding to the signal station reporting instruction, each box generates a delayed response value according to its own box code and according to a preset compilation rule, and responds to the signal station instruction according to this delayed response value. Since the cabinet code of each cabinet is unique, the generated delayed response value is also unique. For the entire display, there will be no conflict between the delayed response values of the two cabinets.
  • communicating with the signal station there is only one box to communicate with the signal station, so that possible signal conflicts can be avoided, and the signal station may be able to communicate with two or more boxes at the same time. And instructions affect the overall control logic and are prone to errors.
  • a signal exchange is carried out between the cabinet and the cabinet of the whole display screen, and the response priority order of responding to the signal station number command is determined according to the delay response value of each cabinet according to the preset sorting rule, and the first priority is determined.
  • Response priority boxes so that each box knows its own response priority.
  • the preset sorting rule is to sort the delayed response values from small to large, and the smaller the delayed response value is, the higher the response priority is.
  • the box body responds to the signal station instructions in sequence according to the determined response priority order. Specifically, it includes: the box with the first response priority preferentially responds to the number reporting instruction from the signal station. If the box with the first response priority cannot respond to the instruction from the signal station, that is, the signal station cannot read the box information under this response priority, then it will determine the existence of the box with the first response priority. If it fails, modify the priority to the next response priority, and let the cabinet with the next response priority respond. Until all the boxes whose response priority is determined have responded to the signal station instructions.
  • the signal station automatically obtains the initialization information of the box according to the response of the box, and puts a label on the box of the display screen.
  • the signal station receives a signal in response to an instruction from the signal station according to the response priority of the box, and establishes an information exchange channel with the box.
  • the signal station sends a "standby" instruction to the remaining boxes that have not responded, so that it waits for further instructions from the signal station.
  • the signal station performs the following information interaction with the cabinet through the established information exchange channel: B11.
  • the signal station receives the cabinet code fed back by the cabinet.
  • the signal station will output the "report number" command again.
  • the cabinet with the first response priority enters sleep mode and will not respond to the signal station command, while the cabinet with the second response priority will do so.
  • Become the highest priority box this box will respond to the signal station and repeat the above operations.
  • the box body will receive the response instructions of the signal station one by one, and will be labeled by the signal station. After the last box in the entire display screen is also labeled, when the signal station sends a response command, no box will respond again, and the signal station enters the next working mode of starting the box.
  • the signal station obtains the physical installation position of the box according to the label information of the box on the display screen. Including: B21, receiving the label information of the surrounding cabinets calculated by the cabinet.
  • the signal station will issue a "start box" instruction to all boxes.
  • the box of the whole display screen is started according to the instruction of starting the box.
  • the box performs a power-on self-check process: B211, the box checks whether the startup state is normal.
  • the cabinet After the above power-on self-check process is completed, the cabinet enters the standby state, and then it will respond to the signal station's instructions.
  • the cabinet in addition to detecting its own state, the cabinet can also detect and record the label value of the surrounding cabinets, so that the label information of the surrounding cabinets can be counted.
  • the signal station receives the label information around the box one by one.
  • the signal station issues a "start box” instruction to all boxes, initiates signal communication with the boxes, and obtains the label information of the box and the label information of the surrounding boxes. Specifically, it includes: the signal station initiates an "inquiry” instruction to the first box labeled with a label value, and waits for the box to respond.
  • the inquired box responds to the "inquiry" instruction of the signal station as soon as it enters the standby state. Specifically, when the box being inquired responds to the inquiry instruction of the signal station, the box communicates the following information with the signal station through the established information exchange channel: B221, the box The label value of the box and the label value of the surrounding boxes are fed back to the signal station.
  • the signal station After receiving the label information sent by the box, the signal station sends a sleep instruction to the box, and does not respond to any other form of instructions from the signal station when it does not receive the "start box" instruction.
  • the signal station After sending the sleep instruction to the first box, the signal station will continue to inquire the second box until the second box responds, receiving the label information of the second box and the label information of the surrounding boxes, and then Sleep the second cabinet, query the third cabinet, and so on, query all cabinets again, and sleep all cabinets. Until the signal station obtains the label information of the box and the label information of the surrounding boxes.
  • the signal station fits all the obtained label information to obtain the physical installation position of the box corresponding to the label information on the display screen.
  • the signal station After the signal station obtains the label information of all the boxes and the label information of the surrounding boxes, all the obtained labels are fitted by a preset fitting algorithm, and the box corresponding to each label is obtained in the whole block.
  • the physical installation location information in the display After the signal station obtains the label information of all the boxes and the label information of the surrounding boxes, all the obtained labels are fitted by a preset fitting algorithm, and the box corresponding to each label is obtained in the whole block.
  • the physical installation location information in the display After the signal station obtains the label information of all the boxes and the label information of the surrounding boxes, all the obtained labels are fitted by a preset fitting algorithm, and the box corresponding to each label is obtained in the whole block.
  • the signal station assigns the playing coordinate value to the display box according to the physical installation position of the display box.
  • the signal station After the signal station obtains the physical installation location information of the box corresponding to each label in the entire display, it divides the display area according to the entire display and the number of tags, and the size of the divided area is a box. Size.
  • the signal station encodes each box, and assigns a playback coordinate value to each box in turn, and the playback coordinate value corresponds to the display range of the box; wherein, one box label corresponds to two determined coordinate values.
  • the signal station sends the playing coordinate values of the boxes to the boxes one by one.
  • the signal station After the signal station completes the coding of each cabinet and assigns the playback coordinate value, it outputs the "start cabinet" command to all cabinets.
  • the cabinet After the cabinet receives the command to start the cabinet, it will perform the power-on self-test process, and enter the standby state after the power-on self-test process is completed.
  • the signal station After the signal station sends out the "start box” instruction, it initiates a signal exchange for assigning the playing coordinates to the box in turn, and assigning the playing coordinate values to the box. Specifically, it includes: the signal station sends an "assignment" instruction to the first box.
  • the first box will not respond to the assignment instruction in time when it is in the power-on self-inspection process, but when it enters the standby state at the end of the self-inspection process, it will respond to the assignment instruction as soon as possible, and the box will pass the established information
  • the interactive channel exchanges the following information with the signal station: B331.
  • the box sends its own box coding information to the signal station.
  • the signal station After confirming that the received cabinet code is correct, the signal station sends to the cabinet the playback coordinate value information corresponding to the cabinet code.
  • the signal station inputs a sleep instruction to the box.
  • the signal station has finished assigning the playback coordinate value to the first cabinet.
  • the corresponding playback coordinate value is assigned to each subsequent box.
  • the signal station establishes an initial wireless communication connection with several cabinets in a star-shaped communication structure to perform wireless signal transmission of information, including: B4.
  • the signal station sends all video information according to the established initial wireless communication connection. For all cabinets.
  • the signal station outputs a "start box" command to the entire box according to the established initial wireless communication connection.
  • the cabinet enters the power-on self-check process according to the start cabinet instruction, and enters the standby state.
  • the signal station issues a "full screen transceiving" instruction to all the boxes, and inputs the following instructions to all the boxes: B41, read its own playing coordinate value.
  • the video information to be played is the video information covered by the playback coordinate value.
  • the above instructions are delayed one by one, and the delay interval can be pre-arranged as needed.
  • the above instructions do not require any feedback from the cabinet.
  • the signal station After the above-mentioned instruction is issued and the preset delay interval ends, the signal station starts to send video information to the entire cabinet.
  • the cabinet receives all the video information sent by the signal station, and determines the playback range according to the playback coordinate value, and only plays the video information within the determined playback coordinate value range.
  • the box does not respond to the signal station, that is, when the box fails, there will be different degrees of non-response. They are: not responding to the signal station command, single direction not responding to box communication, and multiple The direction does not respond to box communication and does not respond at all.
  • the box When the box does not respond to the communication of the signal station, it can be identified through the process of "B21, the box statistics the label information of the surrounding boxes". When the box does not respond to the instructions of the signal station, the signal station will skip This box is to mark the next box, so the faulty box does not have label information.
  • the box can communicate with the box in at least one direction, the box that has not been marked by the signal station can be identified.
  • the signal station can identify the fault condition of the box through the box around the faulty box, and Determine the specific location of the faulty box.
  • the box does not respond at all, it means that the surrounding boxes cannot read any information from the faulty box. For the entire screen and signal station, this box does not exist. However, in the screen fitted by the signal station, this area cannot read information, that is, for the surrounding cabinets of the faulty cabinet, the information facing the faulty cabinet is missing, so the playback coordinates are There will be a difference.
  • the present invention provides a display screen communication method, which is applied to the display screen of the above-mentioned display screen communication system, and the method includes: S1, several boxes of the display screen and the signal station establishment
  • the wireless communication connection of the star-shaped communication structure carries out the wireless signal transmission of information; S2, the wireless signal transmission is carried out between the boxes in a wireless manner.
  • the display screen communication system applies wireless connection related technologies to uniformly transmit wireless signals to multiple boxes through a signal station.
  • the information includes, but is not limited to, one or any combination of required information such as control information, video information, box position information, and box playback coordinate information.
  • the signal station integrates the original information processing and information transmission of the module in the box, has the functions of information transmission and information processing, and realizes the original information transmission and information processing of the module of the box.
  • the module of the box body only retains information reception, and realizes video playback and audio playback only by receiving information.
  • the information processing and information transmission of the modules of each box are integrated on a signal station, and only information reception is reserved on the modules, and only video playback and audio playback, information transmission, and information processing are required.
  • the wireless transmission communication technology includes at least one of the following: LiFi form or WiFi form for wireless signal transmission.
  • wireless transmission communication technology of the present invention is not limited to the two wireless transmission technologies mentioned above, and all technologies capable of wireless signal transmission are covered in this range.
  • the box body includes a wireless communication device; the box body establishes a wireless communication connection with the signal station through the wireless communication device, and performs wireless signal transmission.
  • the wireless signal transmission is performed between the boxes through the wireless communication device.
  • the box body includes a box body code, and the box body code is used to identify the box body.
  • the box body has a unique box body code when it leaves the factory, and the box body code is unique among the entire display screen that supports wireless transmission.
  • the step S1 includes: establishing an initial wireless communication connection between the several boxes and the signal station in a star-shaped communication structure. It includes at least one of the following ways to establish an initial wireless communication connection: way one, the signal station obtains the initialization information of all the boxes of the display screen manually, and establishes an initial wireless communication connection.
  • S111 Receive initialization information of all cabinets manually entered into the display screen, where the initialization information includes: the number of cabinets, cabinet codes, and cabinet installation position coordinates.
  • the signal station has established an initial wireless communication connection with several boxes. Subsequently, the signal station sends all the video information to all the boxes according to the established initial wireless communication connection, and the box receives all the video information sent by the signal station, and only uses its own playing coordinate value (playing area). Output the video information of the corresponding position. In addition, during the communication process, the signal station retains the initialization information of each box, so it can compare the feedback information of the box to detect whether the box has a fault or not responding.
  • Manner 2 The signal station obtains the initialization information of the cabinet of the display screen in an automatic manner, and establishes an initial wireless communication connection.
  • simple information communication is carried out between the box and the box, and the communication result is transmitted to the signal station, so that the signal station automatically obtains the initialization information of the box and establishes an initial wireless communication connection;
  • the initialization information Including: the number of cabinets, cabinet coding, cabinet installation position coordinates. Specifically include: S121, the signal station puts a label on the cabinet of the display screen. Including: when the box body is spliced into a display screen, the signal station sends out a "reporting number" instruction.
  • each box Before responding to the signal station reporting instruction, each box generates a delayed response value according to its own box code and according to a preset compilation rule, and responds to the signal station instruction according to this delayed response value. Since the cabinet code of each cabinet is unique, the delayed response value generated is also unique. For the entire display, there will be no conflict between the delayed response values of the two cabinets.
  • communicating with the signal station there is only one box to communicate with the signal station, so that possible signal conflicts can be avoided, and the signal station may be able to communicate with two or more boxes at the same time. And instructions affect the overall control logic and are prone to errors.
  • the response priority order of responding to the signal station's number command is determined according to the delay response value of each cabinet according to the preset sorting rule, and it is determined to have the first Response priority boxes, so that each box knows its own response priority.
  • the preset sorting rule is to sort the delayed response values from small to large, and the smaller the delayed response value is, the higher the response priority is.
  • the box body responds to the signal station instructions in sequence according to the determined response priority order. Specifically, it includes: the box with the first response priority preferentially responds to the number reporting instruction from the signal station. If the box with the first response priority cannot respond to the instruction from the signal station, that is, the signal station cannot read the box information under this response priority, then it will determine the existence of the box with the first response priority. If it fails, modify the priority to the next response priority, and let the cabinet with the next response priority respond. Until all the boxes whose response priority is determined have responded to the signal station instructions.
  • the signal station automatically obtains the initialization information of the box according to the response of the box, and puts a label on the box of the display screen.
  • the method includes: the signal station receives a signal from the box according to the response priority order in response to an instruction from the signal station, and establishes an information exchange channel with the box.
  • the signal station sends a "standby" instruction to the remaining boxes that have not responded, so that it waits for further instructions from the signal station.
  • the signal station performs the following information interaction with the box through the established information exchange channel: S1211, the box outputs its own box code to the signal station.
  • the signal station sends a label value to the box, and the label value establishes a unique corresponding relationship with the box code of the box.
  • the signal station sends a sleep instruction to the box, and does not respond to any other form of instructions from the signal station when it does not receive the "start box" instruction.
  • the signal station will once again output the "report number" command.
  • the cabinet with the first response priority enters sleep mode and will not respond to the signal station command, while the cabinet with the second response priority will do so.
  • Become the highest priority box this box will respond to the signal station and repeat the above operations.
  • the box body will receive the response instructions of the signal station one by one, and will be labeled by the signal station. After the last box in the entire display screen is also labeled, when the signal station sends a response command, no box will respond again, and the signal station enters the next working mode of starting the box.
  • the signal station obtains the physical installation position of the box according to the label information of the box of the display screen. Including: S1221, the cabinet statistics the label information of the surrounding cabinets. Including: The signal station will issue a "start box" instruction to all boxes.
  • the box of the whole display screen is started according to the instruction of starting the box. After starting, the box performs a power-on self-inspection process: S12211. Check whether the startup state of the box is normal.
  • the cabinet After the above power-on self-check process is completed, the cabinet enters the standby state, and then it will respond to the signal station's instructions.
  • the cabinet in addition to detecting its own state, the cabinet can also detect and record the label value of the surrounding cabinets, so that the label information of the surrounding cabinets can be counted.
  • the signal station receives the surrounding label information of the box one by one. Including: the signal station sends out a "start box” instruction to all boxes, initiates signal communication with the box, and obtains the label information of the box and the label information of the surrounding boxes. Specifically, it includes: the signal station initiates an "inquiry” instruction to the first box labeled with a label value, and waits for the box to respond.
  • the inquired box responds to the "inquiry" instruction of the signal station as soon as it enters the standby state. Specifically, when the box being inquired responds to the inquiry instruction of the signal station, the box communicates the following information with the signal station through the established information exchange channel: S12221, the box The label value of the box and the label value of the surrounding boxes are fed back to the signal station.
  • the signal station After receiving the label information sent by the box, the signal station sends a sleep instruction to the box, and does not respond to any other form of instructions from the signal station when it does not receive the "start box" instruction.
  • the signal station After sending the sleep instruction to the first box, the signal station will continue to inquire the second box until the second box responds, receiving the label information of the second box and the label information of the surrounding boxes, and then Sleep the second cabinet, query the third cabinet, and so on, query all cabinets again, and sleep all cabinets. Until the signal station obtains the label information of the box and the label information of the surrounding boxes.
  • S1223 The signal station fits all the obtained label information to obtain the physical installation position of the box corresponding to the label information on the display screen.
  • the signal station allocates playing coordinate values to the display box according to the physical installation position of the display box.
  • the signal station After the signal station obtains the physical installation position information of the box corresponding to each label in the entire display, it divides the display area according to the entire display and the number of tags, and the size of the divided area is the size of a box. Size.
  • the signal station encodes each box, and sequentially assigns a playback coordinate value to each box, and the playback coordinate value corresponds to the display range of the box; wherein, one box label corresponds to two determined coordinate values.
  • the signal station sends the playing coordinate values of the boxes to the boxes one by one. Including: After the signal station completes the coding of each cabinet and assigns the playback coordinate value, output the "start cabinet" command to all cabinets.
  • the cabinet After the cabinet receives the command to start the cabinet, it will perform the power-on self-test process, and enter the standby state after the power-on self-test process is completed.
  • the signal station After the signal station sends out the "start box” instruction, it initiates a signal exchange for assigning the playing coordinates to the box in turn, and assigning the playing coordinate values to the box. Specifically, it includes: the signal station sends an "assignment" instruction to the first box.
  • the first box will not respond to the assignment instruction in time when it is in the power-on self-inspection process, but when it enters the standby state at the end of the self-inspection process, it will respond to the assignment instruction as soon as possible, and the box will pass the established information
  • the interactive channel exchanges the following information with the signal station: S12331.
  • the box sends its own box coding information to the signal station.
  • the signal station inputs a sleep instruction to the box.
  • the signal station has finished assigning the playback coordinate value to the first cabinet.
  • the corresponding playback coordinate value is assigned to each subsequent box.
  • the step S1 includes: S131.
  • the signal station sends all the video information to all the boxes according to the established initial wireless communication connection.
  • the signal station outputs a "start box" command to the entire box according to the established initial wireless communication connection.
  • the cabinet enters the power-on self-check process according to the start cabinet instruction, and enters the standby state.
  • the signal station issues a "full screen transceiving" instruction to the box, and inputs the following instructions to the box: S1311, read its own playing coordinate value.
  • the video information to be played is the video information covered by the play coordinate value.
  • S1313 Start receiving and playing video information.
  • the above instructions are delayed one by one, and the delay interval can be pre-arranged as needed.
  • the above instructions do not require any feedback from the cabinet.
  • the signal station After the above-mentioned instruction is issued and the preset delay interval ends, the signal station starts to send video information to the entire cabinet.
  • the cabinet receives all the video information sent by the signal station, and determines the playback range according to the playback coordinate value, and only plays the video information within the determined playback coordinate value range.
  • the present invention provides an LED display screen communication system.
  • the display screen is explained by taking the LED display screen as an example, and the wireless transmission technology is explained by taking WiFi for wireless signal transmission as an example.
  • the signal station automatically obtains the initialization information of the display screen cabinet and establishes initialization. Take a wireless communication connection as an example.
  • an LED display screen communication system the communication system includes: a signal station 10 and a number of boxes 20 spliced together LED display screen 100, the signal station 10 and a number of boxes 20 in a star
  • a wireless communication structure establishes a wireless communication connection to perform WiFi wireless signal transmission of information.
  • the signal station 10 drives a number of the boxes 20, and the signal station 10 performs wireless signal transmission to a plurality of boxes 20 in a unified manner; the box body Wi-Fi wireless signal transmission is performed wirelessly between 20; wherein the information includes one or any combination of control information, video information, position information of the cabinet, and playback coordinate values of the cabinet.
  • the LED display screen is formed by splicing multiple cabinets, and the cabinet is formed by joining multiple LED display modules.
  • Each cabinet is a playback unit, and each cabinet can play video and audio.
  • the signal station integrates the original information processing and information transmission of the module in the box, has the functions of information transmission and information processing, and realizes the original information transmission and information processing of the module of the box.
  • the module of the box body only retains information reception, and realizes video playback and audio playback only by receiving information.
  • the box 20 includes a wireless communication device 21 and a power transmission device 22.
  • the wireless communication device 21 is used between the box body 20 and the box body 20, and the box body 20 and the signal station 10 perform wireless signal communication.
  • the power transmission device 22 is used for wireless power transmission with the power supply device 30 arranged in the center of the display screen 100 to provide power for the box 20 and the wireless communication device 21.
  • the box body 20 includes a box body code, and the box body code is used to identify the box body 20.
  • the box body 20 has a unique box body code when it leaves the factory, and the box body code is unique among the entire display screen that supports wireless transmission.
  • the signal station automatically obtains the initialization information of the cabinet of the display screen, and establishes an initialization wireless communication connection.
  • simple information communication is carried out between the box and the box, and the communication result is transmitted to the signal station, so that the signal station automatically obtains the initialization information of the box and establishes an initial wireless communication connection;
  • the initialization information Including: the number of cabinets, cabinet coding, cabinet installation position coordinates. Specifically include: C1, the signal station puts a label on the cabinet of the display screen.
  • the signal station sends out a "reporting number" instruction.
  • each box Before responding to the signal station reporting instruction, each box generates a delayed response value according to its own box code and according to a preset compilation rule, and responds to the signal station instruction according to this delayed response value.
  • the preset sorting rule is to sort the delayed response values from small to large, and the smaller the delayed response value is, the higher the response priority is.
  • the box body responds to the signal station instructions in sequence according to the determined response priority order. Specifically, it includes: the box with the first response priority preferentially responds to the number reporting instruction from the signal station. If the box with the first response priority cannot respond to the instruction from the signal station, that is, the signal station cannot read the box information under this response priority, then it will determine the existence of the box with the first response priority. If it fails, modify the priority to the next response priority, and let the cabinet with the next response priority respond. Until all the boxes whose response priority is determined have responded to the signal station instructions.
  • the signal station automatically obtains the initialization information of the box according to the response of the box, and puts a label on the box of the display screen.
  • the method includes: the signal station receives a signal from the box according to the response priority order in response to an instruction from the signal station, and establishes an information exchange channel with the box.
  • the signal station sends a "standby" instruction to the remaining boxes that have not responded, so that it waits for further instructions from the signal station.
  • the signal station performs the following information interaction with the cabinet through the established information exchange channel: C11.
  • the cabinet outputs its own cabinet code to the signal station.
  • the signal station sends a label value to the box, and the label value establishes a unique corresponding relationship with the box code of the box.
  • the signal station sends a sleep instruction to the box, and does not respond to any other form of instruction from the signal station when it does not receive the "start box" instruction.
  • the signal station will output the "report number" command again.
  • the cabinet with the first response priority enters sleep mode and will not respond to the signal station command, while the cabinet with the second response priority will do so.
  • Become the highest priority box this box will respond to the signal station and repeat the above operations.
  • the box body will receive the response instructions of the signal station one by one, and will be labeled by the signal station. After the last box in the entire display screen is also labeled, when the signal station sends a response command, no box will respond again, and the signal station enters the next working mode of starting the box.
  • the cabinet makes statistics of the label information of the surrounding cabinets. Including: The signal station will issue a "start box” instruction to all boxes.
  • the box of the whole display screen is started according to the instruction of starting the box. After starting, the box will perform a power-on self-inspection process: C21, check whether the startup state of the box is normal.
  • the cabinet After the above power-on self-check process is completed, the cabinet enters the standby state, and then it will respond to the signal station's instructions.
  • the cabinet in addition to detecting its own state, the cabinet can also detect and record the label value of the surrounding cabinets, so that the label information of the surrounding cabinets can be counted.
  • the signal station receives the label information around the box one by one. Including: the signal station sends out a "start box” instruction to all boxes, initiates signal communication with the box, and obtains the label information of the box and the label information of the surrounding boxes. Specifically, it includes: the signal station initiates an "inquiry” instruction to the first box labeled with a label value, and waits for the box to respond.
  • the inquired box responds to the "inquiry" instruction of the signal station as soon as it enters the standby state. Specifically, when the box being inquired responds to the inquiry instruction of the signal station, the box communicates the following information with the signal station through the established information exchange channel: C31, the box The label value of the box and the label value of the surrounding boxes are fed back to the signal station.
  • the signal station After receiving the label information sent by the box, the signal station sends a sleep instruction to the box, and does not respond to any other form of instructions from the signal station when it does not receive the "start box" instruction.
  • the signal station After sending the sleep instruction to the first box, the signal station will continue to inquire the second box until the second box responds, receiving the label information of the second box and the label information of the surrounding boxes, and then Sleep the second cabinet, query the third cabinet, and so on, query all cabinets again, and sleep all cabinets. Until the signal station obtains the label information of the box and the label information of the surrounding boxes.
  • the signal station fits all the obtained label information to obtain the physical installation position of the box corresponding to the label information on the display screen.
  • the signal station assigns the playing coordinate value to the display box according to the physical installation position of the display box. Including: C51. After the signal station obtains the physical installation position information of the cabinet corresponding to each label in the entire display, the display area is divided according to the entire display and the number of tags, and the size of the divided area is one The size of the box.
  • the signal station encodes each cabinet, and assigns a playback coordinate value to each cabinet in turn, and the playback coordinate value corresponds to the display range of the cabinet; wherein, one cabinet label corresponds to two determined coordinate values.
  • the signal station sends the playing coordinate values of the cabinets to the cabinets one by one. Including: After the signal station completes the coding of each cabinet and assigns the playback coordinate value, output the "start cabinet" command to all cabinets.
  • the cabinet After the cabinet receives the command to start the cabinet, it will perform the power-on self-test process, and enter the standby state after the power-on self-test process is completed.
  • the signal station After the signal station sends out the "start box” instruction, it initiates a signal exchange for assigning the playing coordinates to the box in turn, and assigning the playing coordinate values to the box. Specifically, it includes: the signal station sends an "assignment" instruction to the first box.
  • the first box will not respond to the assignment instruction in time when it is in the power-on self-inspection process, but when it enters the standby state at the end of the self-inspection process, it will respond to the assignment instruction as soon as possible, and the box will pass the established information
  • the interactive channel exchanges the following information with the signal station: C61.
  • the box sends its own box coding information to the signal station.
  • the signal station After confirming that the received cabinet code is correct, the signal station sends to the cabinet the information of the playing coordinate value corresponding to the cabinet code.
  • the signal station inputs a sleep instruction to the box.
  • the signal station has finished assigning the playback coordinate value to the first cabinet.
  • the corresponding playback coordinate value is assigned to each subsequent box.
  • the signal station sends all the video information to the cabinet according to the established initial wireless communication connection. Including: The signal station outputs a "start box" command to the entire box according to the established initial wireless communication connection.
  • the cabinet enters the power-on self-check process according to the start cabinet instruction, and enters the standby state.
  • the signal station issues a "full screen transceiving" instruction to the box, and inputs the following instructions to the box: C71, read its own playing coordinate value.
  • the video information to be played is the video information covered by the play coordinate value.
  • the above instructions are delayed one by one, and the delay interval can be pre-arranged as needed.
  • the above instructions do not require any feedback from the cabinet.
  • the signal station After the above-mentioned instruction is issued and the preset delay interval ends, the signal station starts to send video information to the entire cabinet.
  • the cabinet receives all the video information sent by the signal station, and determines the playback range according to the playback coordinate value, and only plays the video information within the determined playback coordinate value range.
  • a plurality of box modules are driven by one signal station. Only information reception is reserved on the module, and only video playback and audio playback are required.
  • the whole display screen is composed of multiple boxes, and wireless signal transmission between the boxes can make the display screen further thinner and thinner, and at the same time can further simplify the control structure of the box body, so as to achieve a lighter and thinner structure design.
  • a signal station is used to uniformly transmit signals to multiple cabinets. Since the signal station and several cabinets form a star communication structure instead of a series structure, even if one of the cabinets fails, it will not Affect the normal work of other cabinets, so as to achieve a more stable display effect. Therefore, it has industrial applicability.

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Abstract

一种显示屏的通信系统及其通信方法、箱体，所述通信系统包括：一个信号站（10）和若干箱体（20）拼接在一起的显示屏（100），所述信号站（10）与若干箱体（20）呈星形通信结构建立无线通信连接进行信息的无线信号传输，所述箱体（20）之间通过无线方式进行无线信号传输。

Description

一种显示屏通信系统及其通信方法、箱体 技术领域
本发明涉及显示屏领域，特别涉及一种显示屏的通信系统及其通信方法、箱体。
 背景技术
现有在大型显示屏领域中，信号传输问题一直是困扰显示屏进一步轻薄化的一个重要因素。
显示屏通过多个箱体拼接而成，而箱体又是由多个显示模组拼接而成，模组PCB上包含控制驱动IC等。箱体需要播放视频信息，现有的一个基本结构是需要将视频信息通过发送卡发送，箱体中的接收卡接收，接收完毕后，通过排线发送到各个模组上。箱体与箱体之间通过网线连接，视频信号在箱体与箱体之间通过网线传输。这样一来，视频信号就可实现模组与模组之间的传输和实现箱体与箱体之间的传输，这也是现有的一个显示屏信号传输流程。
基于以上这种信号传输方式，存在有以下问题：（1）模组与模组之间的排线连接，会占据箱体内部大量空间，不利于屏体的轻薄化。
（2）模组与模组之间的排线连接和箱体与箱体之间的网线连接接线复杂，不利于拆装维护，容易因接触不良产生断路，影响箱体的稳定性。
（3）箱体与箱体之间的网线连接，要求箱体与箱体之间需要存在一个开口通道供出线，不利于箱体良好的密封性。
（4）基于该通讯体系下的信号控制、系统调试比较复杂，不但需要软件层面的参数设置，路径设置等，还需要兼顾硬件层面的线路连接、箱体位置、接线方式、接线位置等多种因素。
（5）多路串口接线对环境要求较高，需要箱体具有较好的气密性和防水性能。
所以，有必要提出一种新的显示屏的通信传输方法，以解决以上提到的技术问题。
 技术问题
有鉴于此，本发明实施例提供一种显示屏的通信系统及其通信方法、箱体，以解决显示屏结构复杂的问题。
 技术解决方案
根据本发明的一个方面，提供的一种显示屏通信系统包括：一个信号站和若干箱体拼接在一起的显示屏，所述信号站与若干箱体呈星形通信结构建立无线通信连接进行信息的无线信号传输。
根据本发明的另一个方面，提供的一种显示屏通信方法，应用于信号站，所述方法包括：信号站获取显示屏的箱体的初始化信息，与各箱体建立星形通信结构的无线通信连接；与显示屏的各箱体进行信息的无线信号传输。
根据本发明的再一个方面，提供的一种显示屏通信方法，应用于显示屏，所述方法包括：显示屏的若干箱体与信号站建立星形通信结构的无线通信连接，与所述信号站进行信息的无线信号传输；所述箱体之间通过无线方式进行信号传输。
根据本发明的又一个方面，提供的一种显示屏通信方法，应用于箱体，所述方法包括：获取信号站发送的播放坐标值；接收信号站发送的全部视频信息；根据所述播放坐标值，播放所述全部视频信息中对应的播放范围的视频信息。
根据本发明实施例的又一个方面，提供的一种箱体，所述箱体包括无线通信装置；其中：所述无线通信装置用于箱体与箱体之间，以及箱体与信号站进行无线信号通信。
 有益效果
本发明实施例，将每个箱体的模组的信息处理和信息发送都集成在一个信号站上，通过一个信号站驱动多个箱体模组，模组上仅保留信息接收，仅需要实现视频播放和音频播放，能够使显示屏进一步轻薄化。同时，由于所述信号站与若干箱体是组成星形通信结构，即使其中出现一路箱体故障，也不会影响到其他箱体的正常工作，稳定性高。
 附图说明
图1为本发明提供一种显示屏通信系统的结构示意图；图2为本发明提供一种箱体的结构示意图；图3为本发明提供一种显示屏通信方法的流程示意图。
本发明目的的实现、功能特点及优点将结合实施例，参照附图做进一步说明。
 本发明的实施方式
为了使本发明所要解决的技术问题、技术方案及有益效果更加清楚、明白，以下结合附图和实施例，对本发明进行进一步详细说明。应当理解，此处所描述的具体实施例仅以解释本发明，并不用于限定本发明。
在后续的描述中，使用用于表示元件的诸如“模块”、“部件”或“单元”的后缀仅为了有利于本发明的说明，其本身没有特定的意义。因此，“模块”、“部件”或“单元”可以混合地使用。
在一个实施例中，如图1所示，本发明提供一种显示屏通信系统，所述通信系统包括：一个信号站10和若干箱体20拼接在一起的显示屏100，所述信号站10与若干箱体20呈星形通信结构建立无线通信连接进行信息的无线信号传输，所述信号站10驱动若干所述箱体20，所述箱体20之间通过无线方式进行无线信号传输；其中，所述信息包含控制信息、视频信息、箱体的位置信息、以及箱体的播放坐标值中的一种或任意多种。
在本实施例中，所述显示屏由多个箱体拼接而成，而箱体由多个显示模组拼接而成，每个箱体就是一个播放单元，每个箱体都能够播放视频和音频。所述显示屏通信系统应用无线连接相关技术，通过一个信号站对多个箱体统一进行包含控制信息、视频信息和位置信息等所需信息的无线信号传输，能够使箱体无需使用排线、网线等类似结构的有线连接方式进行信号传输，而使用无线传输形式进行视频信号等传输，节省箱体内空间，箱体结构更简单、变得更加轻薄，箱体控制线路和控制逻辑得到简化，确保了通信更加流畅及时，更方便；无线连接形式省略了大量串口，进一步简化显示屏的信息流通渠道与连接方式，有利于拆装维护的方便。
优选地，所述显示屏100为LED显示屏，所述箱体20为LED箱体。
在一个实施例中，所述信号站10与若干箱体20呈星形通信结构建立无线通信连接进行信息的无线信号传输，进一步包括：所述信号站10集成所述箱体20内的模组原有的信息处理和信息发送，具有信息发送和信息处理的功能，实现所述箱体20的模组原先的信息发送、信息处理。所述箱体20的模组只保留信息接收，仅通过接收信息实现视频播放和音频播放。
所述信号站10与若干箱体20组成星形通信结构，通过所述信号站10统一对多个箱体20进行信息的无线信号传输。
在本实施例中，将每个箱体的模组的信息处理和信息发送都集成在一个信号站上，模组上仅保留信息接收，仅需要实现视频播放和音频播放，信息发送、信息处理（例如信息的承接、编码、放大和存储）等被集成在一个信号站上，通过一个信号站驱动多个箱体模组。同时，通过一个所述信号站统一对多个箱体进行信号传输，由于所述信号站与若干箱体是组成星形通信结构，而不是串联结构，即使其中出现一路箱体故障，也不会影响到其他箱体的正常工作，从而实现更稳定的显示效果。
在一个实施例中，所述无线传输通信技术至少包括以下之一：LiFi（Light  Fidelity，可见光无线通信或光保真技术）形式或WiFi形式进行无线信号传输。
需要说明的是，本发明的无线传输通信技术不限于以上提到的两种无线传输技术，凡是能进行无线信号传输的信息的技术皆涵盖在此范围内。
在一个实施例中，如图2所示，所述箱体20包括无线通信装置21，所述无线通信装置21用于箱体20与箱体20之间，以及箱体20与所述信号站10进行无线信号通信。
在一个实施例中，如图1和图2所示，所述箱体20包括电力输送装置22，所述电力输送装置22用于与设置在显示屏100中央的供电装置30进行电力传输，为所述箱体20和无线通信装置21提供电源。
所述电力输送装置可选的包括软连接形式、硬连接形式、有线或无线形式等，安置与箱体的边沿，在保证箱体密封性良好的情况下，使得箱体的结构简单、轻薄，系统的控制逻辑和布线逻辑都能够得到化简。
在一个实施例中，所述箱体20包括一个箱体编码，所述箱体编码用于标识所述箱体。所述箱体20在出厂时会有一个独一无二的箱体编码，该箱体编码在支持无线传输的整块显示屏100中是唯一的。
在本实施例中，箱体与箱体无需进行紧密连接。因为箱体与箱体之间以及箱体与信号站之间采用无线通信装置进行无线信号通信，箱体与箱体之间的通电形式可变为在箱体边框接插硬连接形式，使得箱体的边沿处接缝是可调的，而不影响信号和供电，所以允许箱体可不需要紧密相连。箱体与箱体之间的拼接仅仅通过连接卡扣等装置即可完成，完全无走线也支持无开孔，拆装方便。
本发明实施例还提供一种显示屏通信方法，应用于上述无线通信系统的信号站，所述方法包括：信号站获取显示屏的箱体的初始化信息，与各箱体建立星形通信结构的无线通信连接；与显示屏的各箱体进行信息的无线信号传输。
在一个实施例中，所述信号站与若干箱体建立星形通信结构的无线通信连接包括：所述信号站与若干箱体呈星形通信结构建立初始化无线通信连接。
在一个实施例中，所述信号站与若干箱体呈星形通信结构建立初始化无线通信连接，至少包括以下之一方式建立初始化无线通信连接。
方式一、所述信号站通过手动方式获取显示屏的箱体的初始化信息，建立初始化无线通信连接。包括：A1、信号站接收通过手动方式录入显示屏的箱体的初始化信息，其中，所述初始化信息包括：箱体数量、箱体编码、箱体安装位置。
A2、所述信号站获取显示屏的箱体的初始化信息后，依据箱体编码代表的相应次序，对显示屏划分播放区域，为拼接成所述显示屏的每个箱体分配播放坐标值。
至此，所述信号站与若干箱体建立初始化无线通信连接。后续，所述信号站根据已建立的初始化无线通信连接，将全部视频信息发送给箱体，所述箱体接收信号站发送的全部视频信息，根据自身播放区域的播放坐标值来输出对应位置的视频信息。另外，所述信号站在通信过程中，由于保留有每个箱体的初始化信息，故可以对比箱体反馈信息来检测箱体是否出现故障情况，或未响应情况。
以上这种通过手动录入箱体初始化信息到信号站的手动录入方式虽然比较麻烦，但是可以避免可能出现信号的冲突的问题，即可以避免信号站可能会出现同时面对两个箱体进行通信和指令，影响整体控制逻辑，容易出现错误的问题。
方式二、所述信号站通过自动方式获取显示屏的箱体的初始化信息，建立初始化无线通信连接。
在这种工作形态下，箱体与箱体之间进行简单的信息通信，并将通信结果传输给信号站，使信号站自动获取箱体的初始化信息，建立初始化无线通信连接；所述初始化信息包括：箱体数量、箱体编码、箱体安装位置。具体包括：B1、信号站为显示屏的箱体打上标签。
具体的，当箱体拼接成显示屏时，所述信号站发出“报数”指令。每个箱体在响应所述信号站报数指令之前，根据自身的箱体编码，按照预设的编译规则生成一个延迟响应值，并根据这一延迟响应值响应所述信号站指令。由于每个箱体的箱体编码是唯一的，所以生成的延迟响应值也是唯一的，对于整块显示屏来说，不会出现两个箱体的延迟响应值冲突的情况，在一次箱体与信号站相互通信时，仅存在一个箱体与所述信号站进行通信，从而可以避免可能出现信号的冲突的问题，即可以避免信号站可能会出现同时面对两个或以上箱体进行通信和指令，影响整体控制逻辑，容易出现错误的问题。
整块显示屏的箱体与箱体之间进行一个信号交流，根据每个箱体的延迟响应值按照预设排序规则确定响应所述信号站报数指令的响应优先次序，并确定拥有第一响应优先权的箱体，从而使每个箱体都知道自已的响应优先次序。优选地，所述预设排序规则为将延迟响应值从小到大排序，延迟响应值越小，响应优先次序越高。
箱体根据确定的响应优先次序，依次响应所述信号站指令。具体包括：拥有第一响应优先权的箱体优先响应来自所述信号站的报数指令。如果拥有第一响应优先权的箱体无法响应来自所述信号站的指令，即信号站读取不到这一响应优先次序下的箱体信息，那么会判断第一响应优先次序的箱体存在故障，则修改优先级至下一响应优先次序，让下一响应优先次序的箱体进行响应。直至所有确定响应优先次序的箱体都响应所述信号站指令。
所述信号站根据箱体的响应，自动获取箱体的初始化信息，为显示屏的箱体打上标签。
具体的，所述信号站接收根据响应优先次序的箱体响应来自所述信号站的指令的信号，与所述箱体建立一条信息交互的信道。
所述信号站对剩下未响应的箱体发送“待机”指令，让其等待信号站的进一步指令。
所述信号站通过已建立信息交互的信道与所述箱体，进行以下的信息交互：B11、信号站接收箱体反馈的箱体编码。
B12、向所述箱体发送一个标签值，所述标签值与所述箱体的箱体编码建立唯一的对应关系。
B13、向所述箱体输送一条睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
接下来，信号站会再一次输出“报数”指令，此时，拥有第一响应优先权的箱体进入睡眠模式，不会响应信号站指令，而原先拥有第二响应优先权的箱体会成为最优先权箱体，这个箱体会响应信号站，并重复上述操作。
通过以上的操作，对于整块显示屏来说，箱体会逐一接受所述信号站的响应指令，并被所述信号站打上标签。在整块显示屏中最后一个箱体也被打上标签后，信号站发出响应指令时，不会有箱体再回应，则信号站进入启动箱体的下一工作模式。
B2、信号站根据显示屏的箱体的标签信息获取箱体的物理安装位置。包括：B21、接收箱体统计的附近周围箱体的标签信息。
具体的，所述信号站会对全部箱体发出“启动箱体”指令。整块显示屏的箱体根据所述启动箱体指令启动，启动后，箱体进行开机自检流程：B211、箱体检测启动状态是否正常。
B212、检测信号站打上的标签值与自己的延迟响应值。
B213、检测周围箱体的标签值，并进行记录。
上述开机自检流程完成后，箱体进入待机状态，此时才会响应信号站的指令。
通过以上开机自检流程，箱体除了可以检测自身的状态之外，还可以检测记录周围箱体的标签值，从而可以统计附近周围箱体的标签信息。
B22、信号站逐个接收箱体的周围标签信息。
所述信号站对全部箱体发出“启动箱体”指令，与箱体发起信号交流，获取箱体的标签信息及其周围箱体的标签信息。具体包括：所述信号站向第一个被打上标签值的箱体发起“问询”指令，并等待该箱体回应。
该被问询的箱体在进入待机状态时第一时间响应所述信号站的“问询”指令。具体的，当被问询的所述箱体响应所述信号站的问询指令时，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：B221、所述箱体向所述信号站反馈箱体的标签值及其周围箱体的标签值。
B222、所述信号站收到箱体发送的标签信息后，给箱体发送一个睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
在向第一箱体发出睡眠指令后，所述信号站会继续问询第二箱体，直到第二箱体响应时，接收第二箱体的标签信息和其周围箱体的标签信息，再休眠第二箱体，问询第三箱体，依次类推，将全部箱体都问询一遍，并休眠全部箱体。直至所述信号站获取箱体的标签信息及其周围箱体的标签信息。
B23、信号站拟合所有获得的标签信息得到与标签信息对应的箱体在显示屏的物理安装位置。
在所述信号站获取了全部箱体的标签信息及其周围箱体的标签信息后，通过预设的拟合算法将获取的全部标签拟合，得到每一标签所对应的箱体在整块显示屏中的物理安装位置信息。
B3、信号站根据显示屏的箱体的物理安装位置为显示屏的箱体分配播放坐标值。
B31、信号站在得到每个标签对应的箱体在整块显示屏中的物理安装位置信息后，依据整块显示屏及标签数量对显示屏区域进行划分，划分出来的区域大小就是一个箱体的尺寸大小。
B32、所述信号站对每个箱体进行编码，依次给每个箱体分配播放坐标值，该播放坐标值对应箱体的显示范围；其中，一个箱体标签对应两个确定的坐标值。
B33、信号站逐个将箱体的播放坐标值发送给箱体。
在信号站对每个箱体完成编码并分配好播放坐标值后，向全部箱体输出“启动箱体”指令。
箱体在接收到启动箱体指令后，进行开机自检流程，开机自检流程完成后进入待机状态。
所述信号站在发出“启动箱体”指令后，依次发起对箱体进行播放坐标赋值的信号交流，对箱体进行播放坐标值赋值。具体包括：所述信号站向第一箱体发送“赋值”指令。
所述第一箱体在处于开机自检流程时不会及时响应该赋值指令，但在考级自检流程结束进入待机状态时，会第一时间响应该赋值指令，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：B331、所述箱体向所述信号站发送其自身箱体编码信息。
B332、所述信号站确认收到的所述箱体编码无误后，向所述箱体发送该箱体编码对应播放坐标值信息。
B333、所述信号站向所述箱体输入睡眠指令。
至此，信号站完成对第一个箱体赋播放坐标值。
依据上述流程对之后每一个箱体都赋对应的播放坐标值。
在所述信号站发出“赋值”指令时，没有箱体再响应信号站的“赋值”指令时，说明所述信号站已对全部箱体赋值完成，或者仅依据程序判别确定对全部箱体赋值完成。
在一个实施例中，所述信号站与若干箱体呈星形通信结构建立初始化无线通信连接进行信息的无线信号传输，包括：B4、信号站根据已建立的初始化无线通信连接，发送全部视频信息给所有箱体。
具体的，所述信号站根据已建立的初始化无线通信连接，向全体箱体输出“启动箱体”指令。
箱体根据所述启动箱体指令进入开机自检流程，进入待机状态。
所述信号站对所有箱体发出“整屏收发”指令，并向所有箱体输入以下指令：B41、读取自身的播放坐标值。
B42、所要播放的视频信息为该播放坐标值涵盖的视频信息。
B43、开始接收播放视频信息。
上述指令逐条延迟发出，延迟间隔可以根据需要预先约定。上述指令不需要箱体做任何反馈。
在上述指令发出完成，并且预设延时间隔结束后，所述信号站开始对全体箱体发送视频信息。
B5、箱体接收信号站发送的全部视频信息，根据播放坐标值确定播放范围，只播放确定的播放坐标值范围的视频信息。
要强调的是，箱体存在不响应信号站的情况，即在箱体故障时，会出现不同程度的不响应情况，分别是：不响应信号站指令、单个方向不响应箱体通信、多个方向不响应箱体通信和完全不响应。
当箱体不响应信号站通信时，可以通过“B21、箱体统计附近周围箱体的标签信息”这一流程来识别，当这个箱体不响应信号站的指令时，信号站就会跳过这一箱体，去标记下一箱体，因此故障箱体是不具备标签信息的。
如果该箱体在至少一个方向上能够进行箱体通信，就可以把这个未得到信号站标记的箱体识别出来，信号站可以通过故障箱体周围的箱体来识别箱体的故障情况，并且判断出改故障箱体的具体位置。
如果箱体完全不响应，意味着周围箱体完全无法读取来自故障箱体的任何信息，对于整屏和信号站来说，这一箱体不存在。但是在信号站拟合的屏体中，这一块区域由于读取不到信息，即对于故障箱体的其周围箱体来说，面向故障箱体这一面的信息是缺失的，所以播放坐标上会有所区别。
在一个实施例中，如图3所示，本发明提供一种显示屏通信方法，应用于上述显示屏通信系统的显示屏，所述方法包括：S1、显示屏的若干箱体与信号站建立星形通信结构的无线通信连接，进行信息的无线信号传输；S2、所述箱体之间通过无线方式进行无线信号传输。
具体的，显示屏通信系统应用无线连接相关技术，通过一个信号站对多个箱体统一进行无线信号传输。其中，信息包括但不限于控制信息、视频信息、箱体的位置信息、箱体的播放坐标信息等所需的一种或任意多种组合信息。所述信号站集成所述箱体内的模组原有的信息处理和信息发送，具有信息发送和信息处理的功能，实现所述箱体的模组原先的信息发送、信息处理。所述箱体的模组只保留信息接收，仅通过接收信息实现视频播放和音频播放。
在本实施例中，将每个箱体的模组的信息处理和信息发送都集成在一个信号站上，模组上仅保留信息接收，仅需要实现视频播放和音频播放，信息发送、信息处理（例如信息的承接、编码、放大和存储）等被集成在一个信号站上，通过一个所述信号站统一对多个箱体进行信号传输，由于所述信号站与若干箱体是组成星形通信结构，而不是串联结构，即使其中出现一路箱体故障，也不会影响到其他箱体的正常工作，从而实现更稳定的显示效果。在一个实施例中，所述无线传输通信技术至少包括以下之一：LiFi形式或WiFi形式进行无线信号传输。
需要说明的是，本发明的无线传输通信技术不限于以上提到的两种无线传输技术，凡是能进行无线信号传输的信息的技术皆涵盖在此范围内。
在一个实施例中，所述箱体包括无线通信装置；所述箱体通过所述无线通信装置与所述信号站建立无线通信连接，进行无线信号传输。所述箱体之间通过所述无线通信装置进行无线信号传输。
在一个实施例中，所述箱体包括一个箱体编码，所述箱体编码用于标识所述箱体。所述箱体在出厂时会有一个独一无二的箱体编码，该箱体编码在支持无线传输的整块显示屏中是唯一的。在一个实施例中，所述步骤S1包括：所述若干箱体与信号站建立星形通信结构的初始化无线通信连接。至少包括以下之一方式建立初始化无线通信连接：方式一、所述信号站通过手动方式获取显示屏的所有箱体的初始化信息，建立初始化无线通信连接。S111、接收通过手动方式录入显示屏的所有箱体的初始化信息，其中，所述初始化信息包括：箱体数量、箱体编码、箱体安装位置坐标。
S112、获取显示屏的所有箱体的初始化信息后，依据箱体编码代表的相应次序，对每个箱体进行划分显示屏的播放区域，为每个箱体分配播放坐标值。
至此，所述信号站与若干箱体建立初始化无线通信连接。后续，所述信号站根据已建立的初始化无线通信连接，将全部视频信息发送给所有箱体，所述箱体接收信号站发送的全部视频信息，根据自身的播放坐标值（播放区域）来只输出对应位置的视频信息。另外，所述信号站在通信过程中，由于保留有每个箱体的初始化信息，故可以对比箱体反馈信息来检测箱体是否出现故障情况，或未响应情况。
方式二、所述信号站通过自动方式获取显示屏的箱体的初始化信息，建立初始化无线通信连接。
在这种工作形态下，箱体与箱体之间进行简单的信息通信，并将通信结果传输给信号站，使信号站自动获取箱体的初始化信息，建立初始化无线通信连接；所述初始化信息包括：箱体数量、箱体编码、箱体安装位置坐标。具体包括：S121、信号站为显示屏的箱体打上标签。包括：当箱体拼接成显示屏时，所述信号站发出“报数”指令。
每个箱体在响应所述信号站报数指令之前，根据自身的箱体编码，按照预设的编译规则生成一个延迟响应值，并根据这一延迟响应值响应所述信号站指令。由于每个箱体的箱体编码是唯一的，所以生成的延迟响应值也是唯一的，对于整块显示屏来说，不会出现两个箱体的延迟响应值冲突的情况，在一次箱体与信号站相互通信时，仅存在一个箱体与所述信号站进行通信，从而可以避免可能出现信号的冲突的问题，即可以避免信号站可能会出现同时面对两个或以上箱体进行通信和指令，影响整体控制逻辑，容易出现错误的问题。
整块显示屏的箱体与箱体之间进行一个信号交流，根据每个箱体的延迟响应值按照预设排序规则确定响应所述信号站报数指令的响应优先次序，并确定拥有第一响应优先权的箱体，从而使每个箱体都知道自已的响应优先次序。优选地，所述预设排序规则为将延迟响应值从小到大排序，延迟响应值越小，响应优先次序越高。
箱体根据确定的响应优先次序，依次响应所述信号站指令。具体包括：拥有第一响应优先权的箱体优先响应来自所述信号站的报数指令。如果拥有第一响应优先权的箱体无法响应来自所述信号站的指令，即信号站读取不到这一响应优先次序下的箱体信息，那么会判断第一响应优先次序的箱体存在故障，则修改优先级至下一响应优先次序，让下一响应优先次序的箱体进行响应。直至所有确定响应优先次序的箱体都响应所述信号站指令。
所述信号站根据箱体的响应，自动获取箱体的初始化信息，为显示屏的箱体打上标签。包括：所述信号站接收根据响应优先次序的箱体响应来自所述信号站的指令的信号，与所述箱体建立一条信息交互的信道。
所述信号站对剩下未响应的箱体发送“待机”指令，让其等待信号站的进一步指令。
所述信号站通过已建立信息交互的信道与所述箱体，进行以下的信息交互：S1211、所述箱体向所述信号站输出自己的箱体编码。
S1212、所述信号站向所述箱体输送一个标签值，所述标签值与所述箱体的箱体编码建立唯一的对应关系。
S1213、所述信号站向所述箱体输送一条睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
接下来，信号站会再一次输出“报数”指令，此时，拥有第一响应优先权的箱体进入睡眠模式，不会响应信号站指令，而原先拥有第二响应优先权的箱体会成为最优先权箱体，这个箱体会响应信号站，并重复上述操作。
通过以上的操作，对于整块显示屏来说，箱体会逐一接受所述信号站的响应指令，并被所述信号站打上标签。在整块显示屏中最后一个箱体也被打上标签后，信号站发出响应指令时，不会有箱体再回应，则信号站进入启动箱体的下一工作模式。
S122、信号站根据显示屏的箱体的标签信息获取箱体的物理安装位置。包括：S1221、箱体统计附近周围箱体的标签信息。包括：所述信号站会对全部箱体发出“启动箱体”指令。
整块显示屏的箱体根据所述启动箱体指令启动，启动后，箱体进行开机自检流程：S12211、检测箱体启动状态是否正常。
S12212、检测信号站打上的标签值与自己的延迟响应值。
S12213、检测周围箱体的标签值，并进行记录。
上述开机自检流程完成后，箱体进入待机状态，此时才会响应信号站的指令。
通过以上开机自检流程，箱体除了可以检测自身的状态之外，还可以检测记录周围箱体的标签值，从而可以统计附近周围箱体的标签信息。
S1222、信号站逐个接收箱体的周围标签信息。包括：所述信号站对全部箱体发出“启动箱体”指令，与箱体发起信号交流，获取箱体的标签信息及其周围箱体的标签信息。具体包括：所述信号站向第一个被打上标签值的箱体发起“问询”指令，并等待该箱体回应。
该被问询的箱体在进入待机状态时第一时间响应所述信号站的“问询”指令。具体的，当被问询的所述箱体响应所述信号站的问询指令时，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：S12221、所述箱体向所述信号站反馈箱体的标签值及其周围箱体的标签值。
S12222、所述信号站收到箱体发送的标签信息后，给箱体发送一个睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
在向第一箱体发出睡眠指令后，所述信号站会继续问询第二箱体，直到第二箱体响应时，接收第二箱体的标签信息和其周围箱体的标签信息，再休眠第二箱体，问询第三箱体，依次类推，将全部箱体都问询一遍，并休眠全部箱体。直至所述信号站获取箱体的标签信息及其周围箱体的标签信息。
S1223、信号站拟合所有获得的标签信息得到与标签信息对应的箱体在显示屏的物理安装位置。
包括：在所述信号站获取了全部箱体的标签信息及其周围箱体的标签信息后，通过预设的拟合算法将获取的全部标签拟合，得到每一标签所对应的箱体在整块显示屏中的物理安装位置信息。
S123、信号站根据显示屏的箱体的物理安装位置为显示屏的箱体分配播放坐标值。
S1231、信号站在得到每个标签对应的箱体在整块显示屏中的物理安装位置信息后，依据整块显示屏及标签数量对显示屏划分区域，划分出来的区域大小就是一个箱体的尺寸大小。
S1232、所述信号站对每个箱体进行编码，依次给每个箱体分配播放坐标值，该播放坐标值对应箱体的显示范围；其中，一个箱体标签对应两个确定的坐标值。
S1233、信号站逐个将箱体的播放坐标值发送给箱体。包括：在信号站对每个箱体完成编码并分配好播放坐标值后，向全部箱体输出“启动箱体”指令。
箱体在接收到启动箱体指令后，进行开机自检流程，开机自检流程完成后进入待机状态。
所述信号站在发出“启动箱体”指令后，依次发起对箱体进行播放坐标赋值的信号交流，对箱体进行播放坐标值赋值。具体包括：所述信号站向第一箱体发送“赋值”指令。
所述第一箱体在处于开机自检流程时不会及时响应该赋值指令，但在考级自检流程结束进入待机状态时，会第一时间响应该赋值指令，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：S12331、所述箱体向所述信号站发送其自身箱体编码信息。
S12332、所述信号站确认收到的所述箱体编码无误后，向所述箱体发送该箱体编码对应播放坐标值信息。
S12333、所述信号站向所述箱体输入睡眠指令。
至此，信号站完成对第一个箱体赋播放坐标值。
依据上述流程对之后每一个箱体都赋对应的播放坐标值。
在所述信号站发出“赋值”指令时，没有箱体再响应信号站的“赋值”指令时，说明所述信号站已对全部箱体赋值完成，或者仅依据程序判别确定对全部箱体赋值完成。
在一个实施例中，所述步骤S1包括：S131、信号站根据已建立的初始化无线通信连接，发送全部视频信息给所有箱体。
所述信号站根据已建立的初始化无线通信连接，向全体箱体输出“启动箱体”指令。
箱体根据所述启动箱体指令进入开机自检流程，进入待机状态。
所述信号站对箱体发出“整屏收发”指令，并向箱体输入以下指令：S1311、读取自身的播放坐标值。
S1312、所要播放的视频信息为该播放坐标值涵盖的视频信息。
S1313、开始接收播放视频信息。
上述指令逐条延迟发出，延迟间隔可以根据需要预先约定。上述指令不需要箱体做任何反馈。
在上述指令发出完成，并且预设延时间隔结束后，所述信号站开始对全体箱体发送视频信息。
S132、箱体接收信号站发送的全部视频信息，根据播放坐标值确定播放范围，只播放确定的播放坐标值范围的视频信息。
需要说明的是，上述方法实施例与系统实施例属于同一构思，其具体实现过程详见系统实施例，且系统实施例中的技术特征在所述方法实施例中均对应适用，这里不再赘述。
以下以一个具体的实施例来对本发明的技术方案作进一步的说明。
在一个实施例中，如图1和图2所示，本发明提供一种LED显示屏通信系统。在实施例中，所述显示屏以LED显示屏为例进行说明，无线传输技术以WiFi进行无线信号传输为例进行说明，所述信号站以自动方式获取显示屏的箱体的初始化信息建立初始化无线通信连接为例进行说明。
在本实施例中，一种LED显示屏通信系统，所述通信系统包括：一个信号站10和若干箱体20拼接在一起的LED显示屏100，所述信号站10与若干箱体20呈星形通信结构建立无线通信连接进行信息的WiFi无线信号传输，所述信号站10驱动若干所述箱体20，通过所述信号站10统一对多个箱体20进行无线信号传输；所述箱体20之间通过无线方式进行WiFi无线信号传输；其中，所述信息包含控制信息、视频信息、箱体的位置信息、以及箱体的播放坐标值中的一种或任意多种组合。
其中，所述LED显示屏由多个箱体拼接而成，而箱体由多个LED显示模组拼接而成，每个箱体就是一个播放单元，每个箱体都能够播放视频和音频。所述信号站集成所述箱体内的模组原有的信息处理和信息发送，具有信息发送和信息处理的功能，实现所述箱体的模组原先的信息发送、信息处理。所述箱体的模组只保留信息接收，仅通过接收信息实现视频播放和音频播放。
所述箱体20包括无线通信装置21和电力输送装置22。所述无线通信装置21用于箱体20与箱体20之间，以及箱体20与所述信号站10进行无线信号通信。所述电力输送装置22用于与设置在显示屏100中央的供电装置30进行电力无线传输，为所述箱体20和无线通信装置21提供电源。
所述箱体20包括一个箱体编码，所述箱体编码用于标识所述箱体20。所述箱体20在出厂时会有一个独一无二的箱体编码，该箱体编码在支持无线传输的整块显示屏中是唯一的。
在本实施例中，所述信号站通过自动方式获取显示屏的箱体的初始化信息，建立初始化无线通信连接。在这种工作形态下，箱体与箱体之间进行简单的信息通信，并将通信结果传输给信号站，使信号站自动获取箱体的初始化信息，建立初始化无线通信连接；所述初始化信息包括：箱体数量、箱体编码、箱体安装位置坐标。具体包括：C1、信号站为显示屏的箱体打上标签。
具体的，当箱体拼接成显示屏时，所述信号站发出“报数”指令。
每个箱体在响应所述信号站报数指令之前，根据自身的箱体编码，按照预设的编译规则生成一个延迟响应值，并根据这一延迟响应值响应所述信号站指令。整块显示屏的箱体与箱体之间进行一个信号交流，根据每个箱体的延迟响应值按照预设排序规则确定响应所述信号站报数指令的响应优先次序，并确定拥有第一响应优先权的箱体，从而使每个箱体都知道自已的响应优先次序。优选地，所述预设排序规则为将延迟响应值从小到大排序，延迟响应值越小，响应优先次序越高。
箱体根据确定的响应优先次序，依次响应所述信号站指令。具体包括：拥有第一响应优先权的箱体优先响应来自所述信号站的报数指令。如果拥有第一响应优先权的箱体无法响应来自所述信号站的指令，即信号站读取不到这一响应优先次序下的箱体信息，那么会判断第一响应优先次序的箱体存在故障，则修改优先级至下一响应优先次序，让下一响应优先次序的箱体进行响应。直至所有确定响应优先次序的箱体都响应所述信号站指令。
所述信号站根据箱体的响应，自动获取箱体的初始化信息，为显示屏的箱体打上标签。包括：所述信号站接收根据响应优先次序的箱体响应来自所述信号站的指令的信号，与所述箱体建立一条信息交互的信道。
所述信号站对剩下未响应的箱体发送“待机”指令，让其等待信号站的进一步指令。
所述信号站通过已建立信息交互的信道与所述箱体，进行以下的信息交互：C11、所述箱体向所述信号站输出自己的箱体编码。
C12、所述信号站向所述箱体输送一个标签值，所述标签值与所述箱体的箱体编码建立唯一的对应关系。
C13、所述信号站向所述箱体输送一条睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
接下来，信号站会再一次输出“报数”指令，此时，拥有第一响应优先权的箱体进入睡眠模式，不会响应信号站指令，而原先拥有第二响应优先权的箱体会成为最优先权箱体，这个箱体会响应信号站，并重复上述操作。
通过以上的操作，对于整块显示屏来说，箱体会逐一接受所述信号站的响应指令，并被所述信号站打上标签。在整块显示屏中最后一个箱体也被打上标签后，信号站发出响应指令时，不会有箱体再回应，则信号站进入启动箱体的下一工作模式。
C2、箱体统计附近周围箱体的标签信息。包括：所述信号站会对全部箱体发出“启动箱体”指令。
整块显示屏的箱体根据所述启动箱体指令启动，启动后，箱体进行开机自检流程：C21、检测箱体启动状态是否正常。
C22、检测信号站打上的标签值与自己的延迟响应值。
C23、检测周围箱体的标签值，并进行记录。
上述开机自检流程完成后，箱体进入待机状态，此时才会响应信号站的指令。
通过以上开机自检流程，箱体除了可以检测自身的状态之外，还可以检测记录周围箱体的标签值，从而可以统计附近周围箱体的标签信息。
C3、信号站逐个接收箱体的周围标签信息。包括：所述信号站对全部箱体发出“启动箱体”指令，与箱体发起信号交流，获取箱体的标签信息及其周围箱体的标签信息。具体包括：所述信号站向第一个被打上标签值的箱体发起“问询”指令，并等待该箱体回应。
该被问询的箱体在进入待机状态时第一时间响应所述信号站的“问询”指令。具体的，当被问询的所述箱体响应所述信号站的问询指令时，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：C31、所述箱体向所述信号站反馈箱体的标签值及其周围箱体的标签值。
C32、所述信号站收到箱体发送的标签信息后，给箱体发送一个睡眠指令，在未收到“启动箱体”指令时，不响应所述信号站任何其他形式的指令。
在向第一箱体发出睡眠指令后，所述信号站会继续问询第二箱体，直到第二箱体响应时，接收第二箱体的标签信息和其周围箱体的标签信息，再休眠第二箱体，问询第三箱体，依次类推，将全部箱体都问询一遍，并休眠全部箱体。直至所述信号站获取箱体的标签信息及其周围箱体的标签信息。
C4、信号站拟合所有获得的标签信息得到与标签信息对应的箱体在显示屏的物理安装位置。
包括：在所述信号站获取了全部箱体的标签信息及其周围箱体的标签信息后，通过预设的拟合算法将获取的全部标签拟合，得到每一标签所对应的箱体在整块显示屏中的物理安装位置信息。
C5、信号站根据显示屏的箱体的物理安装位置为显示屏的箱体分配播放坐标值。包括：C51、信号站在得到每个标签对应的箱体在整块显示屏中的物理安装位置信息后，依据整块显示屏及标签数量对显示屏区域进行划分，划分出来的区域大小就是一个箱体的尺寸大小。
C52、所述信号站对每个箱体进行编码，依次给每个箱体分配播放坐标值，该播放坐标值对应箱体的显示范围；其中，一个箱体标签对应两个确定的坐标值。
C6、信号站逐个将箱体的播放坐标值发送给箱体。包括：在信号站对每个箱体完成编码并分配好播放坐标值后，向全部箱体输出“启动箱体”指令。
箱体在接收到启动箱体指令后，进行开机自检流程，开机自检流程完成后进入待机状态。
所述信号站在发出“启动箱体”指令后，依次发起对箱体进行播放坐标赋值的信号交流，对箱体进行播放坐标值赋值。具体包括：所述信号站向第一箱体发送“赋值”指令。
所述第一箱体在处于开机自检流程时不会及时响应该赋值指令，但在考级自检流程结束进入待机状态时，会第一时间响应该赋值指令，所述箱体通过已建立信息交互的信道与所述信号站进行以下信息交流：C61、所述箱体向所述信号站发送其自身箱体编码信息。
C62、所述信号站确认收到的所述箱体编码无误后，向所述箱体发送该箱体编码对应播放坐标值信息。
C63、所述信号站向所述箱体输入睡眠指令。
至此，信号站完成对第一个箱体赋播放坐标值。
依据上述流程对之后每一个箱体都赋对应的播放坐标值。
在所述信号站发出“赋值”指令时，没有箱体再响应信号站的“赋值”指令时，说明所述信号站已对全部箱体赋值完成，或者仅依据程序判别确定对全部箱体赋值完成。
C7、信号站根据已建立的初始化无线通信连接，发送全部视频信息给箱体。包括：所述信号站根据已建立的初始化无线通信连接，向全体箱体输出“启动箱体”指令。
箱体根据所述启动箱体指令进入开机自检流程，进入待机状态。
所述信号站对箱体发出“整屏收发”指令，并向箱体输入以下指令：C71、读取自身的播放坐标值。
C72、所要播放的视频信息为该播放坐标值涵盖的视频信息。
C73、开始接收播放视频信息。
上述指令逐条延迟发出，延迟间隔可以根据需要预先约定。上述指令不需要箱体做任何反馈。
在上述指令发出完成，并且预设延时间隔结束后，所述信号站开始对全体箱体发送视频信息。
C8、箱体接收信号站发送的全部视频信息，根据播放坐标值确定播放范围，只播放确定的播放坐标值范围的视频信息。
需要说明的是，在本文中，术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含，从而使得包括一系列要素的过程、方法、物品或者装置不仅包括那些要素，而且还包括没有明确列出的其他要素，或者是还包括为这种过程、方法、物品或者装置所固有的要素。在没有更多限制的情况下，由语句“包括一个……”限定的要素，并不排除在包括该要素的过程、方法、物品或者装置中还存在另外的相同要素。
上面结合附图对本发明的实施例进行了描述，但是本发明并不局限于上述的具体实施方式，上述的具体实施方式仅仅是示意性的，而不是限制性的，本领域的普通技术人员在本发明的启示下，在不脱离本发明宗旨和权利要求所保护的范围情况下，还可做出很多形式，这些均属于本发明的保护之内。
 工业实用性
本发明实施例，通过将每个箱体的模组的信息处理和信息发送都集成在一个信号站上，通过一个信号站驱动多个箱体模组。模组上仅保留信息接收，仅需要实现视频播放和音频播放。整块显示屏通过多个箱体组成，箱体之间通过无线进行无线信号传输，能够使显示屏进一步轻薄化，同时能够使箱体的控制结构进一步化简，从而实现更轻薄的结构件设计。同时，通过一个所述信号站统一对多个箱体进行信号传输，由于所述信号站与若干箱体是组成星形通信结构，而不是串联结构，即使其中出现一路箱体故障，也不会影响到其他箱体的正常工作，从而实现更稳定的显示效果。因此，具有工业实用性。

Claims (19)

  1. 一种显示屏通信系统，包括：一个信号站和若干箱体拼接在一起的显示屏，所述信号站与若干箱体呈星形通信结构建立无线通信连接进行信息的无线信号传输，所述箱体之间通过无线方式进行无线信号传输。
  2. 根据权利要求1所述的显示屏通信系统，其中，所述信号站设置为集成信息处理和信息发送，具有信息发送和信息处理的功能；所述箱体设置为通过接收信息实现视频播放；其中，所述信息包含控制信息、视频信息和/或箱体的播放坐标值。
  3. 根据权利要求1所述的显示屏通信系统，其中，所述箱体包括无线通信装置，所述无线通信装置设置为箱体与箱体之间，以及箱体与所述信号站进行无线信号通信。
  4. 根据权利要求1所述的显示屏通信系统，其中，所述信号站设置为：获取显示屏的箱体的初始化信息，所述初始化信息包括：箱体编码以及箱体的物理安装位置；根据箱体的物理安装位置为显示屏的箱体分配播放坐标值。
  5. 根据权利要求4所述的显示屏通信系统，其特征在于，所述信号站设置为：接收通过手动方式录入的显示屏的箱体的初始化信息；依据箱体编码代表的相应次序，为每个箱体分配播放坐标值。
  6. 根据权利要求4所述的显示屏通信系统，其中，所述信号站设置为：逐个为显示屏的箱体打上标签；根据箱体的标签信息获取箱体的物理安装位置；根据所述显示屏的箱体的物理安装位置为显示屏的箱体分配播放坐标值。
  7. 根据权利要求6所述的显示屏通信系统，其中，所述信号站根据显示屏的箱体的标签信息获取箱体的物理安装位置，包括：
    所述信号站逐个获取箱体的周围标签信息；拟合各箱体的标签信息及其周围箱体的标签信息，得到与标签信息对应的箱体在显示屏的物理安装位置。
  8. 根据权利要求6所述的显示屏通信系统，其中，所述信号站根据显示屏的箱体的物理安装位置为显示屏的箱体分配播放坐标值，包括：
    根据标签对应的箱体在显示屏中的物理安装位置信息，对显示屏划分播放区域；对每个箱体进行编码，依次给每个箱体分配播放坐标值；并逐个将所述播放坐标值发送给对应的箱体。
  9. 根据权利要求2所述的显示屏通信系统，其中，
    所述信号站设置为：通过所述无线通信连接发送全部视频信息给箱体；
    所述箱体设置为：接收信号站发送的全部视频信息，根据分配的播放坐标值确定自身的播放范围，播放自身的播放范围的视频信息。
  10. 一种显示屏通信方法，应用于信号站，所述方法包括：
    信号站获取显示屏的箱体的初始化信息，与各箱体建立星形通信结构的无线通信连接；
    与显示屏的各箱体进行信息的无线信号传输。
  11. 根据权利要求10所述的显示屏通信方法，其中，所述信号站获取显示屏的箱体的初始化信息，与各箱体建立星形通信结构的无线通信连接，包括：
    获取人工输入的显示屏的箱体的初始化信息，所述初始化信息包括箱体编码和箱体物理安装位置；
    根据所述箱体编码代表的相应次序，对显示屏划分播放区域，为拼接成所述显示屏的每个箱体分配播放坐标值；
    逐个向各箱体发送对应的播放坐标值。
  12. 根据权利要求10所述的显示屏通信方法，其中，所述信号站获取显示屏的箱体的初始化信息，与各箱体建立星形通信结构的无线通信连接，包括：
    逐个接收显示屏的箱体反馈的箱体编码，并为箱体打上标签；
    根据箱体的标签信息获取箱体的物理安装位置；
    根据箱体的物理安装位置为箱体分配播放坐标值；
    逐个向箱体发送各自对应的播放坐标值。
  13. 根据权利要求12所述的显示屏通信方法，其中，所述根据箱体的标签信息获取箱体的物理安装位置，包括：
    逐个接收各箱体反馈的周围标签信息；
    拟合各箱体的标签信息及其周围箱体的标签信息，得到与标签信息对应的箱体在显示屏的物理安装位置。
  14. 根据权利要求12所述的显示屏通信方法，其中，所述根据显示屏的所有箱体的物理安装位置为显示屏的所有箱体分配播放坐标值，包括：根据标签对应的箱体在显示屏中的物理安装位置信息，对显示屏划分播放区域；对每个箱体进行编码，依次给每个箱体分配播放坐标值。
  15. 一种显示屏通信方法，其特征在于，应用于显示屏显示屏，所述方法包括：
    显示屏的若干箱体与信号站建立星形通信结构的无线通信连接，与所述信号站进行信息的无线信号传输；
    所述箱体之间通过无线方式进行信号传输。
  16. 一种显示屏通信方法，应用于箱体，所述方法包括：
    获取信号站发送的播放坐标值；
    接收信号站发送的全部视频信息；
    根据所述播放坐标值，播放所述全部视频信息中对应的播放范围的视频信息。
  17. 根据权利要求16所述的显示屏通信方法，其中，所述获取信号站发送的播放坐标值之前，所述方法还包括：
    接收到信号站用于报数的指令后，根据自身的箱体编码，按照预设的规则生成一个延迟响应值，并按预设的响应优先次序向信号站反馈所述延迟响应值。
  18. 根据权利要求16所述的显示屏通信方法，其中，所述接收信号站发送的播放坐标值之前，所述方法还包括：
    箱体接收到信号站用于问询周围箱体标签信息的指令后，统计周围箱体的标签信息，并反馈给信号站。
  19. 一种箱体，所述箱体包括无线通信装置；其中：
    所述无线通信装置设置为箱体与箱体之间，以及箱体与信号站进行无线信号通信。
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