KR20140088462A - A real time rendering 3d object interactive multi-vision system and method for processing a real time rendering 3d object - Google Patents

Abstract

The present invention relates to a real time rendering 3D object interactive multi-vision system and a method for processing a real time rendering 3D object in the multi-vision system. The method for processing a real time rendering 3D object in the multi-vision system comprises the following steps. Division image data into which one entire screen is divided or real time rendering object data is assigned to each of a plurality of display units in advance and storing the division image data or the real time rendering object data. The plurality of display units perform synchronization on and display the stored division image data or the real time rendering object data. At least one of the plurality of display units receives a UX event from a user. The image data or the real time rendering object data is displayed according to the inputted UX event. According to the present invention, it is possible to accurately display a real time rendering 3D screen to be expressed by the plurality of display units in a state in which screens of the plurality of display units are synchronized with one another within accuracy of a millisecond for each reproduction interval without misalignment of an entire screen in a multi-display environment Furthermore, it is possible to easily expand screen display so as to display a screen on dozens of display units or hundreds of display units with the maximum resolution while maintaining extract screen display without misalignment in the entire display screen.

Description

TECHNICAL FIELD [0001] The present invention relates to a real-time rendering 3D object interactive multi-vision system and a real-time rendering 3D object processing method thereof. BACKGROUND OF THE INVENTION 1. Field of the Invention [0002]

The present invention relates to a real-time rendering 3D object interactive multivision system and a real-time rendering 3D object processing method thereof, in which a real-time rendering 3D screen displayed on a plurality of mutually independent display units is synchronized and displayed Time interactive 3D object interactive multi-vision system.

Multivision is a device that displays one full screen or a different screen on a plurality of display units. Multivision uses a method of collecting and arranging small-sized image display units, dividing each part of the whole image, and displaying the images through each device, in order to express an image having a size exceeding the technical constraints or cost limitations.

In order to realize multi-vision, a method of generating an electrical image signal for a plurality of individual display units by distributing an electrical image signal generated from a single image signal generator by hardware is used. Alternatively, It is possible to use a method in which the generating apparatus is directly connected and the systems responsible for the control of the respective video signal generating apparatuses are interconnected by a network connection.

An independent video signal generator is used for each display unit or a small number of display units, and when the control systems are interlocked with each other over a network, a video signal of a full image size is generated, or the signal is distributed as a signal for an individual display device Since there is no need to make a device, it is possible to gather more than a hundred display devices to construct a huge display.

This conventional multivision is merely a simple reproduction of the entire image of the produced video material by dividing it into individual screens or dividing it into display units.

An object of the present invention is to provide a real-time rendering 3D object interactive multi-vision system capable of rendering 3D objects in real time and displaying them in a multi-vision form, and a real-time rendering 3D object processing method thereof.

Another object of the present invention is to provide a real-time 3D object program and a real-time rendering system capable of expressing in real time synchronized images in real time without any inconsistency of images, Method.

It is another object of the present invention to provide a real-time rendering 3D object interactive multi-vision system communicating with and interacting with various platform devices independent of each other and representing the platform device in multi-vision, and a real-time rendering 3D object processing method thereof.

Another object of the present invention is to provide a real-time rendering 3D object interactive multi-vision system and a real-time rendering 3D object processing method thereof, which can maintain a high level of resolution even if the number of display units constituting the multivision is sufficiently expanded.

According to an aspect of the present invention, there is provided a multi-purpose display unit including: an image processing unit for processing divided image data corresponding to a part of one full screen; A UX event processing unit for processing the input UX event; An object processing unit for creating real-time rendering object data; A masking image encoding unit for rendering the real-time rendering object data and the divided image data in a superimposed screen; A communication unit for communicating communication data with another display unit or a server; A timer for synchronization with the other display unit; And a control unit for controlling at least one of the image processing unit, the UX event processing unit, the object processing unit, the masking image encoding unit, and the communication unit.

The multi-dedicated display unit may further include a storage unit for previously storing the divided image data or the real-time rendering object data corresponding to a part of one full screen.

The multi-dedicated display unit may further include a UX event input unit for inputting the UX event.

The multi-purpose private display unit may further include an object artificial intelligent simulator for simulating state values according to usage, size, and characteristics of the objects to generate unformed continuous state values.

The control unit of the multi-dedicated display unit may further include: a video control unit for controlling the video processing unit; A graphic control unit for controlling the graphic processing unit; An object control unit for controlling at least one of creation, deletion, position, movement, inter-object interference, start time, duration, image presentation method, playback speed, and frame number information of a real-time 3D object screen; A UX event control unit for generating and controlling data values received through various interfaces in a plurality of display units to be synchronized with each of the other display units; And a communication control unit for controlling the received object state value by communicating with an external system or another platform device.

In the multi-dedicated display unit, the communication data may include at least one of synchronization signal data, object data, video data, graphic data, and UX event data.

In the multi-dedicated display unit, the communication data is preferably transmitted to and received from another platform connected to the network.

A real-time rendering 3D object interactive multivision system according to an embodiment of the present invention is characterized in that a plurality of display units according to any one of claims 1 to 7 are combined so as to communicate with each other.

In the real-time rendered 3D object interactive multivision system, the plurality of display units are preferably coupled through a synchronization server.

Wherein the synchronization server of the real-time 3D object interactive multivision system comprises: a server communication unit for transmitting and receiving communication data to and from each display unit; A server timer for synchronization with each display unit; And a server synchronization information generator for generating synchronization information of each display unit.

The real-time rendering 3D object interactive multivision system is a 3D object interactive multi-vision system for generating and deleting objects constituting a real-time rendered 3D object screen, a location, a movement, inter-object interference, start time, duration, An object control unit for controlling at least one of the objects; A UX event control unit for generating and controlling data values received through various interfaces in a plurality of display units to be synchronized with each of the other display units; And a communication control unit for controlling the object state values communicated with the respective display units or the external platform devices connected and connected.

The synchronization server of the real-time rendered 3D object interactive multivision system may further include an artificial intelligence simulator of an object that simulates state values according to usage, size, and characteristics of the objects to create unformed continuous state values.

The 3D object processing method of multi-vision according to an embodiment of the present invention includes: pre-allocating and storing divided image data or real-time rendering object data obtained by dividing one full screen for each of a plurality of display units; Synchronizing and displaying the stored divided image data or real-time rendering object data by the plurality of display units; Receiving a UX event from a user in at least one of the plurality of display units; And displaying image data or real-time rendering object data according to the input UX event.

The multi-vision real-time rendering 3D object processing method may further include determining whether the input UX event is related to another display unit.

The multi-vision real-time rendering 3D object processing method includes transmitting at least one of synchronization information data, image data, real-time rendering object data, and UX event data to a display unit associated with a UX event from a display unit to which the UX event is input Step < / RTI >

The multi-vision real-time rendering 3D object processing method may further include receiving at least one of synchronization information data, image data, real-time rendering object data, and UX event data from another platform or another display unit connected to the network have.

In the multi-vision real-time rendering 3D object processing method, at least one of synchronization information data, image data, real-time rendering object data, and UX event data may be transmitted or received via a synchronization server.

According to the real-time rendering 3D object interactive multivision system of the present invention, a real-time rendering 3D screen represented by a plurality of display units is synchronized with a precision of millisecond for each refresh rate of a screen displayed between a plurality of display units So that it is possible to precisely display the image without deviating the entire screen in a multi-display environment.

In addition, it is possible to easily expand the screen display so as to be driven by several tens or hundreds of display apparatuses while maintaining accurate screen display without shifting the entire display screen.

Further, since the multivision system according to the present invention pre-allocates and stores image data (objects) to be displayed in advance for each display unit to be configured, the multivision system is configured to include several tens or hundreds of display units It is possible to display it at the highest resolution.

In addition, the user is able to manipulate a plurality of multiple display units like a single display device, out of the limit of operating in a limited display area.

In addition, it is possible to arrange various interfaces for individual or a plurality of independent display unit devices, thereby configuring a system in which multiple users simultaneously interact with various interfaces in a plurality of multiple display units.

It is also possible to construct a system that interacts with devices of various platforms and interacts with a user who uses the devices.

1 is a block diagram showing the configuration of a multi-dedicated display unit according to the present invention;
2 is a block diagram illustrating a configuration of a synchronization server according to the present invention;
3 is a flow chart showing data flow between a plurality of display units and a synchronization server in a real-time rendering 3D object interactive multi-vision system of the present invention;
FIG. 4 is a block diagram illustrating a configuration of a real-time rendering 3D object interactive multi-vision system according to an embodiment of the present invention;
5 is a block diagram illustrating a configuration of a real-time rendering 3D object interactive multi-vision system according to another embodiment of the present invention, and Fig.
6 and 7 are flowcharts illustrating a method of processing a 3D object in real-time rendering of a multi-vision system according to an embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. Parts which are not directly related to the present invention are omitted for convenience of description, and the same or similar components are denoted by the same reference numerals throughout the specification.

The real-time rendering 3D object interactive multi-vision system according to the present invention can be applied to, for example, a smart aquarium configured to allow objects to respond to user's events through various interfaces and various platforms.

The real-time 3D object interactive multivision system can be configured by combining a plurality of clients (# 1- # n) each composed of the display unit 1 so as to be able to communicate with each other.

A method of communicably coupling a plurality of clients (# 1 - # n) to each other is as follows: connecting clients with each other as shown in FIG. 4 and connecting clients via a synchronization server 300 as shown in FIG. 5 It is possible.

The plurality of clients (# 1- # n) can store the image data and the object data to be displayed in advance and display them in synchronization with all the clients (# 1- # n).

The plurality of clients (# 1- # n) may include a plurality of display units 1 for allocating and displaying divided screens corresponding to a part of one full screen.

1, the multi-purpose display unit 1 of the present invention includes a communication unit 110 for transmitting and receiving communication data to and from another display unit (client # 1- # n) or server 300, A timer 130 for synchronization with other display units, a UX event input unit 140 for receiving a UX experience event from a user, a masking image encoding unit 120 for displaying the divided image data in a superimposed screen, A UX event processing unit 150 for processing a UX event input from the UX event input unit 140, an object processing unit 160 for generating real-time rendering object data, a state value simulator for simulating state values according to the usage, An object artificial intelligence simulator 220 for generating a continuous state value, a graphic processor 170 for processing input graphic data, A storage unit 190 for previously storing divided image data or real-time rendering object data corresponding to a part of the one full screen, an image processing unit 180, A control unit 200 for controlling at least one of the UX event processing unit 150, the UX event processing unit 150, the object processing unit 160, the masking image encoding unit 120, and the communication unit 110, And an output unit 210 for outputting data to a screen.

The communication unit 110 can transmit and receive communication data with other display units (client # 2 - # n), a synchronization server 300, various platforms (not shown) such as a smart phone, .

The communication data may include at least one of synchronization signal data, object data, image data, graphic data, and UX event data.

The communication unit 110 may be a WLAN (Wireless LAN) (Wi-Fi), a Wibro (Wireless Broadband), a Wimax (World Interoperability for Microwave Access), HSDPA (High Speed Downlink Packet Access)

The communication unit 110 may be Bluetooth, Radio Frequency Identification (RFID), infrared data association (IrDA), Ultra Wideband (UWB), ZigBee, or the like as a short distance communication technology.

An interface capable of transmitting and receiving according to a standard such as a high definition multimedia interface (HDMI), a USB, a component, or an LVDS can be applied to the communication unit 110.

The masking image encoding unit 120 may process the divided image data stored in the storage unit 190 and the real-time rendering object data so that they can be output as one split screen.

In addition, the masking image encoding unit 120 may process the image data received through the communication unit 110 and the real-time rendering object data so as to be superimposed on one screen.

The timer 130 can maintain the current time information of the display unit 1 to synchronize all the clients # 1- # n and the synchronization server. The timer 130 can time and exchange with other clients or servers over the network and measure and compensate for delay elements and client state delay elements during network communication to match the time with other clients and servers.

The UX event input unit 140 may include a touch panel, a mouse, a keyboard, and a remote controller for inputting a command of a user.

The UX event input unit 140 may also include a mobile device such as a smart phone connected using a wireless communication technology such as Wi-Fi, Bluetooth, and the like.

The UX event processing unit 150 performs various interface input / output data processing for the unspecified constant input / output data processing and user interaction processing input from the UX event input unit 140. That is, a UX event can be processed according to a user command to process an object, an image, a graphic, and the like according to a UX event.

Of course, the UX event processing unit 150 may process the UX event input through the communication unit 110 to process objects, images, graphics, and the like.

The object processing unit 160 processes the object data stored in the storage unit 190 or inputted through the communication unit 110 so that the object can be output through the output unit 210. [

The object processing unit 160 may process the objects according to the UX event processed by the UX event processing unit 150 or inputted through the communication unit 110. [

The object processing unit 160 may include a statistic object processing unit and a dynamic object processing unit according to the object type.

 The artificial intelligence simulator 220 simulates state values according to the usage, size, and characteristics of the objects according to the UX event processed by the UX event processing unit 150, and provides the unformed continuous state values to the object processing unit 160 .

The artificial intelligence simulator 220 simulates state values according to the usage, size, and characteristics of objects according to UX events stored in the storage unit 190 or input through the communication unit 110, And provides it to the object processing unit 160. [

The graphic processor 170 may process the graphic data input through the UX event input unit 140 or the communication unit 110 or the graphic data stored in the storage unit 190 and provide the graphic data to the output unit 210.

The image processing unit 180 basically performs various image processing processes for the divided image data stored in the storage unit 190. The image data stored in the storage unit 190 may be stored in advance as divided image data corresponding to a part allocated to one of the entire screens processed in the multi-vision, and may be processed in synchronization with other display units.

The image processor 180 outputs the processed image data to the output unit 210 so that an image based on the image signal is displayed on the output unit 210. Of course, the image processing unit 180 can process the received image data input from the connected display unit, the synchronization server, and other platform devices in a predetermined process.

The type of the signal processing performed by the image processing unit 180 is not limited. For example, the signal processing unit 180 may perform de-multiplexing for distributing a predetermined signal to each characteristic signal, decoding corresponding to the image format of the image data, De-interlacing for converting interlaced video data into progressive video; scaling for adjusting video data to a predetermined resolution; noise reduction for improving image quality; ), Detail enhancement, frame refresh rate conversion, and the like.

The image processing unit 180 is connected to a circuit board (not shown) such as various chip sets (not shown), memory (not shown), electronic components (not shown), wiring And an image processing board (not shown).

The storage unit 190 may store divided image data, real-time rendered 3D object data, graphic data, various programs for driving the display unit 1, and the like, which are allocated to a part of one entire screen.

 The storage unit 190 stores unlimited data. The storage unit 250 is implemented as a non-volatile memory such as a flash memory, a hard-disc drive, or the like. The storage unit 190 is accessed by the control unit 200, and the reading / recording / modification / deletion / update of the data is performed.

The control unit 200 can be configured by a CPU and performs control operations for various configurations of the display unit 1. [ For example, the control unit 200 controls the progress of the image data processing process performed by the image processing unit 180, the operation of transmitting / receiving signals / information / data through the communication unit 110, The event processing process of the UX event processing unit 150, the object processing process of the object processing unit 1600, the graphic processing process of the graphics processing unit 170, and the various processed data to the output unit 210).

In FIG. 1, one component is controlled by one controller 200 for convenience. However, a separate controller may be separately configured for efficient control of each component. The control unit 200 may include an image control unit (not shown) for controlling the image processing unit 180, a graphic control unit (not shown) for controlling the graphic processing unit 170, An object control unit (not shown) for controlling at least one of a position, a position, a movement, an inter-object interference, a start time, a duration, A UX event control unit (not shown) for generating and controlling data values received through the interface to be synchronized with the other display units, and a communication control unit for controlling the received object state values by communicating with an external system or another platform device (Not shown).

The output unit 210 displays an image based on the image data processed by the image processing unit 180 and received. The output unit 210 may be implemented in various forms including, but not limited to, a liquid crystal, a plasma, a light-emitting diode, an organic light-emitting diode, and can be realized by a variety of display panels such as electron-electron emission, carbon nano-tube, and nano-crystal.

The output unit 210 may additionally include an additional configuration depending on the implementation method. For example, the output unit 210 may include a backlight unit (not shown) for supplying light and a panel drive substrate (not shown) for driving a display panel (not shown) in the case of a liquid crystal method.

As shown in FIG. 4, a plurality of the display units 1 described above can be directly connected to each other to construct a real-time lending 3D object interactive multi-vision system according to the present invention.

As another embodiment of the present invention, a plurality of clients (# 1- # N + 1 ...) can be connected to the server via the network hub (# 1- # N) as shown in FIG.

2 is a block diagram showing the configuration of the synchronization server 300 shown in FIG.

The synchronization server 300 includes a server communication unit 320 for transmitting and receiving communication data to and from the display unit 1 or an external platform device (not shown) connected thereto, and a server communication unit 320 for maintaining and managing server time information A server timer 310, a server synchronization information generator 330 for generating synchronization information of the display units 1, a server synchronization information generator 330 for generating synchronization information of the display units 1, A server object control unit 340 for controlling at least one of a time, a duration, an image presentation method, a playback speed, and a frame number information, a server object control unit 340 for controlling data values input through various interfaces in the plurality of display units 1, A server UX event control unit 350 for creating and controlling data to be synchronized with the unit 1, A server communication control unit 360 for controlling the object state values communicated with the vice, and a server object artificial intelligence simulator 370 for simulating state values according to the usage, size and characteristics of the objects, ). ≪ / RTI >

The server timer 310 may maintain the time information of the current synchronization server 300 to synchronize all the clients # 1- # n and the synchronization server. The server timer 310 monitors and exchanges time with other clients (# 1- # N) over the network and measures and compensates for the delay elements in the network communication and the status delay elements of the synchronization server 300, Can be matched.

The server communication unit 320 can transmit and receive communication data to all the display units (clients # 1- # n), for example, various platforms (not shown) such as a smart phone, and a user computer connected to the Internet.

The communication data may include at least one of synchronization signal data, object data, image data, graphic data, and UX event data.

The server communication unit 320 may be an interface capable of transmitting and receiving according to a standard such as a high definition multimedia interface (HDMI), a USB, a component, or an LVDS.

The server communication unit 320 may be a WLAN (Wireless LAN) (Wi-Fi), a Wibro (Wireless Broadband), a Wimax (World Interoperability for Microwave Access), HSDPA (High Speed Downlink Packet Access) .

The server communication unit 320 may be Bluetooth, Radio Frequency Identification (RFID), infrared data association (IrDA), Ultra Wideband (UWB), ZigBee, or the like as a short distance communication technology.

The server synchronization information generation unit 330 may generate synchronization information so that all the clients # 1- # N may synchronize to represent video data, graphic data, object data, and the like.

The synchronization information can be transmitted and received to each client together with communication data as a synchronization signal through the server communication unit 320. [

The server UX event control unit 350 synchronizes the data inputted through the external platform devices or the interface devices A, B, C, D, E ... of the clients # 1- # N to each client Data can be created and controlled.

The server object control unit 340 controls at least one of creation, deletion, position, movement, inter-object interference, start time, duration, image presentation method, playback speed, and frame number information of the objects constituting the real- Can be controlled.

The server communication control unit 360 may control the server communication unit 320 to control the object state values communicated with the respective display units 1 or external platform devices connected thereto.

The server artificial intelligence simulator 370 simulates state values according to the purpose, size, and characteristics of the objects according to the UX events provided by the server event controller 350, and generates unformed continuous state values to provide them to the object controller 340 can do.

Hereinafter, the data flow between the synchronization server 300 and the display unit 1 (client) will be described with reference to FIG.

The display unit 1 and the synchronization server 300 may receive server connection signals and be connected to each other. At this time, the connected display unit 1 and the synchronization server 300 exchange object synchronization information per millisecond (ms).

The connected display unit 1 and the synchronization server 300 sequentially transmit and receive image synchronization information, image preparation state information, image reproduction signals, and frame information.

Then, the connected display unit 1 and the synchronization server 300 can exchange UX event input data and UX event synchronization information input from an external platform device or an interface device of each display unit.

Finally, the connected display unit 1 and the synchronization server 300 exchange the communication synchronization information and the communication preparation state information, and then send the communication data to the output start command and the communication status information.

In this way, the synchronization server 300 can synchronize and process 3D objects in real time with all the display units 1 to display all the display units as a whole, as well as display various user events in real time .

Hereinafter, a real-time rendering 3D object processing method of the multivision system according to an embodiment of the present invention will be described with reference to FIGS. 6 and 7. FIG.

FIG. 6 is a diagram illustrating a real-time rendering 3D object when a UX event is input through the UX event input unit 140 of each display unit while displaying all the display units 1 in synchronization with data stored in the storage unit 190, Fig.

First, image data (including objects) is allocated and stored in the storage unit 190 of each display unit 1 (S410).

Each display unit 1 displays allocated video data (including objects) stored in the storage unit 190 (S411).

Then, it is determined whether a UX event is input from the UX event input unit 140 of each display unit 1 (S412). If the UX event is not input, the image data (including objects) pre-allocated to the schedule stored in the storage unit 190 is displayed. If the UX event has been input, it is determined whether the input UX event is related to other display units (S413).

If the input UX event is not related to other display units, the input UX event is reflected only to the user, and the image data (including the object) is displayed in synchronization.

If the input UX event is related to other display units, it transmits the UX event to the related display unit or the synchronization server 300 (S414).

Then, the display unit 1 synchronizes and displays the image data (including objects) in response to the input or received UX event (S415).

7 shows a real-time rendering 3D object processing method when the UX event is input through the external platform device or another display unit while the display unit 1 displays the data synchronized with the data stored in the storage unit 190, respectively will be.

First, image data (including objects) is allocated and stored in the storage unit 190 of each display unit 1 (S510).

Each display unit 1 displays allocated image data (including objects) stored in the storage unit 190 (S511).

Then, it is determined whether a UX event is input from the external platform device or another display unit (S512). If the UX event is not input, the image data (including objects) pre-allocated to the schedule stored in the storage unit 190 is displayed. If the UX event has been input, the display unit 1 synchronously displays the image data (including the object) by reflecting the inputted or received UX event (S512).

Communication data input from an external platform device or another display unit may include at least one of synchronization information data, image data, real-time rendering object data, and UX event data.

While the embodiments of the present invention have been shown and described, those skilled in the art will appreciate that various modifications, additions and substitutions are possible, without departing from the scope or spirit of this invention. Accordingly, the scope of the invention is not to be determined by the embodiments described so far but on the basis of the appended claims and their equivalents.

1: display unit (client) 110: communication unit
120: video masking encoding unit 130: timer
140: UX event input unit 150: UX event processing unit
160: Object processing unit 170: Graphics processing unit
180: Image processing unit 190:
200: control unit 210: output unit (display panel)
220: artificial intelligence simulator 300: synchronization server
310: server timer 320: server communication section
330: server synchronization information generation unit 340: server object control unit
350: server UX event controller 360: server communication controller
370: Server AI simulator

Claims (17)

In the multi-dedicated display unit,
An image processing unit for processing divided image data corresponding to a part of one full screen;
A UX event processing unit for processing the input UX event;
An object processing unit for creating real-time rendering object data;
A masking image encoding unit for rendering the real-time rendering object data and the divided image data in a superimposed screen;
A communication unit for communicating communication data with another display unit or a server;
A timer for synchronization with the other display unit; And
And a control unit for controlling at least one of the image processing unit, the UX event processing unit, the object processing unit, the masking image encoding unit, and the communication unit. The method according to claim 1,
And a storage unit for previously storing the divided image data or the real-time rendering object data corresponding to a part of the one full screen. The method according to claim 1,
And a UX event input unit for inputting the UX event. The method according to claim 1,
Characterized by further comprising an object artificial intelligence simulator for simulating state values according to usage, size, and characteristics of objects to produce unformed continuous state values. The method according to claim 1,
Wherein,
An image control unit for controlling the image processing unit;
A graphic control unit for controlling the graphic processing unit;
An object control unit for controlling at least one of creation, deletion, position, movement, inter-object interference, start time, duration, image presentation method, playback speed, and frame number information of a real-time 3D object screen;
A UX event control unit for generating and controlling data values to be input to the plurality of display units through the various interfaces and synchronized with each of the other display units;
And a communication control unit for controlling the received object state value by communicating with an external system or another platform device. The method according to claim 1,
Wherein the communication data includes at least one of synchronous signal data, object data, video data, graphic data, and UX event data. 7. The method according to claim 1 or 6,
Wherein the communication data is transmitted / received to / from another platform connected to the network. A real-time rendering 3D object interactive multivision system, comprising: a plurality of display units according to any one of claims 1 to 7 communicably connected to each other. 9. The method of claim 8,
Wherein the plurality of display units are coupled through a synchronization server. 10. The method of claim 9,
Wherein the synchronization server comprises:
A server communication unit for transmitting and receiving communication data to and from each of the connected display units or external platform devices;
A server timer for synchronization of display units; And
And a server synchronization information generator for generating synchronization information of the display units. 11. The method of claim 10,
Wherein the synchronization server comprises:
An object control unit for controlling at least one of creation, deletion, position, movement, inter-object interference, start time, duration, image presentation method, playback speed, and frame number information of a real-time 3D object screen;
A UX event control unit for generating and controlling data values received through various interfaces in a plurality of display units to be synchronized with each of the other display units; And
And a communication control unit for controlling an object state value communicated with each of the display units or the external platform device connected to the real time rendering 3D object interactive multivision system. 12. The method of claim 11,
Wherein the synchronization server further comprises an artificial intelligence simulator of an object that simulates state values according to usage, size, and characteristics of objects to produce unformed continuous state values. A step of previously allocating and storing divided image data or real-time rendering object data obtained by dividing one full screen for each of a plurality of display units;
Synchronizing and displaying the stored divided image data or real-time rendering object data by the plurality of display units;
Receiving a UX event from a user in at least one of the plurality of display units; And
And displaying the image data or the real-time rendering object data according to the input UX event in the real-time rendering 3D object processing method. 14. The method of claim 13,
Further comprising the step of determining whether the input UX event is related to another display unit. 15. The method of claim 14,
Further comprising transmitting at least one of synchronization information data, image data, real-time rendering object data, and UX event data to a display unit associated with the UX event from the display unit to which the UX event is input, Of real time rendering of 3D objects. 14. The method of claim 13,
Further comprising receiving at least one of synchronization information data, image data, real-time rendering object data, and UX event data from another platform or other display unit connected to the network. Way. 17. The method according to claim 15 or 16,
Wherein at least one of the synchronization information data, the image data, the real-time rendering object data, and the UX event data is transmitted or received via the synchronization server.

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