WO2019056577A1

WO2019056577A1 - Method for displaying high definition image in vr integrated machine, and vr integrated machine

Info

Publication number: WO2019056577A1
Application number: PCT/CN2017/113972
Authority: WO
Inventors: 高进宝
Original assignee: 歌尔科技有限公司
Priority date: 2017-09-20
Filing date: 2017-11-30
Publication date: 2019-03-28
Also published as: CN107483914A

Abstract

The present invention provides a method for displaying a high definition image in a VR integrated machine, and a VR integrated machine. The method comprises the following steps: acquiring initial high definition image frames inputted by means of an HDMI interface on a VR integrated machine; cutting the initial high definition image frames by means of an image cutting chip on the VR integrated machine, so as to obtain sub-image frames; and transmitting to a VR application layer the sub-image frames through data channels of which the number matches the number of the sub-image frames, and displaying same. The technical solution provided in the present invention can smoothly display a high definition video in a VR integrated machine.

Description

Method for displaying high-definition image on VR integrated machine and VR integrated machine

cross reference

The present application is hereby incorporated by reference in its entirety in its entirety in its entirety in its entirety in the the the the the the the the the the the the the

Technical field

The present invention relates to the field of virtual reality technologies, and in particular, to a method for displaying a high definition image on a VR integrated machine and a VR integrated machine.

Background technique

At present, with the development of VR (Virtual Reality) technology, VR products are becoming more and more mature and play an increasingly important role in people's daily work, life and entertainment. In the existing VR products, the VR box can be directly inserted into the mobile phone, and the user can watch the VR video in the mobile phone through the VR box. However, the resolution of the mobile phone screen is limited, and the combination of the VR box and the mobile phone cannot provide a clear visual experience for the user.

The existing VR all-in-one can use a very high resolution display such as a 4K display. However, the data processing capability of the VR integrated machine is limited. How to smoothly display the high-definition picture in the VR integrated machine becomes a technical problem to be solved urgently.

Summary of the invention

The invention provides a method for displaying a high-definition image on a VR integrated machine and a VR integrated machine for smoothly displaying high-definition video in a VR integrated machine.

The invention provides a method for displaying a high-definition image on a VR integrated machine, comprising:

Obtaining an original high-definition image frame input through an HDMI interface on the VR integrated machine; cutting the original high-definition image frame by an image cutting chip on the VR integrated machine to obtain a sub-image frame; and matching the number of the sub-image frames The data channel transmits the sub-image frame to the VR application layer for display.

Further optionally, transmitting the sub-image frame to the VR application layer for display comprises: transmitting the sub-image frame to a VR application layer, so that the VR application layer splices the sub-image frame into a to-be-displayed An image frame; and, the image frame to be displayed is distorted and the distorted image frame to be displayed is displayed on a display screen of the VR integrated machine.

Further optionally, the VR application layer splicing the sub-image frames into image frames to be displayed, including:

The VR application layer splices the sub-image frames with the same time stamps into one image frame to be displayed; or splices the sub-image frames that match the additional identification tags into one image frame to be displayed; or, the pixel values of the labeled pixel blocks are The corresponding sub-image frames are spliced into one image frame to be displayed.

Further optionally, any two sub-image frames in the sub-image frame are the same size.

Further optionally, the number of the sub image frames is two frames.

The invention also provides a VR integrated machine, comprising: a memory and a processor;

The memory is configured to: store one or more computer instructions; the processor is configured to execute the one or more computer instructions for: acquiring an original high-definition image frame input through an HDMI interface;

Cutting the original high-definition image frame by the image cutting chip on the VR integrated machine to obtain a sub-image frame; transmitting the sub-image frame to the VR application layer by using a data channel matching the number of the sub-image frames display.

Further optionally, the processor is specifically configured to: transmit the sub-image frame to a VR application layer, so that the VR application layer splices the sub-image frame into an image frame to be displayed; The image frame to be displayed is subjected to distortion processing and the distorted image frame to be displayed is displayed on the display screen of the VR all-in-one.

Further optionally, the processor is specifically configured to: the VR application layer splicing the sub-image frames with the same time stamp into one image frame to be displayed; or sub-image frames matching the additional identification tags Splicing into an image frame to be displayed; or splicing the sub-image frames corresponding to the pixel values of the marked pixel block into a to-be-displayed image frame.

Further optionally, the processor is specifically configured to: cut the original high-definition image frame by the image cutting chip to obtain a sub-image frame of the same size.

Further optionally, the processor is specifically configured to: cut the original high-definition image frame by using the image cutting chip to obtain two frames of sub-image frames.

The invention provides a method for displaying a high-definition image on a VR integrated machine and a VR integrated machine, and an HDMI interface is opened on the VR integrated machine, and the original high-definition image frame is obtained through the HDMI interface. After obtaining the original high-definition image frame, the original high-definition image frame is cut into sub-image frames, and the sub-image frame is transmitted to the VR application layer for display by using a data channel matching the number of sub-image frames, and the transmission efficiency is high. Furthermore, when the high-definition film source is displayed in the VR integrated machine, a smooth display effect can be achieved.

DRAWINGS

In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, a brief description of the drawings used in the embodiments or the prior art description will be briefly described below. Obviously, the drawings in the following description It is a certain embodiment of the present invention, and other drawings can be obtained from those skilled in the art without any creative work.

1 is a flow chart showing a method for displaying a high-definition image on a VR integrated machine according to an embodiment of the present invention;

FIG. 2 is a schematic flowchart diagram of another method for displaying a high-definition image on a VR integrated machine according to an embodiment of the present invention; FIG.

3 is a schematic structural diagram of a VR integrated machine according to an embodiment of the present invention;

FIG. 4 is a schematic diagram showing the internal configuration of the VR integrated machine 400 in some embodiments provided by the present invention.

Detailed ways

In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the following will be combined with the present invention. The technical solutions in the embodiments of the present invention are clearly and completely described in the drawings, and the embodiments are described as a part of the embodiments of the present invention, rather than all of the embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative efforts are within the scope of the present invention.

FIG. 1 is a schematic flowchart diagram of a method for displaying a high-definition image on a VR integrated machine according to an embodiment of the present invention. Referring to FIG. 1, the method includes:

Step 101: Acquire an original high-definition image frame input through an HDMI interface on the VR integrated machine.

Step 102: Cutting an original high-definition image frame by an image cutting chip on the VR integrated machine to obtain a sub-image frame.

Step 102: The sub-image frame is transmitted to the VR application layer for display by using a data channel that matches the number of the sub-image frames.

For step 101, optionally, in order to input the high-definition image signal into the VR integrated machine, an HDMI interface (High Definition Multimedia Interface) may be disposed on the VR integrated machine. The HDMI interface is a dedicated digital interface for image transmission that transmits both audio and video signals at high transmission rates.

In the present invention, high definition refers to a resolution of 720p or more, for example, 1080p, 2k, 4k, and 4k or more. The high-definition picture has high definition and high color reproduction, which can bring a good experience to users. The original HD image frame can be an external HD image signal frame input through the HDMI interface.

For step 102, after the high-definition image signal frame is input from the HDMI interface, it needs to be sent to the VR application layer for display. In this step, before the high-definition image signal frame is sent to the application layer, the high-definition image signal input by the HDMI interface may be cut, and each original high-definition image frame is cut into at least two sub-image frames. After cutting, the data volume of each sub-image frame is only one-third of the original high-definition image frame. Compared with transmitting the high-definition image directly to the application layer, the transmission rate of the transmitted sub-image frame is high, and the VR integrated machine is prevented from displaying HD. A stuttering phenomenon that may occur with images.

For step 103, after the cut sub-image frame is obtained, the sub-image frame is transmitted to the VR application layer for display. Optionally, in this embodiment, when the sub-image frame is transmitted to the VR application layer, A data channel that matches the number of sub-picture frames is transmitted. For example, if an original high-definition image frame is cut into two sub-image frames, the two sub-image frames can be sent to the VR application layer by using two data channels. In such an embodiment, each data channel only needs to transmit half of the data volume of the original high-definition image frame, thereby reducing the length of time that the high-definition image signal frame is transmitted to the VR application layer, so that the screen of the VR integrated machine is on the screen. Ability to display high-definition images smoothly.

In this embodiment, the original high-definition image frame is obtained through the HDMI interface opened on the VR integrated machine, and after the original high-definition image frame is acquired, the original high-definition image frame is cut into the sub-image frame, and the data channel matching the number of the sub-image frames is adopted. The sub-image frame is transmitted to the VR application layer for display, and the transmission efficiency is high. Furthermore, when the high-definition film source is displayed in the VR integrated machine, a smooth display effect can be achieved.

FIG. 2 is a schematic flowchart diagram of another method for displaying a high-definition image on a VR integrated machine according to an embodiment of the present invention. Referring to FIG. 2, the method includes:

Step 201: Acquire an original high-definition image frame input through an HDMI interface on the VR integrated machine.

Step 202: Cut the original high-definition image frame into N-frame sub-image frames of the same size by using an image cutting chip on the VR integrated machine.

Step 203, transmitting N frame sub-image frames to the VR application layer through the N data channels.

Step 204: The VR application layer splices the N frame sub-image frames into image frames to be displayed.

Step 205: The VR application layer performs distortion processing on the image frame to be displayed and displays the distorted image frame to be displayed on the display screen of the VR integrated machine.

For step 201, the original high-definition image frame input through the HDMI interface on the VR all-in-one is acquired.

For step 202, cutting the original high definition image frame can be implemented by using an image cutting chip. When the original high-definition image is cut, the original high-definition image can be cut into sub-image frames of the same size, thereby ensuring that each sub-image frame consumes the same transmission time during transmission. The use of such a cutting method can reduce the probability that sub-image frames of the same original high-definition image frame are not synchronized during transmission.

Optionally, the original high-definition image frame can be cut into sub-image frames of the same N frame size, N≥2. If the data amount of the original high-definition image frame is S, the data amount of each sub-image frame is S/N.

It should be understood that as N gradually increases, the amount of data of each sub-image frame gradually decreases, and the sub-image The transmission rate of the frame is improved, but the amount of calculation when the subsequent sub-image frames are spliced increases. Preferably, when N=2, the transmission efficiency of the sub-picture frame and the efficiency of the spliced sub-image frame can be considered. That is to say, the original high-definition image frame can be cut into two sub-image frames of the same size by the image cutting chip, and the efficiency of the data channel transmitting the sub-image frame and the efficiency of the VR application layer splicing the sub-image frame can be balanced. Achieve smoother playback.

For step 203, since the cutting of the original high-definition image frame is a hard cut by the image cutting chip, the data channel is required to transmit the hard-cut sub-image frame to the upper VR application layer. For example, if the VR machine is equipped with an Android system, the data channel needs to transmit the sub-image frame to the application layer VR application via the kernel layer, the hardware layer, and the framework layer.

If the number of data channels is the same as the number of sub-image frames corresponding to a high-definition image frame, each data channel needs to be transmitted only once to transmit the sub-image frames corresponding to an original high-definition image frame to the VR application layer. Such a transmission process not only ensures transmission efficiency but also ensures the reliability of the transmission process.

For the step 204, in a possible case, the sub-picture frame may have a frame loss, a transmission timeout, or a transmission failure during the transmission process, which may cause a splicing error when the VR application layer splicing the sub-image frame. For example, the sub-image frame of the original high-definition image frame A is spliced together with the sub-image frame of the original high-definition image frame B. In order to avoid the above error, in this embodiment, the sub-image frames may be spliced as follows:

In an optional implementation manner, the sub-image frames of an original high-definition image frame are simultaneously cut and synchronously transmitted. Therefore, the sub-image frames with the same transmission time stamps should belong to the same original high-definition image frame. When receiving each sub-image frame, the VR application layer may acquire a transmission timestamp of each sub-image frame, and concatenate the sub-image frames with the same transmission timestamp into a to-be-displayed image frame. Furthermore, it is avoided that the sub-image frames with different transmission time stamps are spliced together, resulting in splicing errors.

In an alternative embodiment, additional identification tags may be added to the sub-image frames of the same original high definition image frame during transmission. After receiving the sub-image frame, the VR application layer can read the additional identification tags of each sub-image frame, and splicing the sub-image frames matching the additional identification tags into a to-be-displayed image frame. Optionally, the additional identification tag may be the number of the sub-image frame. For example, the first

Sub-picture frame numbers

101, 102 of an original high-definition image frame;

sub-picture frame numbers

201, 202 of a second original high-definition image frame. When the VR application layer is spliced, the sub-image frames numbered 101 and 102 are spliced together to obtain a first image frame to be displayed, and the sub-image frames numbered 201 and 202 are spliced together to obtain a second image frame to be displayed.

In an alternative embodiment, the marked pixel block can be placed in the sub-image frame of the same original high definition image frame after the cutting is completed. For example, a pixel block of a coordinate area in a sub-image frame is set as a marker pixel block, and a pixel value of the marker image block is set to a special value. It should be understood that the particular values of the marked pixel blocks in the sub-image frames are different for different original high definition image frames. The VR application layer can read the pixel values of the labeled pixel blocks in the sub-image frame when each sub-image frame is received. If the pixel values of the labeled pixel blocks of the two or more sub-image frames are the same, the two or more sub-image frames may be considered to belong to the same original high-definition image frame, and the two or more sub-image frames may be spliced into An image frame is to be displayed.

The above three splicing methods are all optional splicing modes, and this embodiment does not limit which one is adopted. However, the above three splicing methods can improve the splicing correctness of the sub-image frame, and avoid the situation that the splicing result is wrong when the sub-image frame is lost during the data transmission process, thereby ensuring the user's viewing experience.

After the VR application layer obtains the image frame to be displayed, the VR application layer performs distortion processing on the image frame to be displayed and displays the image to be displayed after being distorted on the display screen of the VR integrated machine, so that the user can view through the lens on the VR integrated machine. To high-definition images, compared to the high-definition images displayed on the TV, the visual effects of the high-definition images displayed on the VR all-in-one can achieve cinema effects of tens to hundreds of inches, greatly improving the user experience.

The VR integrated machine provided by the embodiment provides a method for displaying a high-definition image, and an HDMI interface is opened on the VR integrated machine, and the original high-definition image frame is obtained through the HDMI interface. After obtaining the original high-definition image frame, the original high-definition image frame is cut into sub-image frames, and the sub-image frame is transmitted to the VR application layer for display by using a data channel matching the number of sub-image frames, and the transmission efficiency is high. Furthermore, when the high-definition film source is displayed in the VR integrated machine, a smooth display effect can be achieved. In addition, the special splicing method is used to splicing the sub-image frames into image frames to be displayed, which avoids the situation that the splicing result is wrong when the sub-image frames are lost during the data transmission process, thereby ensuring the user's viewing experience.

It should be noted that the method for displaying high-definition images in the VR integrated machine and the VR integrated machine provided by the present invention can be applied not only to the field of VR technology but also to AR (Augmented Reality) technology which is close to the field of VR technology. Domain and MR (Mix reality) technology. When applied to the AR technology field, an HDMI interface can be opened on the AR integrated machine, and the original high-definition image frame can be obtained through the HDMI interface. After obtaining the original high-definition image frame, the original high-definition image frame is cut into sub-image frames, and the sub-image frame is transmitted to the AR application for display by using the data channel matching the number of sub-image frames; similarly, the MR technology can be analogized. For the specific implementation method, reference may be made to the content described in the embodiments of the present invention, and details are not described herein.

FIG. 3 is a schematic structural diagram of a VR integrated machine according to an embodiment of the present invention. Referring to FIG. 3, the VR integrated machine includes a memory 301 and a processor 302.

The memory 301 is configured to: store one or more computer instructions.

The processor 302 is configured to execute the one or more computer instructions for: acquiring an original high-definition image frame input through an HDMI interface; cutting the original high-definition image frame by an image cutting chip on the VR integrated machine, Obtaining a sub-image frame; transmitting the sub-image frame to a VR application layer for display by a data channel matching the number of the sub-image frames.

Further, the processor 302 is specifically configured to: transmit the sub-image frame to a VR application layer, so that the VR application layer splices the sub-image frame into an image frame to be displayed; The display image frame is subjected to distortion processing and the distorted image frame to be displayed is displayed on the display screen of the VR integrated machine.

Further, the processor 302 is specifically configured to: the VR application layer splicing the sub-image frames with the same time stamps into one image frame to be displayed; or splicing the sub-image frames matching the additional identification tags into one The image frame to be displayed; or, the sub-image frame corresponding to the pixel value of the marked pixel block is spliced into a to-be-displayed image frame.

Further optionally, the processor 302 is specifically configured to: cut the original high-definition image frame by the image cutting chip 303 to obtain sub-image frames of the same size.

Further optionally, the processor 302 is specifically configured to: cut the chip 303 through the image The original high definition image frame is cut to obtain two frames of sub image frames.

The VR integrated machine provided in this embodiment provides an HDMI interface on the VR integrated machine, and acquires the original high-definition image frame through the HDMI interface. After obtaining the original high-definition image frame, the original high-definition image frame is cut into sub-image frames, and the sub-image frame is transmitted to the VR application layer for display by using a data channel matching the number of sub-image frames, and the transmission efficiency is high. Furthermore, when the high-definition film source is displayed in the VR integrated machine, a smooth display effect can be achieved.

FIG. 4 shows a schematic diagram of the internal configuration of the VR all-in-one 400 in some embodiments.

The display unit 401 may include a display panel disposed on a side surface of the VR integrated machine 400 facing the user's face, and may be a whole panel or a left panel and a right panel corresponding to the left and right eyes of the user, respectively. The display panel may be an electroluminescence (EL) element, a liquid crystal display or a microdisplay having a similar structure, or a laser-scanned display in which the retina may be directly displayed or similar.

The virtual image optical unit 402 photographs the image displayed by the display unit 401 in an enlarged manner and allows the user to observe the displayed image in the enlarged virtual image. As the display image outputted to the display unit 401, it may be an image of a virtual scene supplied from a content reproduction device (a Blu-ray disc or a DVD player) or a streaming server, or an image of a real scene photographed using an external camera 410. In some embodiments, virtual image optical unit 402 can include a lens unit, such as a spherical lens, an aspheric lens, a Fresnel lens, and the like.

The input operation unit 403 includes at least one operation member for performing an input operation, such as a button, a button, a switch, or other similarly functioned component, receives a user instruction through the operation member, and outputs an instruction to the control unit 407.

The status information acquisition unit 404 is configured to acquire status information of the user wearing the VR integrated machine 400. The status information acquisition unit 404 may include various types of sensors for detecting status information by itself, and may acquire status information from an external device such as a smartphone, a wristwatch, and other multi-function terminals worn by the user through the communication unit 405. The status information acquisition unit 404 can acquire location information and/or posture information of the user's head. The status information acquisition unit 404 may include one or more of a gyro sensor, an acceleration sensor, a global positioning system (GPS) sensor, a geomagnetic sensor, a Doppler effect sensor, an infrared sensor, and a radio frequency field intensity sensor. In addition, status information acquisition form The element 404 acquires state information of the user wearing the VR integrated machine 400, for example, acquires an operation state of the user (whether the user wears the VR all-in-one 400), an action state of the user (such as a stationary state, walking, running, and the like, a mobile state, hand Or the posture of the fingertip, the open or closed state of the eye, the direction of the line of sight, the size of the pupil, the mental state (whether the user is immersed in the image displayed by the observation, and the like), or even the physiological state.

The communication unit 405 performs communication processing, modulation and demodulation processing with an external device, and encoding and decoding processing of the communication signal. In addition, the control unit 407 can transmit transmission data from the communication unit 405 to an external device. The communication method may be wired or wireless, such as mobile high-definition link (MHL) or universal serial bus (USB), high-definition multimedia interface (HDMI), wireless fidelity (Wi-Fi), Bluetooth communication, or low-power Bluetooth communication. And the mesh network of the IEEE802.11s standard. Additionally, communication unit 405 can be a cellular wireless transceiver that operates in accordance with Wideband Code Division Multiple Access (W-CDMA), Long Term Evolution (LTE), and the like.

In some embodiments, the VR all-in-one 400 may also include a storage unit, which is a mass storage device configured to have a solid state drive (SSD) or the like. In some embodiments, storage unit 406 can store applications or various types of data. For example, content viewed by a user using the VR all-in-one 400 may be stored in the storage unit 406.

In some embodiments, the VR all-in-one 400 may further include a control unit, and the control unit 407 may include a computer processing unit (CPU) or other device having similar functions. In some embodiments, control unit 407 can be used to execute an application stored by storage unit 406, or control unit 407 can also be used to perform the methods, functions, and operations disclosed in some embodiments of the present application.

The image processing unit 408 is for performing signal processing such as image quality correction related to the image signal output from the control unit 407, and converting its resolution into a resolution according to the screen of the display unit 401. Then, the display driving unit 409 sequentially selects each row of pixels of the display unit 401, and sequentially scans each row of pixels of the display unit 401 line by line, thereby providing pixel signals based on the signal-processed image signals.

In some embodiments, the VR all-in-one 400 can also include an external camera. The external camera 410 may be disposed on the front surface of the main body of the VR integrated machine 400, and the external camera 410 may be one or more. External The camera 410 can acquire three-dimensional information and can also be used as a distance sensor. Additionally, a position sensitive detector (PSD) or other type of distance sensor that detects reflected signals from the object can be used with the external camera 410. The external camera 410 and the distance sensor can be used to detect the body position, posture, and shape of the user wearing the VR integrated machine 400. In addition, under certain conditions, the user can directly view or preview the real scene through the external camera 410.

In some embodiments, the VR all-in-one 400 may further include a sound processing unit 411 that may perform sound quality correction or sound amplification of the sound signal output from the control unit 407, signal processing of the input sound signal, and the like. Then, the sound input/output unit 412 outputs the sound to the outside and the sound from the microphone after the sound processing.

It should be noted that the structure or component shown by the dotted line in FIG. 4 may be independent of the VR integrated machine 400, for example, may be disposed in an external processing system (for example, a computer system) for use with the VR integrated machine 400; or, a dotted line The illustrated structure or components may be disposed inside or on the surface of the VR integrated machine 400.

The device embodiments described above are merely illustrative, wherein the units described as separate components may or may not be physically separate, and the components displayed as units may or may not be physical units, ie may be located A place, or it can be distributed to multiple network units. Some or all of the modules may be selected according to actual needs to achieve the purpose of the solution of the embodiment. Those of ordinary skill in the art can understand and implement without deliberate labor.

Through the description of the above embodiments, those skilled in the art can clearly understand that the various embodiments can be implemented by means of software plus a necessary general hardware platform, and of course, by hardware. Based on such understanding, the above-described technical solutions may be embodied in the form of software products in essence or in the form of software products, which may be stored in a computer readable storage medium such as ROM/RAM, magnetic Discs, optical discs, etc., include instructions for causing a computer device (which may be a personal computer, server, or network device, etc.) to perform the methods described in various embodiments or portions of the embodiments.

Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of the present invention, rather than The present invention has been described in detail with reference to the foregoing embodiments, and those skilled in the art should understand that the technical solutions described in the foregoing embodiments may be modified or equivalently substituted for some of the technical features. The modifications and substitutions of the present invention do not depart from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

A method for displaying a high definition image on a VR integrated machine, comprising:

Obtain the original HD image frame input through the HDMI interface on the VR all-in-one;

Cutting the original high-definition image frame by an image cutting chip on the VR integrated machine to obtain a sub-image frame;

The sub-image frames are transmitted to the VR application layer for display by a data channel that matches the number of the sub-image frames.
The method according to claim 1, wherein the transmitting the sub-image frame to the VR application layer for display comprises:

Transmitting the sub-image frame to a VR application layer, so that the VR application layer splices the sub-image frame into an image frame to be displayed; and performing distortion processing on the image frame to be displayed and in the VR integrated machine The image frame to be displayed after distortion is displayed on the display screen.
The method according to claim 2, wherein the VR application layer splices the sub-image frames into image frames to be displayed, including:

The VR application layer splices the sub-image frames with the same time stamps into one image frame to be displayed; or

Splicing the sub-image frames matching the additional identification tags into one image frame to be displayed; or

The sub-image frames corresponding to the pixel values of the marked pixel block are spliced into one image frame to be displayed.
The method according to any one of claims 1 to 3, wherein any two sub-image frames in the sub-image frame are the same size.
The method of claim 4 wherein the number of sub-image frames is two frames.
A VR integrated machine, comprising: a memory and a processor;

The memory is configured to: store one or more computer instructions;

The processor is configured to execute the one or more computer instructions for:

Obtain the original high-definition image frame input through the HDMI interface;

Cutting the original high-definition image frame by an image cutting chip on the VR integrated machine to obtain a sub-image frame;

The sub-image frames are transmitted to the VR application layer for display by a data channel that matches the number of the sub-image frames.
The VR integrated machine according to claim 6, wherein the processor is specifically configured to:

Transmitting the sub-image frame to a VR application layer, so that the VR application layer splices the sub-image frame into an image frame to be displayed; and performing distortion processing on the image frame to be displayed and in the VR integrated machine The image frame to be displayed after distortion is displayed on the display screen.
The VR integrated machine according to claim 7, wherein the processor is specifically configured to:

The VR application layer splices the sub-image frames with the same time stamps into one image frame to be displayed; or

Splicing the sub-image frames matching the additional identification tags into one image frame to be displayed; or

The sub-image frames corresponding to the pixel values of the marked pixel block are spliced into one image frame to be displayed.
The VR integrated machine according to any one of claims 6-8, wherein the processor is specifically configured to:

The original high definition image frame is cut by the image cutting chip to obtain sub-image frames of the same size.
The VR integrated machine according to claim 9, wherein the processor is specifically configured to:

The original high definition image frame is cut by the image cutting chip to obtain two frames of sub image frames.