CN111870962A - A cloud game data processing method and system - Google Patents

Abstract

The present disclosure provides a cloud game data processing method and system, which relate to the technical field of games and can solve the problem that the current game viewing method cannot realize multi-player viewing of cloud games. The specific technical scheme is as follows: the first virtual machine receives a viewing request sent by at least one second virtual machine, the viewing request includes a second zero terminal identifier corresponding to the second virtual machine, and the first virtual machine corresponds to the first zero terminal; requesting parsing to obtain a second zero terminal identifier corresponding to the second virtual machine; sending an addition instruction to the image processor, so that the image processor establishes a corresponding relationship between the first virtual machine and each second zero terminal according to the addition instruction, And according to the corresponding relationship, the image corresponding to the first virtual machine is sent to the first zero terminal and each second zero terminal, and the adding instruction includes the identifier of each second zero terminal. The present invention is used for multi-player viewing of cloud games.

Description

A cloud game data processing method and system

technical field

The present disclosure relates to the technical field of games, and in particular, to a cloud game data processing method and system.

Background technique

Cloud gaming, also known as game-on-demand, is an online gaming technology based on cloud computing technology. Cloud gaming technology enables light-end devices with relatively limited graphics processing and data computing capabilities to run high-quality games. The multiplayer viewing mode in the game process means that the user can watch the game process of other users from the perspective of a bystander.

At present, in games that use the local host to connect to the Internet, under the premise of the player user's permission, the onlooker user's local host can obtain the game data in the player user's local host through the Internet, and it is possible to watch the player user in the onlooker user's local host. game process. However, the current game viewing method cannot realize multi-player viewing of cloud games.

SUMMARY OF THE INVENTION

Embodiments of the present disclosure provide a cloud game data processing method and system, which can solve the problem that the current game viewing method cannot realize multiplayer viewing of cloud games. The technical solution is as follows:

According to a first aspect of the embodiments of the present disclosure, a cloud game data processing method is provided, the method comprising:

The first virtual machine receives a viewing request sent by at least one second virtual machine, where the viewing request includes a second zero terminal identifier corresponding to the second virtual machine, and the first virtual machine corresponds to the first zero terminal;

Parsing the viewing request to obtain a second zero terminal identifier corresponding to the second virtual machine;

Send an adding instruction to the image processor, so that the image processor establishes a corresponding relationship between the first virtual machine and each second zero terminal according to the adding instruction, and adds the first virtual machine according to the corresponding relationship. The image corresponding to the machine is sent to the first zero terminal and each of the second zero terminals, and the adding instruction includes an identifier of each of the second zero terminals.

In the solution provided by the present disclosure, when the first virtual machine corresponding to the first zero terminal of the player user receives the viewing request, it parses the viewing request, obtains the second zero terminal identifier of the onlooker user, and sends an adding instruction to the image processor , so that the image processor sends the image corresponding to the first virtual machine to the first zero terminal and each second zero terminal according to the corresponding relationship between the first virtual machine and each second zero terminal established by the adding instruction. Multiple onlookers can see the game screen of the player user through the second zero terminal, so as to realize multi-player viewing of cloud games. At the same time, since the zero terminal of the onlooker user cannot control the first virtual machine, it will not affect the player user's game screen. gaming experience.

In one embodiment, the method further includes: receiving a viewing end request sent by at least one second virtual machine, where the viewing ending request includes the second zero terminal identifier corresponding to the second virtual machine;

Parsing the end viewing request to obtain a second zero terminal identifier corresponding to the second virtual machine;

Send a deletion instruction to the image processor, so that the image processor deletes the second zero terminal in the corresponding relationship according to the deletion instruction, and the deletion instruction includes the identifier of each second zero terminal.

In one embodiment, the method further includes: receiving an authorization instruction sent by the first zero terminal, and enabling viewing permission according to the authorization instruction.

In one embodiment, the method further includes: receiving manipulation information sent by the first zero terminal; generating a drawing instruction according to the manipulation information, and sending it to the image processor, so that the image processor can The drawing instruction generates an image corresponding to the first virtual machine.

According to a second aspect of the embodiments of the present disclosure, a cloud game data processing method is provided, the method comprising:

The image processor receives an addition instruction sent by the first virtual machine, where the addition instruction is the above-mentioned addition instruction;

establishing a corresponding relationship between the first virtual machine and each second zero terminal according to the adding instruction;

According to the corresponding relationship, the image corresponding to the first virtual machine is sent to the first zero terminal and each of the second zero terminal.

In one embodiment, the method further includes: receiving a deletion instruction sent by the first virtual machine, where the deletion instruction includes each of the second zero terminal identifiers;

The second null terminal in the corresponding relationship is deleted according to the deletion instruction.

Further, according to the corresponding relationship, the image corresponding to the first virtual machine is sent to the first zero terminal and each of the second zero terminals, specifically:

receiving a drawing instruction sent by the first virtual machine, performing a rendering task according to the drawing instruction, and generating an image corresponding to the first virtual machine;

Encoding the image to obtain encoded data;

The encoded data is sent to the first null terminal and each of the second null terminals.

According to a third aspect of the embodiments of the present disclosure, a cloud game data processing method is provided, the method comprising:

The second virtual machine receives a viewing instruction sent by the second zero terminal, where the viewing instruction includes the first virtual machine identifier;

Parsing the viewing instruction to obtain the first virtual machine identifier;

Send a viewing request to the first virtual machine according to the first virtual machine identifier.

In one embodiment, a viewing ending instruction sent by the second zero terminal is received, where the viewing ending instruction includes the first virtual machine identifier.

According to a third aspect of the embodiments of the present disclosure, a cloud game data processing system is provided, and the system includes:

A cloud server, a plurality of zero terminals and an image processor, the cloud server includes at least two virtual machines, and the virtual machines are in one-to-one correspondence with the zero terminals;

The first virtual machine is used to execute the method described in the first aspect of the embodiment, the second virtual machine is used to execute the method described in the third aspect of the embodiment, and the image processor is used to execute the method described in the second aspect of the embodiment. .

It is to be understood that the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the present disclosure.

Description of drawings

The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate embodiments consistent with the disclosure and together with the description serve to explain the principles of the disclosure.

1 is a flowchart of a cloud game data processing method provided by an embodiment of the present disclosure;

FIG. 2 is a flowchart of a cloud game data processing method provided by an embodiment of the present disclosure;

3 is a flowchart of a cloud game data processing method provided by an embodiment of the present disclosure;

4 is a block diagram of a cloud game data processing system provided by an embodiment of the present disclosure;

5 is a schematic diagram of an application scenario of cloud game data processing provided by an embodiment of the present disclosure;

FIG. 6 is a corresponding relationship diagram between a virtual machine and a zero terminal for cloud game data processing provided by an embodiment of the present disclosure.

Detailed ways

Exemplary embodiments will be described in detail herein, examples of which are illustrated in the accompanying drawings. Where the following description refers to the drawings, the same numerals in different drawings refer to the same or similar elements unless otherwise indicated. The implementations described in the illustrative examples below are not intended to represent all implementations consistent with this disclosure. Rather, they are merely examples of systems and methods consistent with some aspects of the present disclosure as recited in the appended claims.

An embodiment of the present disclosure provides a cloud game data processing method. As shown in FIG. 1 , the method includes the following steps:

101. The first virtual machine receives a viewing request sent by at least one second virtual machine.

The virtual machine is deployed in the cloud server, the virtual machine corresponds to the zero terminal, the first virtual machine corresponds to the zero terminal of the player user, and the second virtual machine corresponds to the zero terminal of the onlooker user.

In an actual application, before the first virtual machine receives the viewing request, the first virtual machine enables the game viewing permission open to the outside world.

Specifically, the player user can send a command to activate the game viewing permission of a certain game to the first virtual machine through the first zero terminal, and the first virtual machine opens the external viewing permission of the game according to the opening command, so that the onlooker user can In the game list, seeing that the player user has enabled the viewing permission of the game, the onlooker user can click the button corresponding to the player user in the watch game list through the second zero terminal to send a viewing instruction to the second virtual machine.

The second virtual machine receives the viewing instruction sent by the onlooker user through the second zero terminal, obtains the identifier of the first virtual machine in the viewing instruction, and the second virtual machine finds the first virtual machine according to the first virtual machine identifier The viewing request includes the identifier of at least one second zero terminal, so that the first virtual machine knows which onlooker user's zero terminal to send the game screen to.

102. The first virtual machine parses the viewing request, obtains a second zero terminal identifier corresponding to the second virtual machine, and sends an adding instruction to the image processor.

The image processor may be an image processor (GPU POOL), and the image processor includes a GPU chip, a management module and a sending module.

In practical applications, the first virtual machine receives the viewing request, parses the address of the second zero terminal used by the onlooker user, adds the address of the second zero terminal to the adding instruction, and sends the adding instruction to the image processor The management module, so that the image processor establishes the corresponding relationship between the first virtual machine and each second zero terminal according to the addition instruction, and sends the image corresponding to the first virtual machine to the first zero terminal and each second zero terminal according to the corresponding relationship. Zero terminal.

Specifically, the management module of the image processor establishes a correspondence between the address of the second zero terminal and the first virtual machine after receiving the adding instruction and parsing the address of the second zero terminal therefrom. The first virtual machine in the management module of the image processor corresponds to addresses of two zero terminals, one is the address of the first zero terminal corresponding to the first virtual machine, and the other is the address of the second zero terminal.

The address of the first zero terminal has been established when the user logs in to the first virtual machine through the first zero terminal. It should be noted that in game viewing, there may be multiple onlookers, so in the corresponding relationship of the management module of the image processor, there may be multiple second zero terminals, and the corresponding relationship is shown in FIG. 2 .

The first zero terminal acquires the manipulation information of the player user, and sends the manipulation information to the first virtual machine, and the first virtual machine generates a drawing instruction according to the manipulation information of the player user, and sends the drawing instruction to the image processor, which has image processing. The generator generates the corresponding image according to the drawing instruction.

In a practical application, the manipulation information includes information generated by an input device connected to the first zero terminal, where the input device includes a mouse, a keyboard, a joystick, and the like.

The image processor receives the drawing instruction of the first virtual machine to perform the rendering task, and generates an image expected to be generated by the drawing instruction, which can be a game screen, encodes the image, and generates encoded data. Corresponding relationship, the addresses of the first zero terminal and the second zero terminal corresponding to the first virtual machine are obtained, and the address of at least one second zero terminal and the address of the first zero terminal are sent to the sending module of the image processor.

The sending module of the image processor sends the encoded data to the first zero terminal and the second zero terminal, and the first zero terminal and the second zero terminal respectively decode the encoded data to obtain an image, which is displayed to the onlookers and player users through the display , if there are multiple onlookers, the sending module will send the encoded data to the zero terminals of multiple onlookers, so that both player users and onlookers can see the game screen, and multiple people can watch the game screen together.

Among them, the zero terminal used by the onlooker user only has the function of accepting the encoded data of the first virtual machine, and cannot control the first virtual machine, that is to say, the onlooker user can only see the running on the first virtual machine through the second zero terminal The display screen of the game is displayed, but the first virtual machine cannot be controlled, so that the game viewing will not be realized, and the normal control of the game by the player and user will not be affected.

103. The first virtual machine receives a viewing end request sent by at least one second virtual machine.

The instruction for ending viewing includes a first virtual machine identifier. When the onlooker user no longer needs to watch the game screen of the player user, the second zero terminal can send an end viewing instruction to the second virtual machine, and the second virtual machine determines the player user's game screen according to the first virtual machine identifier in the end viewing instruction The first virtual machine further sends a viewing end request to the first virtual machine.

The end viewing request carries the address of the second zero terminal used by the onlooker user, so that the first virtual machine of the player user knows which zero terminal to stop sending the game screen to.

104. The first virtual machine parses the viewing end request, obtains the identifier of each second zero terminal, and sends a deletion instruction to the image processor.

The first virtual machine of the player user receives the end viewing request, parses the end viewing request to obtain the address of the second zero terminal used by the onlooker user, and adds the address of the second zero terminal to the delete instruction and sends it to the image processor , so that the image processor can stop sending the encoded data of the image generated by the rendering instruction issued by the first virtual machine of the player user to the zero terminal of the onlooker user.

After receiving the deletion instruction, the management module of the image processor parses the address of the second zero terminal from the deletion instruction. In the relationship, delete the address of the second zero terminal, so that the encoded data of the image generated by the drawing instruction of the first virtual machine will not be sent to the second zero terminal, and the onlookers will not be watching the player users. Game screen, watch the game over.

In the solution provided by the present disclosure, when the first virtual machine corresponding to the first zero terminal of the player user receives the viewing request, it parses the viewing request, obtains the second zero terminal identifier of the onlooker user, and sends an adding instruction to the image processor , so that the image processor sends the image corresponding to the first virtual machine to the first zero terminal and each second zero terminal according to the corresponding relationship between the first virtual machine and each second zero terminal established by the adding instruction. Multiple onlookers can see the game screen of the player user through the second zero terminal, so as to realize multi-player viewing of cloud games. At the same time, since the zero terminal of the onlooker user cannot control the first virtual machine, it will not affect the player user's game screen. gaming experience.

Based on the cloud game data processing method provided by the embodiment corresponding to FIG. 1, another embodiment of the present disclosure provides a cloud game data processing method, which can be applied to a cloud game data processing system, and the processing system includes a zero terminal device, Virtual machines and image processors. This embodiment is described with the image processor processing cloud game data, which does not mean that the present disclosure is limited to this. As shown in FIG. 2 , the cloud game data processing method provided by this embodiment includes the following steps:

201. The image processor receives an adding instruction sent by a first virtual machine.

In practical applications, the first virtual machine receives the viewing request, parses the address of the second zero terminal used by the onlooker user, adds the address of the second zero terminal to the adding instruction, and sends the adding instruction to the image processor management module.

202. The image processor establishes a corresponding relationship between the first virtual machine and each second zero terminal according to the adding instruction.

The management module of the image processor establishes a correspondence between the address of the second zero terminal and the first virtual machine after receiving the adding instruction and parsing the address of the second zero terminal therefrom. The first virtual machine in the management module of the image processor corresponds to addresses of two zero terminals, one is the address of the first zero terminal corresponding to the first virtual machine, and the other is the address of the second zero terminal.

The address of the first zero terminal has been established when the user logs in to the first virtual machine through the first zero terminal. It should be noted that, in game viewing, there may be multiple onlookers, so in the corresponding relationship between the management modules of the image processor, there may be multiple second zero terminals.

203. The image processor sends the image corresponding to the first virtual machine to the first zero terminal and each second zero terminal according to the corresponding relationship.

The first zero terminal acquires the manipulation information of the player user, and sends the manipulation information to the first virtual machine, and the first virtual machine generates a drawing instruction according to the manipulation information of the player user, and sends the drawing instruction to the image processor, which has image processing. The generator generates the corresponding image according to the drawing instruction.

Generally, the manipulation information includes information generated by an input device connected to the first zero terminal, where the input device includes a mouse, a keyboard, a joystick, and the like.

The image processor receives the drawing instruction of the first virtual machine to perform the rendering task, and generates an image expected to be generated by the drawing instruction, which can be a game screen, encodes the image, and generates encoded data. Corresponding relationship, the addresses of the first zero terminal and the second zero terminal corresponding to the first virtual machine are obtained, and the address of at least one second zero terminal and the address of the first zero terminal are sent to the sending module of the image processor.

The sending module of the image processor sends the encoded data to the first zero terminal and the second zero terminal, and the first zero terminal and the second zero terminal respectively decode the encoded data to obtain an image, which is displayed to the onlookers and player users through the display , if there are multiple onlookers, the sending module will send the encoded data to the zero terminals of multiple onlookers, so that both player users and onlookers can see the game screen, and multiple people can watch the game screen together.

Among them, the zero terminal used by the onlooker user only has the function of accepting the encoded data of the first virtual machine, and cannot control the first virtual machine, that is to say, the onlooker user can only see the running on the first virtual machine through the second zero terminal The display screen of the game is displayed, but the first virtual machine cannot be controlled, so that the game viewing will not be realized, and the normal control of the game by the player and user will not be affected.

204. The image processor receives the deletion instruction sent by the first virtual machine.

Wherein, the deletion instruction includes the identifier of each second zero terminal, when the first virtual machine of the player user receives the end viewing request, and parses the end viewing request to obtain the address of the second zero terminal used by the onlooker user, and assigns the first virtual machine to the viewing end request. The address of the second terminal is added to the delete instruction and sent to the image processor, so that the image processor can stop sending the encoded data of the image generated by the rendering instruction issued by the first virtual machine of the player user to the zero terminal of the onlooker user.

205. The image processor deletes the second zero terminal in the corresponding relationship according to the deletion instruction.

After receiving the deletion instruction, the management module of the image processor parses the address of the second zero terminal from the deletion instruction. In the relationship, delete the address of the second zero terminal, so that the encoded data of the image generated by the drawing instruction of the first virtual machine will not be sent to the second zero terminal, and the onlookers will not be watching the player users. Game screen, watch the game over.

Embodiments of the present disclosure also provide a cloud game data processing method, which can be applied to a cloud game data processing system, where the processing system includes a zero terminal device, a virtual machine, and an image processor. This embodiment is described with the second virtual machine processing cloud game data, which does not mean that the present disclosure is limited to this. As shown in FIG. 3 , the cloud game data processing method provided by this embodiment includes the following steps:

301. The second virtual machine receives the viewing instruction sent by the second zero terminal, and parses the viewing instruction to obtain the first virtual machine identifier.

The player user can send a command to start the game viewing permission of a game to the first virtual machine through the first zero terminal, and the first virtual machine opens the external viewing permission of the game according to the opening command, so that the onlookers can list the game. , see that the player user has enabled the viewing permission of the game, the onlooker user can click the button corresponding to the player user in the watch game list through the second zero terminal, and send a viewing instruction to the second virtual machine.

The second virtual machine receives the viewing instruction sent by the onlooker user through the second zero terminal, and obtains the identifier of the first virtual machine in the viewing instruction

302. The second virtual machine sends a viewing request to the first virtual machine according to the first virtual machine identifier.

According to the identifier of the first virtual machine, the second virtual machine finds the first virtual machine and sends a viewing request to the first virtual machine, where the viewing request includes the identifier of at least one second zero terminal, so that the first virtual machine knows which onlooker user to send to. Zero terminal sends game screen.

303. The second virtual machine receives the viewing end instruction sent by the second zero terminal, and parses the viewing ending instruction to obtain the first virtual machine identifier.

304. The second virtual machine sends a viewing end request to the first virtual machine according to the first virtual machine identifier.

When the onlooker user no longer needs to watch the game screen of the player user, the second zero terminal can send an end viewing instruction to the second virtual machine, and the second virtual machine determines the player user's game screen according to the first virtual machine identifier in the end viewing instruction The first virtual machine further sends a viewing end request to the first virtual machine.

Based on the cloud game data processing method described in the foregoing embodiments, the following system embodiments of the present disclosure can be used to execute the method embodiments of the present disclosure.

An embodiment of the present disclosure provides a cloud game data processing system. As shown in FIG. 4 , the cloud game data processing system 40 includes: a cloud server 401, multiple zero terminals 402, and an image processor 403;

The cloud server includes at least one virtual machine 4011 , and the virtual machine 4011 corresponds to the zero terminal 402 one-to-one; the image processor includes a GPU chip 4031 , a management module 4032 and a sending module 4033 . Referring to Figure 4, the cloud game data processing system includes four zero terminals, namely zero terminal X, zero terminal A, zero terminal B and zero terminal C, and the cloud server includes four virtual machines, namely VMX, VMA, Among VMB and VMC, the virtual machine corresponding to zero terminal A is VMA, the virtual machine corresponding to zero terminal B is VMB, the virtual machine corresponding to zero terminal C is VMC, and the virtual machine corresponding to zero terminal X is VMX.

In the following, taking zero terminal A as the onlooker terminal, zero terminal X as the player terminal, the corresponding virtual machine as VM X, and the image processor as GPU POOL as an example, the cloud game data processing flow provided by this embodiment is as follows:

The VM A receives the start game viewing instruction sent by the zero terminal A, and the initiating game viewing instruction carries the VM identifier of the VM X corresponding to the zero terminal used by the player user.

Among them, VM X needs to enable the game viewing permission of a certain game in advance. Specifically, the player user sends a command to activate the game viewing permission of a game to VM X through the zero terminal X, and VM X enables the game viewing of the game. In this way, the onlooker user can see that the player user has enabled the viewing permission of the game in the watch game list. The onlooker user can click the button corresponding to the player user in the watch game list through the zero terminal used, and send a game viewing instruction to the VM corresponding to the zero terminal.

It can be understood that the start game viewing instruction carries the VM identifier of the VM X corresponding to the zero terminal used by the player user. In this way, VM A can know the VM of the determined player user, and then send a game viewing request to the VM X.

VM A receives and parses the instruction to start the game viewing, obtains the VM ID of the player user, and sends a game viewing request to the VMX corresponding to the VM ID, and the game viewing request carries the address of Zero Terminal A.

Among them, VM A receives the start game viewing instruction sent by the onlooker user through the zero terminal A, and the instruction obtains the VM identifier of the VM X corresponding to the zero terminal X used by the player user; next, VM A finds the VM X according to the VM identifier, A game viewing request is sent to the VMX, and the game viewing request carries the address of the zero terminal A used by the onlooker user, so that the VMX knows which zero terminal to send the game screen to.

The game player's VM X parses the address of the zero terminal A from the received game viewing request, and sends an add instruction to the management module of the GPU POOL, and the add instruction carries the address of the zero terminal A.

Among them, the VM X corresponding to the zero terminal X used by the game player receives the game viewing request, and parses the address of the zero terminal A used by the onlooker user from it; adds the address of the zero terminal A to the adding instruction, and sends the adding instruction To the management module of the GPU POOL, so that the GPU POOL can send the encoded data of the image generated by the rendering instruction issued by the VM X to the zero terminal A.

After the management module of the GPU POOL receives the add instruction and parses out the address of the zero terminal A, it establishes the corresponding relationship between the address of the zero terminal A and the VM X.

It can be understood that VM X in the management module corresponds to the addresses of two zero terminals, one is the address of zero terminal X corresponding to VM X, and the other is the address of zero terminal A. The address of Zero Terminal X has been established when the user logs in to VM X through Zero Terminal X.

It should be noted that, in the corresponding relationship established by the management module, except for the address of the zero terminal X, the others are the addresses of the zero terminal of the onlookers.

It can be understood that, if there are multiple onlookers, the management module can establish a correspondence between the addresses of VM X and multiple zero terminals. For example, onlooker player A uses zero terminal A, onlooker player B uses zero terminal B, and onlooker player C uses zero terminal C, then, as shown in Figure 6, the addresses of VM X and zero terminal A and the address of zero terminal B can be established and the corresponding relationship between the addresses of zero terminal C. Among them, the corresponding relationship between VM X and zero terminal X is that the address of zero terminal X has been established when the user logs in to VM X through zero terminal X. The zero terminal address in the corresponding relationship is divided by The address of the zero terminal X, the others are the addresses of the zero terminal of the onlookers.

Zero terminal X obtains the manipulation events of the player user and sends the manipulation events to VM X; VM X obtains the manipulation events of the user, generates drawing commands according to the manipulation events, and sends the drawing commands to the GPU POOL.

Among them, the player user controls the game running on the VM X through the zero terminal X; the zero terminal X obtains the user's manipulation events and sends the manipulation events to the corresponding VM X; the VM X generates drawing instructions according to the received manipulation events, and Send the drawing instruction to the GPU POOL, and the GPU POOL will generate the corresponding image according to the drawing instruction.

Usually, the input devices connected to the zero terminal include a keyboard and mouse, and of course, a joystick can also be connected; the manipulation events include information generated by other input devices such as keyboard and mouse events.

The GPU POOL performs rendering tasks according to the received drawing instructions to generate images; encodes the images to obtain encoded data.

The GPU POOL executes the rendering task according to the drawing instruction issued by the VM X, generates an image expected to be generated by the drawing instruction, and the image can be a game screen, and encodes the image to generate encoded data.

The management module of GPU POOL obtains the address of zero terminal A and zero terminal X according to the corresponding relationship between VM X and zero terminal address established in advance, and sends the address of zero terminal A and zero terminal X to the sending module .

Among them, after the GPU POOL generates the encoded data, the management module obtains the address of the zero terminal A and the zero terminal X address corresponding to the VM X according to the established correspondence between the VM X and the address of the zero terminal, and combines the address of the zero terminal A with the address of the zero terminal. The zero terminal X address is sent to the sending module.

If there are multiple onlookers, according to the correspondence shown in Figure 6, the management module sends the address of zero terminal A, zero terminal C, zero terminal B and zero terminal X address corresponding to VM X to send module.

The sending module sends the encoded data to zero terminal A and zero terminal X; zero terminal A and zero terminal X respectively decode the encoded data to obtain an image, which is displayed to onlookers and player users through the display.

The sending module sends the encoded data to the zero terminal X of the player user and the zero terminal A of the onlooker user; after receiving the encoded data, the zero terminal obtains an image after decoding and displays it on the display. If there are multiple onlookers, the sending module will send the encoded data to the zero terminals of multiple onlookers, so that both player users and onlookers can see the game screen, and multiple people can watch the game screen together.

It should be noted that the zero terminal A used by the onlooker user only has the function of receiving the encoded data of VM X, and cannot be controlled by the VMX. That is to say, the onlooker user can only see the display interface of the game running on the VM X through the zero terminal. , but cannot control the VM X, which will not affect the normal control of the game by the player.

The VM A receives the end game viewing instruction sent by the zero terminal A, and the end game viewing instruction carries the VM identifier of the VM X corresponding to the zero terminal used by the player user.

In this step, when the onlooker user A no longer needs to watch the game screen of the player user, the zero terminal A may send an end game viewing instruction to the VM A. It can be understood that the game viewing instruction carries the VM identifier of the VM X corresponding to the zero terminal used by the player user. In this way, VM A can know the VM of the determined player user, and then send an end game viewing request to the VM X.

VM A receives and parses the end game viewing instruction, obtains the VM identifier of the player user, and sends an end game viewing request to the VMX corresponding to the VM identifier, and the end game viewing request carries the address of zero terminal A.

Among them, VM A receives the end game viewing instruction sent by the onlooker user through Zero Terminal A, and the instruction obtains the VM identifier of VM X corresponding to Zero Terminal X used by the player user; next, VM A finds VM X according to the VM identifier, Send an end game viewing request to the VMX, and the end game viewing request carries the address of the zero terminal A used by the onlooker user, so that the VMX knows which zero terminal to stop sending the game screen to.

The game player's VM X parses the address of the zero terminal A from the received end game viewing request, and sends a deletion instruction to the management module of the GPUPOOL, and the deletion instruction carries the address of the zero terminal A.

Among them, the VM X corresponding to the zero terminal X used by the game player receives the end game viewing request, and parses the address of the zero terminal A used by the onlookers from it; adds the address of the zero terminal A to the delete instruction and sends it to the GPU POOL The management module, so that the GPU POOL can stop sending the encoded data of the image generated by the rendering instruction issued by the VMX to the zero terminal A.

After receiving the delete command, the management module of GPU POOL parses the address of zero terminal A from the delete command; the management module deletes the address of zero terminal A from the corresponding relationship between VMX and zero terminal addresses according to the address of zero terminal A. address.

In this way, the encoded data of the image generated by the VMX drawing instruction will not be sent to the zero terminal A, so that the onlooker user A will not watch the game screen of the player user and watch the game end.

Based on the cloud game data processing method described in the foregoing embodiments, the embodiments of the present disclosure further provide a computer-readable storage medium, for example, the non-transitory computer-readable storage medium may be a read-only memory (English: ReadOnly Memory). , ROM), random access memory (English: Random Access Memory, RAM), CD-ROM, magnetic tape, floppy disk and optical data storage devices, etc. The storage medium stores computer instructions for executing the cloud game data processing method described in the above embodiments, which will not be repeated here.

Other embodiments of the present disclosure will readily occur to those skilled in the art upon consideration of the specification and practice of the disclosure disclosed herein. This application is intended to cover any variations, uses, or adaptations of the present disclosure that follow the general principles of the present disclosure and include common knowledge or techniques in the technical field not disclosed by the present disclosure . The specification and examples are to be regarded as exemplary only, with the true scope and spirit of the disclosure being indicated by the following claims.

It is to be understood that the present disclosure is not limited to the precise structures described above and illustrated in the accompanying drawings, and that various modifications and changes may be made without departing from the scope thereof. The scope of the present disclosure is limited only by the appended claims.

Claims (10)

1. A data processing method of a cloud game is characterized by comprising the following steps:

a first virtual machine receives a viewing request sent by at least one second virtual machine, wherein the viewing request comprises a second zero terminal identifier corresponding to the second virtual machine, and the first virtual machine corresponds to a first zero terminal;

analyzing the viewing request to obtain a second zero terminal identification corresponding to the second virtual machine;

and sending an adding instruction to an image processor so that the image processor establishes a corresponding relation between the first virtual machine and each second zero terminal according to the adding instruction, and sends an image corresponding to the first virtual machine to the first zero terminal and each second zero terminal according to the corresponding relation, wherein the adding instruction comprises an identifier of each second zero terminal.

2. The method of claim 1, further comprising:

receiving an end watching request sent by at least one second virtual machine, wherein the end watching request comprises a second zero terminal identification corresponding to the second virtual machine;

analyzing the viewing ending request to obtain a second zero terminal identification corresponding to the second virtual machine;

and sending a deleting instruction to the image processor so that the image processor deletes the second zero terminals in the corresponding relationship according to the deleting instruction, wherein the deleting instruction comprises the identification of each second zero terminal.

3. The method of claim 1, further comprising:

and receiving an authorization instruction sent by the first zero terminal, and opening the watching permission according to the authorization instruction.

4. The method of claim 1, further comprising:

receiving control information sent by the first zero terminal;

and generating a drawing instruction according to the control information, and sending the drawing instruction to the image processor, so that the image processor can generate an image corresponding to the first virtual machine according to the drawing instruction.

5. A data processing method of a cloud game is characterized by comprising the following steps:

the image processor receives an adding instruction sent by the first virtual machine, wherein the adding instruction is the adding instruction of any one of claims 1-4;

establishing a corresponding relation between the first virtual machine and each second zero terminal according to the adding instruction;

and sending the image corresponding to the first virtual machine to a first zero terminal and each second zero terminal according to the corresponding relation.

6. The method of claim 5, further comprising:

receiving a deleting instruction sent by the first virtual machine, wherein the deleting instruction comprises each second zero terminal identifier;

and deleting the second zero terminal in the corresponding relation according to the deleting instruction.

7. The method according to claim 5, wherein the sending the image corresponding to the first virtual machine to the first zero terminal and each of the second zero terminals according to the correspondence relationship specifically includes:

receiving a drawing instruction sent by the first virtual machine, executing a rendering task according to the drawing instruction, and generating an image corresponding to the first virtual machine;

encoding the image to obtain encoded data;

and transmitting the coded data to the first zero terminal and each second zero terminal.

8. A data processing method of a cloud game is characterized by comprising the following steps:

the second virtual machine receives a viewing instruction sent by a second zero terminal, wherein the viewing instruction comprises a first virtual machine identifier;

analyzing the viewing instruction to obtain the first virtual machine identifier;

and sending a viewing request to the first virtual machine according to the first virtual machine identifier.

9. The method of claim 8, further comprising:

receiving a viewing ending instruction sent by the second zero terminal, wherein the viewing ending instruction comprises the first virtual machine identifier;

analyzing the ending instruction to obtain the first virtual machine identifier;

and sending a viewing ending request to the first virtual machine according to the first virtual machine identifier.

10. A cloud gaming data processing system, the system comprising: the cloud server comprises at least two virtual machines, and the virtual machines correspond to the zero terminals one to one;

wherein the first virtual machine is adapted to perform the method of any of claims 1 to 4, the second virtual machine is adapted to perform the method of any of claims 8 and 9, and the image processor is adapted to perform the method of any of claims 5 to 7.

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