Abstract: The present disclosure describes compositions and methods for treating cancer. Embodiments relate to a cell modified to express one or more molecules at a level that is higher or lower than the level of the one or more molecules expressed by a cell that has not been modified to express the one or more molecules, wherein the one or more molecules comprise Cavin3, ZBED2, and MYC.

Abstract: The present disclosure relates to compositions and methods for enhancing infiltration of lymphocytes into tumor tissue, enhancing anti-tumor lymphocyte activities in tumor microenvionment (TME), inhibiting regulatory lymphocyte (e.g., B and T cells) activities in TME, and/or long term benefit of cell therapies. For example, in a method of in vivo cell expansion, the method comprises administering an effective amount of cells comprising an antigen binding molecule to a subject; and administering an effective amount of presenting cells expressing a solid tumor antigen that the binding molecule binds.

Abstract: Disclosed are a picture generation method performed by a computer device. The method includes: rendering a three-dimensional virtual scene to obtain a scene background rendering map; rendering a first foreground target reported by a first terminal associated with a first client to obtain a first foreground target rendering map; blending the scene background rendering map and the first foreground target rendering map to obtain a first picture, the first picture including the first foreground target displayed in the three-dimensional virtual scene; and providing the first picture to the first terminal associated with the first client for displaying the first picture. A technology of thousand people with thousand faces is achieved, the rendering efficiency can be improved, and the cost is saved.

Abstract: An image processing method includes: acquiring an image size of an image and original image data of the image; creating a first texture storage area according to the image size, and storing image data of the image into the first texture storage area; creating, according to the image size and a target encoding format, a second texture storage area for storing target image data to be generated, a color encoding format corresponding to the target image data being the target encoding format; and performing, through a shader called by a graphics processor (GPU), encoding format conversion on the original image data stored in the first texture storage area to generate the target image data corresponding to each texture coordinate in the second texture storage area, and storing the target image data corresponding into the each texture coordinate to a corresponding storage location in the second texture storage area.

Abstract: A graphical instruction data processing method and apparatus, and a system are disclosed, to help reduce a quantity of transmitted graphical instruction data, and lower a requirement on bandwidth. Aspects of the disclosure provide a method for processing graphical instruction data. The method includes obtaining, by a server device in a cloud interactive system, graphical instruction data of a frame, and determining whether the frame satisfies a key frame setting condition. Further, the method includes when the frame is determined to fail to satisfy the key frame setting condition, comparing the graphical instruction data of the frame with graphical instruction data of a current key frame, to obtain differential data, and sending the differential data to user equipment in the cloud interactive system. The user equipment reconstructs the graphical instruction data of the frame according to the current key frame and the differential data.

Abstract: A graphical interface update method and graphical interface update apparatus are provided. The method includes: determining a dirty region, the dirty region being a region that needs to be changed in a graphical interface; obtaining a drawing instruction, the drawing instruction indicating a drawing area; calculating an intersection set between the drawing area and the dirty region; and sending, to a user equipment, an instruction data stream indicating the intersection set, the user equipment updating the graphical interface according to the instruction data stream.

Abstract: The present disclosure discloses a method and an apparatus for testing the compatibility of a 3D engine. The method includes: acquiring a hardware capability parameter of a graphics card to be simulated, the hardware capability parameter recording a capability supported by the graphics card; running a predetermined 3D engine according to the hardware capability parameter; and determining, according to a result of running the 3D engine, whether the 3D engine is compatible with the graphics card to be simulated. The present disclosure solves the technical problem that a hardware testing environment needs to be repeatedly built to test the compatibility of the 3D engine on different graphics cards, thereby achieving technical effects of simulating different virtual graphics cards to implement testing in a hardware testing environment built once, and shortening a testing period.

Abstract: A graphical interface update method and graphical interface update apparatus are provided. The method includes: determining a dirty region, the dirty region being a region that needs to be changed in a graphical interface; obtaining a drawing instruction, the drawing instruction indicating a drawing area; calculating an intersection set between the drawing area and the dirty region; and sending, to a user equipment, an instruction data stream indicating the intersection set, the user equipment updating the graphical interface according to the instruction data stream.

Abstract: A graphical instruction data processing method and apparatus, and a system are disclosed, to help reduce a quantity of transmitted graphical instruction data, and lower a requirement on bandwidth. Aspects of the disclosure provide a method for processing graphical instruction data. The method includes obtaining, by a server device in a cloud interactive system, graphical instruction data of a frame, and determining whether the frame satisfies a key frame setting condition. Further, the method includes when the frame is determined to fail to satisfy the key frame setting condition, comparing the graphical instruction data of the frame with graphical instruction data of a current key frame, to obtain differential data, and sending the differential data to user equipment in the cloud interactive system. The user equipment reconstructs the graphical instruction data of the frame according to the current key frame and the differential data.

Abstract: A remote image projection method, server and client are provided. The remote image projection method includes: obtaining, by a server, N rendering instructions invoked by a local application, wherein the N is a positive integer; determining, by the server, a rendering resource for executing the N rendering instructions; generating, by the server, a rendering sequence based on an execution sequence of the N rendering instructions executed by the local application, wherein the rendering sequence includes rendering instruction determination information for determining the N rendering instructions; and transmitting, by the server, to a client device the rendering sequence and rendering resource determination information for determining the rendering resource.

Abstract: The present disclosure discloses a method and an apparatus for testing the compatibility of a 3D engine. The method includes: acquiring a hardware capability parameter of a graphics card to be simulated, the hardware capability parameter recording a capability supported by the graphics card; running a predetermined 3D engine according to the hardware capability parameter; and determining, according to a result of running the 3D engine, whether the 3D engine is compatible with the graphics card to be simulated. The present disclosure solves the technical problem that a hardware testing environment needs to be repeatedly built to test the compatibility of the 3D engine on different graphics cards, thereby achieving technical effects of simulating different virtual graphics cards to implement testing in a hardware testing environment built once, and shortening a testing period.