Abstract: In one embodiment, a method includes a step of receiving a geometric representation of a virtual object and a texture atlas, the geometric representation comprising multiple geometric primitives defining a shape of the virtual object, the texture atlas comprises regions each of which is allocated to include shading information of a respective geometric primitive of the plurality of geometric primitives, and the shading information of the respective geometric primitive being scaled down to be smaller than the allocated region so as to create a buffer between the allocated region and adjacent regions of the plurality of regions on the texture atlas. The method further includes steps of identifying, based on a first viewpoint from which to view the virtual object, visible geometric primitives from the plurality of geometric primitives and rendering images of the visible geometric primitives using corresponding shading information included in the texture atlas.

Abstract: A method for rendering a frame includes receiving, from a server, a color texture and a depth mesh associated with an object to be rendered, the depth mesh including multiple vertices and metadata associated with the vertices. The method further includes receiving motion data associated with the object, warping the depth mesh using the metadata and the motion data, resulting in a warped depth mesh, and rendering one or more frames using the color texture and the warped depth mesh.

Abstract: A display system, such as a virtual reality or augmented reality display system, can control a display to present image data including a plurality of color components, on a plurality of depth planes supported by the display. The presentation of the image data through the display can be controlled based on control information that is embedded in the image data, for example to activate or inactive a color component and/or a depth plane. In some examples, light sources and/or spatial light modulators that relay illumination from the light sources may receive signals from a display controller to adjust a power setting to the light source or spatial light modulator based on control information embedded in an image data frame.

Abstract: A virtual or augmented reality display system that controls power inputs to the display system as a function of image data. Image data itself is made of a plurality of image data frames, each with constituent color components of, and depth planes for displaying on, rendered content. Light sources or spatial light modulators to relay illumination from the light sources may receive signals from a display controller to adjust a power setting to the light source or spatial light modulator, and/or control depth of displayed image content, based on control information embedded in an image data frame.

Abstract: A computer implemented method for warping virtual content includes receiving rendered virtual content data, the rendered virtual content data including a far depth. The method also includes receiving movement data indicating a user movement in a direction orthogonal to an optical axis. The method further includes generating warped rendered virtual content data based on the rendered virtual content data, the far depth, and the movement data.

Abstract: In one embodiment, a method includes receiving a first viewpoint associated with a head-mounted device from the head-mounted device, accessing a 3D mesh of a virtual scene, selecting a portion of the 3D mesh based on the first viewpoint, generating an image and a corresponding depth map of the virtual scene based on the selected portion of the 3D mesh, generating a simplified 3D mesh based on the depth map, wherein the simplified 3D mesh has fewer primitives than the selected portion of 3D mesh of the virtual scene, generating a texture for the simplified 3D mesh based on the image, and sending the simplified 3D mesh and the texture to the head-mount device, wherein the simplified 3D mesh and the texture are configured to be used for rendering the virtual scene from one or more viewpoints different from the first viewpoint.

Abstract: A method in a virtual, augmented, or mixed reality system includes a GPU determining/detecting an absence of image data. The method also includes shutting down a portion/component/function of the GPU. The method further includes shutting down a communication link between the GPU and a DB. Moreover, the method includes shutting down a portion/component/function of the DB. In addition, the method includes shutting down a communication link between the DB and a display panel. The further also includes shutting down a portion/component/function of the display panel.

Abstract: A method in a virtual, augmented, or mixed reality system includes a GPU determining/detecting an absence of image data. The method also includes shutting down a portion/component/function of the GPU. The method further includes shutting down a communication link between the GPU and a DB. Moreover, the method includes shutting down a portion/component/function of the DB. In addition, the method includes shutting down a communication link between the DB and a display panel. The further also includes shutting down a portion/component/function of the display panel.

Abstract: A computer implemented method for warping multi-field color virtual content for sequential projection includes obtaining first and second color fields having different first and second colors. The method also includes determining a first time for projection of a warped first color field. The method further includes determining a second time for projection of a warped second color field. Moreover, the method includes predicting a first pose at the first time and predicting a second pose at the second time. In addition, the method includes generating the warped first color field by warping the first color field based on the first pose. The method also includes generating the warped second color field by warping the second color field based on the second pose.

Abstract: A virtual or augmented reality display system that controls power inputs to the display system as a function of image data. Image data itself is made of a plurality of image data frames, each with constituent color components of, and depth planes for displaying on, rendered content. Light sources or spatial light modulators to relay illumination from the light sources may receive signals from a display controller to adjust a power setting to the light source or spatial light modulator, and/or control depth of displayed image content, based on control information embedded in an image data frame.

Abstract: A computer implemented method for warping virtual content includes receiving rendered virtual content data, the rendered virtual content data including a far depth. The method also includes receiving movement data indicating a user movement in a direction orthogonal to an optical axis. The method further includes generating warped rendered virtual content data based on the rendered virtual content data, the far depth, and the movement data.

Abstract: A virtual or augmented reality display system that controls power inputs to the display system as a function of image data. Image data itself is made of a plurality of image data frames, each with constituent color components of, and depth planes for displaying on, rendered content. Light sources or spatial light modulators to relay illumination from the light sources may receive signals from a display controller to adjust a power setting to the light source or spatial light modulator based on control information embedded in an image data frame.

Abstract: A computer implemented method for warping virtual content includes receiving rendered virtual content data, the rendered virtual content data including a far depth. The method also includes receiving movement data indicating a user movement in a direction orthogonal to an optical axis. The method further includes generating warped rendered virtual content data based on the rendered virtual content data, the far depth, and the movement data.

Abstract: In one embodiment, a method includes a server generating first shading information for visible portions of objects relative to a first viewpoint, storing the first shading information in a texture atlas, and sending the texture atlas to a client device. The method also includes determining a first subset of the visible portions of the objects for which shading information is to be re-generated and a second subset for which elements of the first shading information are to be reused, generating second shading information for the first subset relative to a second viewpoint, updating the texture atlas to include the second shading information for the first subset and the elements of the first shading information for the second subset, and sending the updated texture atlas to the client device. The updated texture atlas is configured for rendering images of the visible portions of the objects from multiple viewpoints.

Abstract: In one embodiment, a method includes a step of receiving a geometric representation of a virtual object and a texture atlas, the geometric representation comprising multiple geometric primitives defining a shape of the virtual object, the texture atlas comprises regions each of which is allocated to include shading information of a respective geometric primitive of the plurality of geometric primitives, and the shading information of the respective geometric primitive being scaled down to be smaller than the allocated region so as to create a buffer between the allocated region and adjacent regions of the plurality of regions on the texture atlas. The method further includes steps of identifying, based on a first viewpoint from which to view the virtual object, visible geometric primitives from the plurality of geometric primitives and rendering images of the visible geometric primitives using corresponding shading information included in the texture atlas.

Abstract: Disclosed herein are related to a device and a method of remotely rendering an image. In one approach, a device divides an image of an artificial reality space into a plurality of slices. In one approach, the device encodes a first slice of the plurality of slices. In one approach, the device encodes a portion of a second slice of the plurality of slices, while the device encodes a portion of the first slice. In one approach, the device transmits the encoded first slice of the plurality of slices to a head wearable display. In one approach, the device transmits the encoded second slice of the plurality of slices to the head wearable display, while the device transmits a portion of the encoded first slice to the head wearable display.

Abstract: In one embodiment, a method includes the steps of receiving, from a client device, a first viewpoint from which to view a virtual object, the virtual object having a shape defined by multiple geometric primitives, identifying, relative to the first viewpoint, visible geometric primitives from multiple geometric primitives, allocating a region in a texture atlas for each of the visible geometric primitives, generating shading information for each of the visible geometric primitives, storing the shading information of each of the visible geometric primitives in a portion of the allocated region smaller than the allocated region to create a buffer around the portion of the allocated region where the shading information is stored, and sending, to the client device, the texture atlas and a list identifying the visible geometric primitives, the texture atlas being configured for rendering images of the visible geometric primitives from different viewpoints.

Abstract: Disclosed herein are related to systems and methods for providing artificial reality. In one aspect, a console receives feedback information indicative of a first completion time from a head wearable display (HWD). The HWD may complete generating a first image frame at the first completion time. The HWD may display the first image frame. In one aspect, the console compares a display time, at which the first image frame is displayed by the HWD, and the first completion time. In one aspect, the console adjusts, according to the comparison, image processing, to adjust a second completion time, at which the console completes generating a second image frame. In one aspect, the console generates, via the adjusted image processing, the second image frame to provide to the HWD.

Abstract: A virtual or augmented reality display system that controls power inputs to the display system as a function of image data. Image data itself is made of a plurality of image data frames, each with constituent color components of, and depth planes for displaying on, rendered content. Light sources or spatial light modulators to relay illumination from the light sources may receive signals from a display controlled to adjust a power setting to the light source or spatial light modulator based on control information embedded in an image data frame.

Abstract: Disclosed herein are related to a device and a method of remotely rendering an image. In one approach, a device divides an image of an artificial reality space into a plurality of slices. In one approach, the device encodes a first slice of the plurality of slices. In one approach, the device encodes a portion of a second slice of the plurality of slices, while the device encodes a portion of the first slice. In one approach, the device transmits the encoded first slice of the plurality of slices to a head wearable display. In one approach, the device transmits the encoded second slice of the plurality of slices to the head wearable display, while the device transmits a portion of the encoded first slice to the head wearable display.