Abstract: A method and device for modifying virtual content according to various simulation characteristics includes obtaining first virtual content; obtaining one or more simulation characteristics; and generating second virtual content by modifying the first virtual content according to the one or more simulation characteristics; and presenting the second virtual content.

Abstract: Various implementations disclosed herein include devices, systems, and methods for presenting content based on environmental data. In various implementations, a device includes a display, a non-transitory memory and one or more processors coupled with the display and the non-transitory memory. In some implementations, a method includes obtaining environmental data associated with a physical environment in which the device is located. In some implementations, the method includes selecting, from a plurality of presentation modes, a first presentation mode for content based on the environmental data. In some implementations, the method includes presenting the content in accordance with the first presentation mode.

Abstract: In one implementation, a method of displaying an animation is performed at a device including an optical see-through display, one or more processors, and a non-transitory memory. The method includes receiving a request to display a first animation of an object exhibiting a response characteristic. The method includes determining a metric characterizing an amount of processing power for the device to display the first animation on the optical see-through display. The method includes, in response to a determination that the metric exceeds a threshold associated with the device, selecting a second animation of the object exhibiting the response characteristic. The method includes displaying the second animation.

Abstract: Systems, methods, and computer readable media to data drive a render graph are described. A render graph system defines one or more nodes for a render graph and one or more render targets associated with the nodes. The nodes includes one or more functions to define and resolve target handles for identifying render targets. The render graph system defines one or more connections between the nodes and render targets. The connection between the nodes and render targets form the render graph. The render graph system stores the render graph as a data file and converts, with a render graphics API, the data file into a render graph data object. The render graph system performs a frame setup phase the setups the render graph for a frame based on the render graph data object.

Abstract: Systems, methods, and computer readable media to data drive a render graph are described. A render graph system defines one or more nodes for a render graph and one or more render targets associated with the nodes. The nodes includes one or more functions to define and resolve target handles for identifying render targets. The render graph system defines one or more connections between the nodes and render targets. The connection between the nodes and render targets form the render graph. The render graph system stores the render graph as a data file and converts, with a render graphics API, the data file into a render graph data object. The render graph system performs a frame setup phase the setups the render graph for a frame based on the render graph data object.

Abstract: A system and method for environment mapping determines a computer-generated object's reflective appearance, based upon position and orientation of a camera with respect to the object's location. An embodiment of the present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula—r=e?(e·(n+eo))(n+eo)/(1?nz)=e?(e·[nx, ny, nz?1])[nx, ny, nz?1]/(1?nz), wherein eo=[0,0,?1], and nx, ny, and nz are the components of the surface normal vector n—to compute reflective properties of an object.

Abstract: There is provided a graphics processing system that includes a main processing unit and a graphics processing unit (GPU). The main processing unit puts rendering commands generated using a graphics library in the queue of a command buffer in a main memory. In this process, the library function offered by the graphics library is converted into the rendering commands, without any rendering attributes retained in the library. The GPU reads and executes the rendering commands stacked in the command buffer, and generates rendering data in a frame buffer.

Abstract: A system and method for environment mapping determines a computer-generated object's reflective appearance, based upon position and orientation of a camera with respect to the object's location. An embodiment of the present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula—r=e?(e·(n+eo))(n+eo)/(1?nz)=e?(e·[nx, ny, nz?1])[nx, ny, nz?1]/(1?nz), wherein eo=[0,0,?1], and nx, ny, and nz are the components of the surface normal vector n—to compute reflective properties of an object.

Abstract: A system and method for environment mapping determines a computer-generated object's reflective appearance, based upon position and orientation of a camera with respect to the object's location. An embodiment of the present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula—r=e?(e·(n+eo))(n+eo)/(1?nz)=e?(e·[nx, ny, nz?1])[nx, ny, nz?1]/(1?nz), wherein eo=[0,0,?1], and nx, ny, and nz are the components of the surface normal vector n—to compute reflective properties of an object.

Abstract: There is provided a graphics processing system that includes a main processing unit and a graphics processing unit (GPU). The main processing unit puts rendering commands generated using a graphics library in the queue of a command buffer in a main memory. In this process, the library function offered by the graphics library is converted into the rendering commands, without any rendering attributes retained in the library. The GPU reads and executes the rendering commands stacked in the command buffer, and generates rendering data in a frame buffer.

Abstract: A system and method for environment mapping determines a computer-generated object's reflective appearance, based upon position and orientation of a camera with respect to the object's location. The present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula to compute reflective properties of an object. The modified reflection formula is: r=e?(e·(n+eo))(n+eo)/(1?nz)=e?(e·[nx, ny, nz?1])[nx, ny, nz?1]/(1?nz), where eo=[0,0,?1], and nx, ny, and nz are the components of the surface normal vector, n.

Abstract: A system and method for environment mapping determines a computer-generated object'reflective appearance, based upon position and orientation of a camera with respect to the object's location. An embodiment of the present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula—r=e?(e·(n+eo))(n+eo)/(1?nz)=e?(e·[nx, ny, nz?1])[nx, ny, nz?1]/(1?nz), wherein eo=[0,0,?1], and nx, ny, and nz are the components of the surface normal vector n—to compute reflective properties of an object.

Abstract: A system and method for environment mapping determines a computer-generated object's reflective appearance, based upon position and orientation of a camera with respect to the object's location. The present invention is implemented as a real-time environment mapping for polygon rendering, however, the scope of the invention covers other rendering schemes. According to one embodiment of the present invention, a vector processing unit (VPU) uses a modified reflection formula to compute reflective properties of an object.