Abstract: The present disclosure generally relates to an avatar on a lock screen. A received user input causes a respective change in a respective element of the lock screen other than the avatar and an animation is displayed, over time, of the avatar transitioning through a plurality of poses.

Abstract: The present disclosure generally relates to an avatar on a lock screen. A received user input causes a respective change in a respective element of the lock screen other than the avatar and an animation is displayed, over time, of the avatar transitioning through a plurality of poses.

Abstract: A device for performing parameterized generation of two-dimensional images from a three-dimensional model may include at least one processor configured to receive a set of parameters for generating a two-dimensional image from a three-dimensional model. The at least one processor may be further configured to position a render camera relative to the three-dimensional model based at least in part on a first parameter of the set of parameters, apply a pose to the three-dimensional model based at least in part on a second parameter of the set of parameters, and add at least one supplemental content item to the posed three-dimensional model based at least in part on a third parameter of the set of parameters. The at least one processor may be further configured to generate, using the positioned render camera, the two-dimensional image from the posed three-dimensional model including the added at least one supplemental content item.

Abstract: Systems, methods, and computer readable media to improve the animation capabilities of a computer system are described. Animation targets may be represented as a combination of a current animation pose and an incremental morph. The incremental morph may be represented as a series of non-zero weights, where each weight alters one of a predetermined number of target poses. Each target pose may be represented as a weighted difference with respect to a reference pose. Target poses may be stored in memory in a unique and beneficial manner. The disclosed manner permits the efficient retrieval of pose vertex data at run-time and may be especially efficient in systems that do not use, or have very little, cache memory.

Abstract: Systems, methods, and computer readable media to improve the animation capabilities of a computer system are described. Animation targets may be represented as a combination of a current animation pose and an incremental morph. The incremental morph may be represented as a series of non-zero weights, where each weight alters one of a predetermined number of target poses. Each target pose may be represented as a weighted difference with respect to a reference pose. Target poses may be stored in memory in a unique and beneficial manner. The disclosed manner permits the efficient retrieval of pose vertex data at run-time and may be especially efficient in systems that do not use, or have very little, cache memory.

Abstract: Systems, methods, and computer readable media to improve the animation capabilities of a computer system are described. Animation targets may be represented as a combination of a current animation pose and an incremental morph. The incremental morph may be represented as a series of non-zero weights, where each weight alters one of a predetermined number of target poses. Each target pose may be represented as a weighted difference with respect to a reference pose. Target poses may be stored in memory in a unique and beneficial manner. The disclosed manner permits the efficient retrieval of pose vertex data at run-time and may be especially efficient in systems that do not use, or have very little, cache memory.

Abstract: Systems, methods, and computer readable media to improve the animation capabilities of a computer system are described. Animation targets may be represented as a combination of a current animation pose and an incremental morph. The incremental morph may be represented as a series of non-zero weights, where each weight alters one of a predetermined number of target poses. Each target pose may be represented as a weighted difference with respect to a reference pose. Target poses may be stored in memory in a unique and beneficial manner. The disclosed manner permits the efficient retrieval of pose vertex data at run-time and may be especially efficient in systems that do not use, or have very little, cache memory.

Abstract: Shader manipulation via object-oriented instructions is disclosed. In various embodiments, a processor may receive object-oriented instructions. Upon receiving the object-oriented instructions, the processor may match the object-oriented instructions to uniforms of a non-object-oriented application programming interface (API) that may interface with a graphics processing unit (GPU). Further, the processor may modify the uniforms based at least in part on the received object-oriented instructions. Additionally, the processor may implements the uniforms after modification at a determined time.

Abstract: An extensible three-dimensional (3D) asset plug-in framework is disclosed. In various embodiments, files having different 3D file formats may be processed by respective plug-ins. The plug-ins may be configured to be downloaded and installed, to receive input files describing one or more 3D models and having a respective 3D file format, to read the respective 3D file format, and to generate and return a common 3D description to be previewed and manipulated by an application or an operating system. The different 3D file formats and their respective plug-ins may be proprietary or developed by third parties.

Abstract: Three-dimensional (3D) asset performance enhancement is disclosed. In various embodiments, the 3D assets may be retrieved from a specific folder, each 3D asset describing one or more 3D models. The 3D assets may be processed at build-time of an application to enhance the performance of the 3D assets at runtime of the application by performing one or more enhancements on the 3D assets before adding the enhanced 3D assets to a bundle of the application.

Abstract: An extensible three-dimensional (3D) asset plug-in framework is disclosed. In various embodiments, files having different 3D file formats may be processed by respective plug-ins. The plug-ins may be configured to be downloaded and installed, to receive input files describing one or more 3D models and having a respective 3D file format, to read the respective 3D file format, and to generate and return a common 3D description to be previewed and manipulated by an application or an operating system. The different 3D file formats and their respective plug-ins may be proprietary or developed by third parties.

Abstract: Shader manipulation via object-oriented instructions is disclosed. In various embodiments, a processor may receive object-oriented instructions. Upon receiving the object-oriented instructions, the processor may match the object-oriented instructions to uniforms of a non-object-oriented application programming interface (API) that may interface with a graphics processing unit (GPU). Further, the processor may modify the uniforms based at least in part on the received object-oriented instructions. Additionally, the processor may implements the uniforms after modification at a determined time.

Abstract: Three-dimensional (3D) asset performance enhancement is disclosed. In various embodiments, the 3D assets may be retrieved from a specific folder, each 3D asset describing one or more 3D models. The 3D assets may be processed at build-time of an application to enhance the performance of the 3D assets at runtime of the application by performing one or more enhancements on the 3D assets before adding the enhanced 3D assets to a bundle of the application.