Sony Computer Entertainment Inc.

Sony Interactive Entertainment Inc.

Richard B Stenson

Steven Osman

Mark Evan Cerny

Payton R White

Attila Vass

John Paul Bates

Shai Messingher

Antoine Labour

Jun Murakawa

Christopher Ho

Howard Berkey

Jason Scanlin

Dmitri Shtilman

Atilla Vass

John Morgan

A system has a central processing unit (CPU) and a graphics processing unit (GPU) that includes one or more registers. The GPU can change a resource descriptor in one of the GPU's registers. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Graphics processing using dynamic resources

A glove interface object, including: a flex sensor configured to generate flex sensor data identifying a flex of a finger portion of the glove interface object; a trackable object configured to be illuminated during interactivity, the trackable object being positioned at a wrist portion of the glove interface object; a communications module configured to transmit the flex sensor data to a computing device for processing to determine a finger position pose of the glove interface object, applied for rendering a virtual hand in a view of a virtual environment on a head-mounted display (HMD), the virtual hand rendered based on the identified finger position pose, the computing device identifying the trackable object from captured image data to track a location of the glove interface object; wherein the virtual hand is rendered at a location in the virtual environment that is substantially defined by the location of the glove interface object.

Glove interface object with flex sensing and wrist tracking for virtual interaction

A glove interface object is provided, comprising: at least one flex sensor configured to generate flex sensor data identifying a flex of at least one finger portion of the glove interface object; at least one contact sensor configured to generate contact sensor data identifying a contact between a first portion of the glove interface object and a second portion of the glove interface object; a communications module configured to transmit the flex sensor data and the contact sensor data to a computing device for processing to determine a finger position pose of the glove interface object, the finger position pose being applied for rendering a virtual hand in a view of a virtual environment on a head-mounted display (HMD), the virtual hand being rendered based on the identified finger position pose.

Glove interface object

A system is provided, including a head-mounted display (HMD) and glove interface object. The HMD includes a viewing module having a view port into a screen configured for rendering image content that defines a view of a virtual environment, the image content being generated from execution of an interactive program by a computing device, an HMD communications module for receiving the image content from the computing device, an image processing module for processing image data received from the computing device for rendering the image content on the screen. The glove interface object includes at least one pressure sensor configured to generate pressure sensor data identifying a pressure applied to at least a portion of the glove interface object, and a glove communications module configured to transmit the pressure sensor data to the computing device for processing to be applied to a rendering of a virtual hand in the virtual environment.

Head-mounted display and glove interface object with pressure sensing for interactivity in a virtual environment

A method for processing graphics for a GPU program, translating instructions from a shading language into an intermediate language with a front end of a GPU compiler; translating the instructions from the intermediate language into a GPU object language with a back end of the GPU compiler; wherein the instructions in the shading language include instructions defining a layout of resources for the GPU program.

Developer controlled layout

Task and data management systems methods and apparatus are disclosed. A processor event that requires more memory space than is available in a local storage of a co-processor is divided into two or more segments. Each segment has a segment size that is less than or the same as an amount of memory space available in the local storage. The segments are processed with one or more co-processors to produce two or more corresponding outputs. The two or more outputs are associated into one or more groups. Each group is less than or equal to a target data size associated with a subsequent process.

Processor task and data management

Methods copying data from one location to another in a main memory of a cell processor are disclosed. A portion of the data is transferred a first main memory location to the local store of one or more SPU and then transferred from the local store to a second main memory location.

Method and system for performing memory copy function

Cell processor task management in a cell processor having a main memory, one or more power processor units (PPU) and one or more synergistic processing units (SPU), each SPU having a processor and a local memory is described. An SPU task manager (STM) running on one or more of the SPUs reads one or more task definitions stored in the main memory into the local memory of a selected SPU. Based on information contained in the task definitions the SPU loads code and/or data related to the task definitions from the main memory into the local memory associated with the selected SPU. The selected SPU then performs one or more tasks using the code and/or data.

Task manager with stored task definition having pointer to a memory address containing required code data related to the task for execution

Task and data management systems methods and apparatus are disclosed. A processor event that requires more memory space than is available in a local storage of a co-processor is divided into two or more segments. Each segment has a segment size that is less than or the same as an amount of memory space available in the local storage. The segments are processed with one or more co-processors to produce two or more corresponding outputs.

Cell processor task and data management systems methods and apparatus are disclosed. A cell processor divides an event that event requires more memory space than is available in a local storage of a synergistic processing element (SPE) into two or more segments. Each segment has a segment size that is less than or the same as an amount of memory space available in the local storage. The segments are processed with one or more SPE of the cell processor to produce two or more corresponding outputs.

Growing community of inventors

Foster City, CA, United States of America

Richard B Stenson