environment to support GPU and multicore programming for rapid, high performance, application deployment

Homogeneous multicore processors, heterogeneous multicore processors, high performance accelerators, and other heterogeneous architectures have significant computing potential over traditional single core processors. Computer systems comprised of these specialized processing elements are increasingl...

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Online Access:http://hdl.handle.net/2047/d20002829
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spelling ndltd-NEU--neu-13962021-05-25T05:09:45Zenvironment to support GPU and multicore programming for rapid, high performance, application deploymentHomogeneous multicore processors, heterogeneous multicore processors, high performance accelerators, and other heterogeneous architectures have significant computing potential over traditional single core processors. Computer systems comprised of these specialized processing elements are increasingly common. Due to the increased complexity of these architectures, programming them has become increasingly complex and error prone. Each of these architectures have different memory systems, programming languages and development environments. This has driven the need for portable programming APIs and tools that allow developers to easily exploit all of the computational power of these platforms and effortlessly move their programs between different computing systems. To deal with these challenges MIT Lincoln Laboratory developed the Parallel Vector Tile Optimizing Library (PVTOL) to simplify the task of portable programming for complex systems. The PVTOL Tasks and Conduits framework provides a set of high-level programming constructs for writing high performance code that is portable across a range of traditional and heterogeneous architectures. This research extends PVTOL to include support for Graphics Processing Units (GPUs) and heterogeneous computing architectures using both the NVIDIA Compute Unified Device Architecture (CUDA) and Open Compute Language (OpenCL), while maintaining simplicity of programming and portability.http://hdl.handle.net/2047/d20002829
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description Homogeneous multicore processors, heterogeneous multicore processors, high performance accelerators, and other heterogeneous architectures have significant computing potential over traditional single core processors. Computer systems comprised of these specialized processing elements are increasingly common. Due to the increased complexity of these architectures, programming them has become increasingly complex and error prone. Each of these architectures have different memory systems, programming languages and development environments. This has driven the need for portable programming APIs and tools that allow developers to easily exploit all of the computational power of these platforms and effortlessly move their programs between different computing systems. To deal with these challenges MIT Lincoln Laboratory developed the Parallel Vector Tile Optimizing Library (PVTOL) to simplify the task of portable programming for complex systems. The PVTOL Tasks and Conduits framework provides a set of high-level programming constructs for writing high performance code that is portable across a range of traditional and heterogeneous architectures. This research extends PVTOL to include support for Graphics Processing Units (GPUs) and heterogeneous computing architectures using both the NVIDIA Compute Unified Device Architecture (CUDA) and Open Compute Language (OpenCL), while maintaining simplicity of programming and portability.
title environment to support GPU and multicore programming for rapid, high performance, application deployment
spellingShingle environment to support GPU and multicore programming for rapid, high performance, application deployment
title_short environment to support GPU and multicore programming for rapid, high performance, application deployment
title_full environment to support GPU and multicore programming for rapid, high performance, application deployment
title_fullStr environment to support GPU and multicore programming for rapid, high performance, application deployment
title_full_unstemmed environment to support GPU and multicore programming for rapid, high performance, application deployment
title_sort environment to support gpu and multicore programming for rapid, high performance, application deployment
publishDate
url http://hdl.handle.net/2047/d20002829
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