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gpuarray function  (MathWorks Inc)


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    Structured Review

    MathWorks Inc gpuarray function
    Create a matrix in CPU memory and GPU memory. The CPU can access CPU memory only, and the GPU can access GPU memory only. Data (images) must be loaded into corresponding memory to be processed by either CPU or GPU. MATLAB also supports creating a matrix (double precision) in GPU directly by passing a parameter, e.g., zeros (sizex, <t>‘gpuArray')</t> . However, images cannot be directly loaded into GPU, which requires that images need to be loaded into CPU memory first and copied to GPU memory.
    Gpuarray Function, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/gpuarray function/product/MathWorks Inc
    Average 90 stars, based on 1 article reviews
    gpuarray function - by Bioz Stars, 2026-04
    90/100 stars

    Images

    1) Product Images from "Facile Conversion and Optimization of Structured Illumination Image Reconstruction Code into the GPU Environment"

    Article Title: Facile Conversion and Optimization of Structured Illumination Image Reconstruction Code into the GPU Environment

    Journal: International Journal of Biomedical Imaging

    doi: 10.1155/2024/8862387

    Create a matrix in CPU memory and GPU memory. The CPU can access CPU memory only, and the GPU can access GPU memory only. Data (images) must be loaded into corresponding memory to be processed by either CPU or GPU. MATLAB also supports creating a matrix (double precision) in GPU directly by passing a parameter, e.g., zeros (sizex, ‘gpuArray') . However, images cannot be directly loaded into GPU, which requires that images need to be loaded into CPU memory first and copied to GPU memory.
    Figure Legend Snippet: Create a matrix in CPU memory and GPU memory. The CPU can access CPU memory only, and the GPU can access GPU memory only. Data (images) must be loaded into corresponding memory to be processed by either CPU or GPU. MATLAB also supports creating a matrix (double precision) in GPU directly by passing a parameter, e.g., zeros (sizex, ‘gpuArray') . However, images cannot be directly loaded into GPU, which requires that images need to be loaded into CPU memory first and copied to GPU memory.

    Techniques Used:

    Impact of improved hardware and code on algorithm execution performance. We first measured the elapsed time of the vanilla code with a given image as a performance baseline from all the machines. Then, we applied each approach independently and measured the elapsed time to show the performance improvement of each approach. We applied all approaches with the single CPU core in the CPU-Single-core-All case. The CPU-Multicores-Process and CPU-Multicores-Threads cases show elapsed time when each task is executed in different cores without applying other approaches (red bar number 1). We applied all the approaches including multicores with which six tasks are executed in different cores, i.e., the CPU-Multicores-All case, which shows the best performance without exploiting the GPU (red bar number 2). The GPU-gpuArray case shows the elapsed time when we utilize the GPU by using gpuArray() function only without applying other approaches. This case clearly shows that performance improvement is limited even with the GPU if the code is written inefficiently. The GPU-All (Script-dup) case, the GPU-All (Script-non-dup) case, and the GPU-All (Func-dup) case show the benefits of avoiding duplicated operations and utilizing functions instead of scripts. While the performance improvement from these approaches was marginal in CPU-only code, they affect overall execution time significantly in GPU-optimized code when the execution time is less than a second. The GPU-All case shows the elapsed time with all approaches that we introduced in this work, and the best performance we can achieve (bottom red bar in each image panel).
    Figure Legend Snippet: Impact of improved hardware and code on algorithm execution performance. We first measured the elapsed time of the vanilla code with a given image as a performance baseline from all the machines. Then, we applied each approach independently and measured the elapsed time to show the performance improvement of each approach. We applied all approaches with the single CPU core in the CPU-Single-core-All case. The CPU-Multicores-Process and CPU-Multicores-Threads cases show elapsed time when each task is executed in different cores without applying other approaches (red bar number 1). We applied all the approaches including multicores with which six tasks are executed in different cores, i.e., the CPU-Multicores-All case, which shows the best performance without exploiting the GPU (red bar number 2). The GPU-gpuArray case shows the elapsed time when we utilize the GPU by using gpuArray() function only without applying other approaches. This case clearly shows that performance improvement is limited even with the GPU if the code is written inefficiently. The GPU-All (Script-dup) case, the GPU-All (Script-non-dup) case, and the GPU-All (Func-dup) case show the benefits of avoiding duplicated operations and utilizing functions instead of scripts. While the performance improvement from these approaches was marginal in CPU-only code, they affect overall execution time significantly in GPU-optimized code when the execution time is less than a second. The GPU-All case shows the elapsed time with all approaches that we introduced in this work, and the best performance we can achieve (bottom red bar in each image panel).

    Techniques Used:



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    Image Search Results


    Create a matrix in CPU memory and GPU memory. The CPU can access CPU memory only, and the GPU can access GPU memory only. Data (images) must be loaded into corresponding memory to be processed by either CPU or GPU. MATLAB also supports creating a matrix (double precision) in GPU directly by passing a parameter, e.g., zeros (sizex, ‘gpuArray') . However, images cannot be directly loaded into GPU, which requires that images need to be loaded into CPU memory first and copied to GPU memory.

    Journal: International Journal of Biomedical Imaging

    Article Title: Facile Conversion and Optimization of Structured Illumination Image Reconstruction Code into the GPU Environment

    doi: 10.1155/2024/8862387

    Figure Lengend Snippet: Create a matrix in CPU memory and GPU memory. The CPU can access CPU memory only, and the GPU can access GPU memory only. Data (images) must be loaded into corresponding memory to be processed by either CPU or GPU. MATLAB also supports creating a matrix (double precision) in GPU directly by passing a parameter, e.g., zeros (sizex, ‘gpuArray') . However, images cannot be directly loaded into GPU, which requires that images need to be loaded into CPU memory first and copied to GPU memory.

    Article Snippet: While using MATLAB's built-in functions including the gpuArray() function to easily exploit the GPU to produce a performance improvement, the performance gain could be limited due to inefficiently written code.

    Techniques:

    Impact of improved hardware and code on algorithm execution performance. We first measured the elapsed time of the vanilla code with a given image as a performance baseline from all the machines. Then, we applied each approach independently and measured the elapsed time to show the performance improvement of each approach. We applied all approaches with the single CPU core in the CPU-Single-core-All case. The CPU-Multicores-Process and CPU-Multicores-Threads cases show elapsed time when each task is executed in different cores without applying other approaches (red bar number 1). We applied all the approaches including multicores with which six tasks are executed in different cores, i.e., the CPU-Multicores-All case, which shows the best performance without exploiting the GPU (red bar number 2). The GPU-gpuArray case shows the elapsed time when we utilize the GPU by using gpuArray() function only without applying other approaches. This case clearly shows that performance improvement is limited even with the GPU if the code is written inefficiently. The GPU-All (Script-dup) case, the GPU-All (Script-non-dup) case, and the GPU-All (Func-dup) case show the benefits of avoiding duplicated operations and utilizing functions instead of scripts. While the performance improvement from these approaches was marginal in CPU-only code, they affect overall execution time significantly in GPU-optimized code when the execution time is less than a second. The GPU-All case shows the elapsed time with all approaches that we introduced in this work, and the best performance we can achieve (bottom red bar in each image panel).

    Journal: International Journal of Biomedical Imaging

    Article Title: Facile Conversion and Optimization of Structured Illumination Image Reconstruction Code into the GPU Environment

    doi: 10.1155/2024/8862387

    Figure Lengend Snippet: Impact of improved hardware and code on algorithm execution performance. We first measured the elapsed time of the vanilla code with a given image as a performance baseline from all the machines. Then, we applied each approach independently and measured the elapsed time to show the performance improvement of each approach. We applied all approaches with the single CPU core in the CPU-Single-core-All case. The CPU-Multicores-Process and CPU-Multicores-Threads cases show elapsed time when each task is executed in different cores without applying other approaches (red bar number 1). We applied all the approaches including multicores with which six tasks are executed in different cores, i.e., the CPU-Multicores-All case, which shows the best performance without exploiting the GPU (red bar number 2). The GPU-gpuArray case shows the elapsed time when we utilize the GPU by using gpuArray() function only without applying other approaches. This case clearly shows that performance improvement is limited even with the GPU if the code is written inefficiently. The GPU-All (Script-dup) case, the GPU-All (Script-non-dup) case, and the GPU-All (Func-dup) case show the benefits of avoiding duplicated operations and utilizing functions instead of scripts. While the performance improvement from these approaches was marginal in CPU-only code, they affect overall execution time significantly in GPU-optimized code when the execution time is less than a second. The GPU-All case shows the elapsed time with all approaches that we introduced in this work, and the best performance we can achieve (bottom red bar in each image panel).

    Article Snippet: While using MATLAB's built-in functions including the gpuArray() function to easily exploit the GPU to produce a performance improvement, the performance gain could be limited due to inefficiently written code.

    Techniques:

    Table 1

    Journal: Biomedical Optics Express

    Article Title: Real-time optical properties and oxygenation imaging using custom parallel processing in the spatial frequency domain

    doi: 10.1364/BOE.10.003916

    Figure Lengend Snippet: Table 1

    Article Snippet: In fact, the previously described MATLAB CPU implementation is fully compatible with the MATLAB Parallel Computing Toolbox and the MATLAB gpuArray function is used to copy all the input variables in MATLAB workspace to the GPU at the beginning of the process.

    Techniques: