GPU programming in MATLAB / Nikolaos Ploskas, Nikolaos Samaras.

GPU programming in MATLAB is intended for scientists, engineers, or students who develop or maintain applications in MATLAB and would like to accelerate their codes using GPU programming without losing the many benefits of MATLAB. The book starts with coverage of the Parallel Computing Toolbox and o...

Full description

Saved in:
Bibliographic Details
Online Access: Full Text (via Skillsoft)
Main Author: Ploskas, Nikolaos
Other Authors: Samaras, Nikolaos
Format: Electronic eBook
Language:English
Published: Cambridge, MA : Morgan Kaufmann is an imprint of Elsevier, [2016]
©2016
Subjects:
Table of Contents:
  • Front Cover; GPU Programming in MATLAB; Copyright; Dedication; Contents; About the Authors; Foreword; Preface; Chapter 1: Introduction; 1.1 Parallel programming; 1.1.1 Introduction to Parallel Computing; 1.1.2 Classification of Parallel Computers; 1.1.3 Parallel Computers' Memory Architectures; 1.2 GPU programming; 1.3 CUDA architecture; 1.4 Why GPU programming in MATLAB? when to use GPU programming?; 1.5 Our approach: Organization of the book; 1.6 Chapter Review; Chapter 2: Getting started; 2.1 Hardware Requirements; 2.2 Software requirements; 2.2.1 NVIDIA CUDA Toolkit; Windows; Linux
  • MAC OS2.2.2 MATLAB; Windows; Linux; MAC OS; 2.3 Chapter review; Chapter 3: Parallel Computing Toolbox; 3.1 Product Description and Objectives; 3.2 Parallel for-loops (parfor); Example: Monte Carlo simulation to approximate the area of a figure; 3.3 Single program multiple data (spmd); Example: Monte Carlo simulation to approximate the area of a figure; 3.4 Distributed and codistributed arrays; 3.5 Interactive parallel development (pmode); 3.6 GPU Computing; 3.7 Clusters and Job Scheduling; 3.8 Chapter Review; Chapter 4: Introduction to GPU programming in MATLAB
  • 4.1 GPU Programming Features in MATLAB4.2 GPU arrays; 4.3 Built-in MATLAB functions for GPUS; Example: Image edge detection; 4.4 Element-wise MATLAB code on GPUs; Example: Filter signal using fast convolution; 4.5 Chapter review; Chapter 5: GPU programming on MATLAB toolboxes; 5.1 Communications System Toolbox; Example: Convolutional coding; 5.2 Image Processing Toolbox; Example: Computed tomography image reconstruction; 5.3 Neural Network Toolbox; Example: Neural network training and simulation on chemical dataset; 5.4 Phased Array System Toolbox
  • Example: Clutter simulation of a radar system5.5 Signal Processing Toolbox; Example: Filter signal using circular convolution; 5.6 Statistics and Machine Learning Toolbox; Example: Estimation of descriptive statistics measures using the Monte Carlo method; 5.7 Chapter Review; Chapter 6: Multiple GPUs; 6.1 Identify and run code on a specific GPU device; 6.2 Examples using multiple GPUs; Example 1: Monte Carlo simulation to approximate the area of a figure; Example 2: Estimation of descriptive statistics measures using the Monte Carlo method; Example 3: Image edge detection on multiple images
  • 6.3 Chapter reviewChapter 7: Run CUDA or PTX code; 7.1 A brief introduction to CUDA C; 7.2 Steps to run CUDA or PTX code on a GPU through MATLAB; 7.3 Example: Vector addition; 7.4 Example: Matrix multiplication; 7.5 Chapter review; Chapter 8: MATLAB MEX functions containing CUDA code; 8.1 A brief introduction to MATLAB MEX files; 8.2 Steps to run MATLAB MEX functions on GPU; 8.3 Example: Vector addition; 8.4 Example: matrix multiplication; 8.5 Chapter review; Chapter 9: CUDA-accelerated libraries; 9.1 Introduction; 9.2 cuBLAS; 9.3 cuFFT; 9.4 cuRAND; 9.5 cuSOLVER; 9.6 cuSPARSE; 9.7 NPP