Book Image

Learn CUDA Programming

By : Jaegeun Han, Bharatkumar Sharma
Book Image

Learn CUDA Programming

By: Jaegeun Han, Bharatkumar Sharma

Overview of this book

<p>Compute Unified Device Architecture (CUDA) is NVIDIA's GPU computing platform and application programming interface. It's designed to work with programming languages such as C, C++, and Python. With CUDA, you can leverage a GPU's parallel computing power for a range of high-performance computing applications in the fields of science, healthcare, and deep learning. </p><p> </p><p>Learn CUDA Programming will help you learn GPU parallel programming and understand its modern applications. In this book, you'll discover CUDA programming approaches for modern GPU architectures. You'll not only be guided through GPU features, tools, and APIs, you'll also learn how to analyze performance with sample parallel programming algorithms. This book will help you optimize the performance of your apps by giving insights into CUDA programming platforms with various libraries, compiler directives (OpenACC), and other languages. As you progress, you'll learn how additional computing power can be generated using multiple GPUs in a box or in multiple boxes. Finally, you'll explore how CUDA accelerates deep learning algorithms, including convolutional neural networks (CNNs) and recurrent neural networks (RNNs). </p><p> </p><p>By the end of this CUDA book, you'll be equipped with the skills you need to integrate the power of GPU computing in your applications.</p>
Table of Contents (18 chapters)
Title Page
Dedication

Recurrent neural network optimization

RRNs allow you to analyze sequential data in deep learning. Although this network has sequential dependencies, there's plenty of room for optimization. In this section, we will cover its algorithm and how cuDNN provides optimized performance.

There are many kinds of RNNs, but cuDNN only supports four, that is, RNN with ReLU, RNN with tanh, LSTM, and GRU. They have two inputs: the hidden parameters from the previous network and the input from the source. Depending on their types, they have different operations. In this lab, we will cover the LSTM operation. The following diagram shows the forward operation of the LSTM:

From a computing perspective, there are eight matrix-matrix multiplications and many element-wise operations. From this estimation, we can expect that LSTM could be memory-bounded since each operation is memory...