Book Image

50 Algorithms Every Programmer Should Know - Second Edition

By : Imran Ahmad
4 (5)
Book Image

50 Algorithms Every Programmer Should Know - Second Edition

4 (5)
By: Imran Ahmad

Overview of this book

The ability to use algorithms to solve real-world problems is a must-have skill for any developer or programmer. This book will help you not only to develop the skills to select and use an algorithm to tackle problems in the real world but also to understand how it works. You'll start with an introduction to algorithms and discover various algorithm design techniques, before exploring how to implement different types of algorithms, with the help of practical examples. As you advance, you'll learn about linear programming, page ranking, and graphs, and will then work with machine learning algorithms to understand the math and logic behind them. Case studies will show you how to apply these algorithms optimally before you focus on deep learning algorithms and learn about different types of deep learning models along with their practical use. You will also learn about modern sequential models and their variants, algorithms, methodologies, and architectures that are used to implement Large Language Models (LLMs) such as ChatGPT. Finally, you'll become well versed in techniques that enable parallel processing, giving you the ability to use these algorithms for compute-intensive tasks. By the end of this programming book, you'll have become adept at solving real-world computational problems by using a wide range of algorithms.
Table of Contents (22 chapters)
Free Chapter
1
Section 1: Fundamentals and Core Algorithms
7
Section 2: Machine Learning Algorithms
14
Section 3: Advanced Topics
20
Other Books You May Enjoy
21
Index

Strategizing multi-resource processing

In the early days of strategizing multi-resource processing, large-scale algorithms were executed on powerful machines called supercomputers. These monolithic machines had a shared memory space, enabling quick communication between different processors and allowing them to access common variables through the same memory. As the demand for running large-scale algorithms grew, supercomputers transformed into Distributed Shared Memory (DSM) systems, where each processing node owned a segment of the physical memory. Subsequently, clusters emerged, constituting loosely connected systems that depend on message passing between processing nodes.

Effectively running large-scale algorithms requires multiple execution engines operating in parallel to tackle intricate challenges. Three primary strategies can be utilized to achieve this:

  • Look within: Exploit the existing resources on a computer by using the hundreds of cores available on a...