Search icon CANCEL
Subscription
0
Cart icon
Your Cart (0 item)
Close icon
You have no products in your basket yet
Arrow left icon
Explore Products
Best Sellers
New Releases
Books
Videos
Audiobooks
Learning Hub
Free Learning
Arrow right icon
Arrow up icon
GO TO TOP
C++ Data Structures and Algorithm Design Principles

You're reading from   C++ Data Structures and Algorithm Design Principles Leverage the power of modern C++ to build robust and scalable applications

Arrow left icon
Product type Paperback
Published in Oct 2019
Publisher
ISBN-13 9781838828844
Length 626 pages
Edition 1st Edition
Languages
Arrow right icon
Authors (4):
Arrow left icon
Anil Achary Anil Achary
Author Profile Icon Anil Achary
Anil Achary
John Carey John Carey
Author Profile Icon John Carey
John Carey
Payas Rajan Payas Rajan
Author Profile Icon Payas Rajan
Payas Rajan
Shreyans Doshi Shreyans Doshi
Author Profile Icon Shreyans Doshi
Shreyans Doshi
Arrow right icon
View More author details
Toc

Table of Contents (11) Chapters Close

About the Book 1. Lists, Stacks, and Queues 2. Trees, Heaps, and Graphs FREE CHAPTER 3. Hash Tables and Bloom Filters 4. Divide and Conquer 5. Greedy Algorithms 6. Graph Algorithms I 7. Graph Algorithms II 8. Dynamic Programming I 9. Dynamic Programming II 1. Appendix

Introduction

Loved and feared in equal measure by many programmers, dynamic programming (DP) is a conceptual extension of the divide-and-conquer paradigm that pertains to a specific class of problems. The difficulties involved in dynamic programming problems are multi-faceted and often require creativity, patience, and the ability to visualize abstract concepts. However, the challenges these problems pose frequently have elegant and surprisingly simple solutions, which can provide a programmer with insights that reach far beyond the scope of the immediate task.

In the previous chapter, we discussed several techniques, such as the divide-and-conquer and the greedy approach. These approaches, though quite effective in the right circumstances, will not produce optimal results in certain situations. For example, in the previous chapter, we discussed how Dijkstra's algorithm does not produce optimal results for graphs with negative edge weights, whereas the Bellman-Ford algorithm does. For...

lock icon The rest of the chapter is locked
Register for a free Packt account to unlock a world of extra content!
A free Packt account unlocks extra newsletters, articles, discounted offers, and much more. Start advancing your knowledge today.
Unlock this book and the full library FREE for 7 days
Get unlimited access to 7000+ expert-authored eBooks and videos courses covering every tech area you can think of
Renews at $19.99/month. Cancel anytime
Banner background image