Mastering Algorithms - Algorithms Collection

Algorithms Collection

This collection contains 12 comprehensive topics, each covering fundamental algorithm concepts with detailed explanations, code examples, visual diagrams, and practice problems. Topics can be explored sequentially or used as a reference for specific algorithms. Updating daily.

Recursion & Divide-and-Conquer

Comprehensive guide to recursive thinking, divide-and-conquer strategies, memoization, and common recursive patterns with detailed examples and practice problems.

Trees

Comprehensive guide to tree data structures, traversals, binary search trees, and advanced tree algorithms with detailed implementations and examples. Trees are a special case of graphs and provide the foundation for understanding graph algorithms.

Sorting Algorithms

Comprehensive guide to the 8 most popular sorting algorithms: Bubble Sort, Quick Sort, Selection Sort, Insertion Sort, Merge Sort, Heap Sort, Radix Sort, and Tim Sort with detailed implementations and comparisons.

Graph Algorithms

Comprehensive guide to graph traversal, shortest paths, and pathfinding algorithms: DFS, BFS, Union-Find, Dijkstra's, Bellman-Ford, Floyd-Warshall, and A* with detailed implementations and visualizations.

Dynamic Programming

Comprehensive guide to dynamic programming techniques for solving optimization problems efficiently with detailed patterns, implementations, and practice problems.

Suggested Reading Order

This reading order follows a pedagogically sound progression, building concepts from fundamentals to advanced topics. Each topic builds upon previous knowledge:

  1. Introduction to Algorithms - Foundational concepts and terminology
  2. Complexity Analysis - Essential for evaluating any algorithm
  3. Recursion & Divide-and-Conquer - Core technique used throughout
  4. Trees - Simpler than graphs; establishes recursive structures and traversal concepts
  5. Sorting Algorithms - Prerequisite for binary search; builds on divide-and-conquer
  6. Searching Algorithms - Linear and Binary Search (requires sorted data)
  7. Graph Algorithms - Builds on trees; includes DFS, BFS, shortest paths
  8. Dynamic Programming - Benefits from recursion, trees, and graph concepts
  9. Greedy Algorithms - Often compared with DP; uses graph concepts
  10. String Algorithms - Specialized domain; can leverage DP concepts
  11. Encryption Algorithms - Specialized domain; independent of other topics
  12. Machine Learning Algorithms - Most specialized; requires optimization concepts

Key Dependencies:

  • Complexity Analysis is prerequisite for all subsequent topics
  • Recursion & Divide-and-Conquer is used in Trees, Sorting, Searching, Graphs, and Dynamic Programming
  • Trees should come before Graph Algorithms - trees are simpler and trees are a special case of graphs
  • Sorting Algorithms should come before Searching Algorithms - binary search requires sorted data
  • Graph Algorithms benefits from Trees - many graph traversal concepts build on tree traversal
  • Dynamic Programming benefits from Recursion, Trees, and Graph Algorithms - many DP problems involve trees and graphs