Skip to content

omaralisabbah/data-structures

Folders and files

NameName
Last commit message
Last commit date

Latest commit

 

History

8 Commits
 
 
 
 

Repository files navigation

C, C++ and Python Data-Structures

Here’s an advanced roadmap to master C++ data structures—tailored for 2025—with a focus on both theory and real-world C++ implementation. It assumes you already know basic syntax, control flow, and how to use STL containers like vector, map, etc.


🚀 Advanced Roadmap to Master C++ Data Structures


📍 STAGE 1: C++ Fundamentals Revisited (Week 1–2)

🔹 Deepen Core C++ Skills

Before tackling advanced structures, you need strong command over:

  • Pointers and References
  • Dynamic memory management (new, delete, unique_ptr, shared_ptr)
  • RAII & Smart Pointers
  • Templates and Function Overloading
  • Move Semantics and std::move()
  • Lambdas and std::function
  • Iterators & Ranges (C++20/23)

📘 Resources:

  • “Effective Modern C++” – Scott Meyers
  • cppreference.com – gold standard for syntax and usage
  • Compiler Explorer – for live code + assembly insights

📍 STAGE 2: STL Mastery (Week 3–4)

✅ Goal: Know STL containers inside-out and when to use which.

🔹 Learn Containers in Depth:

Category Containers
Sequence vector, deque, list, array, forward_list
Associative set, map, multiset, multimap
Unordered unordered_map, unordered_set
Adaptors stack, queue, priority_queue

🔧 Master:

  • Iterators, reverse iterators, custom comparator functions
  • Performance tradeoffs (when to prefer unordered_map over map, etc.)
  • Emplace vs Insert
  • Memory layout awareness (e.g., why vector<int> is cache friendly)

📘 Drill Sites:


📍 STAGE 3: Implement Core Data Structures Manually (Week 5–8)

✅ Goal: Internalize how structures work under the hood.

For each structure:

  1. Write your own version from scratch (use templates where possible).
  2. Analyze time/space complexity.
  3. Compare with STL equivalents.

🔹 Must-Implement Structures

  • DynamicArray<T> (like std::vector)
  • SinglyLinkedList<T>, DoublyLinkedList<T>
  • Stack<T> (array + linked list based)
  • Queue<T> / Circular Queue
  • HashMap<K, V> – chaining vs open addressing
  • BinarySearchTree<T>
  • AVL Tree / Red-Black Tree
  • Heap / Priority Queue (Min/Max)
  • Trie
  • Disjoint Set Union (DSU) with path compression + union by rank

🛠️ Bonus:

  • Use Google Benchmark to compare your implementation vs STL
  • Profile memory with Valgrind or AddressSanitizer

📍 STAGE 4: Advanced & Custom Data Structures (Week 9–12)

✅ Goal: Implement or understand complex data structures used in CP, AI, and systems.

🔹 Intermediate

  • Segment Tree (and Lazy Propagation)
  • Binary Indexed Tree (Fenwick Tree)
  • Sparse Table
  • Sliding Window + Deques
  • Rolling Hash (for strings)

🔹 Advanced

  • Treap / Splay Tree / Scapegoat Tree
  • Interval Tree / Range Tree / K-D Tree
  • Suffix Array / Suffix Tree
  • Heavy-Light Decomposition (HLD)
  • Link-Cut Tree
  • Persistent Segment Trees
  • Van Emde Boas Trees (vEB)

📘 Reference:


📍 STAGE 5: Data Structures in Real Systems (Ongoing)

✅ Goal: Learn how data structures are used in production-level C++.

🔹 Systems Programming

  • Use data structures in:

    • Custom memory allocators
    • Lock-free queues and stacks
    • LRU Cache (with list + unordered_map)
    • Ring buffers
    • Intrusive data structures (used in Linux kernel)

🔹 Game Engines / Graphics

  • Octree, QuadTree
  • Spatial Hashing
  • ECS (Entity Component System) using unordered_map, SOA

🔹 Databases

  • B-Trees / B+ Trees
  • Skip Lists
  • Log-structured Merge Trees (LSM Trees)

📍 STAGE 6: Competitive & Parallel Usage (Optional/Advanced)

🔹 Competitive Programming Use

  • Fast IO with scanf/printf vs cin/cout
  • Custom comparators, lambda hashing
  • Ordered sets with Policy-Based DS (GCC only)

🔹 Parallel Data Structures

  • Concurrent hash maps (e.g., tbb::concurrent_hash_map)
  • Lock-free queues (Michael-Scott queue)
  • C++20 Atomics & std::atomic_ref

🧠 Practice Strategy

Frequency Task
Daily Implement one structure or solve 1–2 problems (e.g. LeetCode)
Weekly Refactor or optimize older code
Monthly Read production code (e.g., Chromium, Redis, LLVM)
Quarterly Take on a project that requires custom structures (e.g. build a mini database or search engine)

📦 Tools for Mastery

Tool Use
Godbolt Visualize code assembly
Valgrind Memory debugging
GDB / LLDB Debug your own structures
Catch2 / GoogleTest Test custom DS
C++ Insights Understand how C++ desugars templates/lambdas
Google Benchmark Performance testing

About

No description, website, or topics provided.

Resources

Stars

Watchers

Forks

Releases

No releases published

Packages

 
 
 

Contributors

Languages