
Explore space and time complexity concepts using Python for high-level ideas and Rust for benchmarking. Learn how language choices influence algorithm efficiency and how to calculate space-time complexity.
Visualize breadth-first search on a graph using Rust collections like HashMap, HashSet, and VecDeque, with visited and queue and an iterative print of graph elements, and hint at depth-first search.
Explore breadth-first search in Rust and C++ using hash maps, vectors, and a queue to traverse a graph, track visited nodes, and print results from a main function.
Explore a maze of variables and mappings, focusing on indicative direction moments and how to map directions for variables as we introduce x minus one and related values.
Demonstrates implementing algorithms in c++ using standard containers such as stack, queue, list, and unordered_map, with turtle movement and screen drawing to illustrate grid-based logic.
Explore how algorithms control turtle motion in a C++ program, using grid-based movement, random and user-input strategies, and simple AI to drive motion dynamics.
Explore algorithm implementation for a turtle moving on a grid, comparing random, user input, and simple (or zero x) options, with delta x and delta y and wasd controls.
Welcome guys this is the second part of the Algorithmic Programming Series. "Algorithms 101 " is an advanced course designed for students who wish to deepen their understanding of sophisticated algorithmic techniques and their applications in solving real-world problems. Building on the foundational knowledge of basic algorithms and data structures, this course delves into complex algorithms, including graph algorithms, string processing, advanced dynamic programming, and more. With Rust and C++ intuitive syntax and a rich ecosystem of libraries, students will learn to implement these advanced algorithms efficiently, enhancing their problem-solving skills and preparing them for challenges in advanced software development, data science, and machine learning.
What You Will Learn:
Advanced-Data Structures: Dive into more complex data structures like balanced trees, heaps, disjoint set unions, and understanding their implementation and applications in Rust and C++.
Graph Algorithms: Learn the basics of Graph algorithms.
String Algorithms: Learn algorithms for string processing, such as string matching, tries, and suffix arrays.
Advanced Dynamic Programming: Go beyond the basics with advanced dynamic programming techniques for solving intricate problems with overlapping subproblems and optimal substructure properties.
Algorithmic Paradigms: Theoretical underpinnings and practical implementations.
Real-World Projects: Apply advanced algorithms to real-world problems through hands-on projects and build the essentials to start your self-paced learning.