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Algorithm Design and Analysis: From Theory to Practice
New
17 students

Algorithm Design and Analysis: From Theory to Practice

Master Computational Thinking, Algorithm Design, Correctness, Complexity Analysis, Searching and Sorting
Last updated 7/2026
English

What you'll learn

  • Understand the fundamental concepts of algorithms and develop a strong foundation in computational thinking and logical problem-solving.
  • Design efficient algorithms using systematic approaches such as sequence, decision, repetition, decomposition, and abstraction.
  • Verify algorithm correctness using preconditions, postconditions, loop invariants, mathematical induction, and Hoare logic.
  • Implement and evaluate searching and sorting algorithms, including Linear Search, Binary Search, Insertion Sort, and other fundamental techniques.

Course content

5 sections5 lectures1h 17m total length
  • Decoding Algorithm Efficiency14:07
  • Assignment 1

Requirements

  • Basic computer skills, such as using a web browser and managing files, are sufficient to get started.
  • No knowledge of any programming language (such as Python, Java, or C++) is necessary, as the course focuses on algorithmic concepts rather than coding syntax.

Description

This course contains the use of artificial intelligence.

Welcome to Algorithmic Thinking: Foundations of Algorithm Design and Analysis—a comprehensive course designed to help you develop the logical thinking and problem-solving skills that form the foundation of computer science and modern software development.

Programming is not just about writing code—it is about learning how to think systematically, analyze problems, and design efficient solutions. Every software application, search engine, artificial intelligence system, mobile app, and operating system is built upon algorithms. This course will teach you how to think like a computer scientist before writing a single line of code.

Whether you are a complete beginner, a university student, an aspiring software engineer, or someone preparing for technical interviews, this course provides a clear, intuitive, and practical introduction to algorithmic thinking.

Throughout the course, you will learn how algorithms are designed, analyzed, verified, and optimized using visual explanations, real-world examples, interactive demonstrations, and step-by-step illustrations. Rather than focusing on programming language syntax, the course emphasizes the underlying logic that applies universally across Python, Java, C++, JavaScript, and other programming languages.

You will begin by understanding the fundamentals of computational thinking and algorithm design. From there, you will explore algorithm correctness, learn how to verify solutions using preconditions, postconditions, loop invariants, and mathematical induction, and discover why correctness is essential in building reliable software systems.

The course then introduces algorithm analysis, including time complexity, asymptotic notation, scalability, and the practical importance of best-case, average-case, and worst-case performance. You will learn how to compare algorithms objectively and choose the most efficient solution for different problem scenarios.

Next, you will explore fundamental algorithm design paradigms, including brute force, divide and conquer, greedy algorithms, dynamic programming, backtracking, and recursion. These powerful strategies provide the building blocks for solving increasingly complex computational problems.

You will also study essential searching and sorting algorithms, understand how they work through intuitive visualizations, and analyze their efficiency and practical applications. By examining algorithms step by step, you will develop the ability to reason about algorithm behavior rather than simply memorizing implementation details.

Throughout the course, every concept is connected to real-world applications in software engineering, artificial intelligence, data science, cybersecurity, cloud computing, databases, and large-scale information systems. This practical perspective helps you understand not only how algorithms work but also why they are essential in modern computing.

By the end of this course, you will be able to:

  • Think algorithmically and solve computational problems systematically.

  • Design efficient algorithms using proven problem-solving techniques.

  • Analyze algorithm performance using Big-O, Big-Theta, and Big-Omega notations.

  • Compare different algorithms based on efficiency, scalability, and resource usage.

  • Understand algorithm correctness and formal verification techniques.

  • Apply algorithm design paradigms to solve real-world problems.

  • Evaluate searching and sorting algorithms for different applications.

  • Build a strong foundation for advanced topics such as data structures, graph algorithms, machine learning, artificial intelligence, competitive programming, and technical interviews.

This course is designed to make algorithms accessible to everyone through engaging explanations, practical examples, visual demonstrations, and carefully structured lessons. No prior programming experience is required—only curiosity, logical thinking, and a willingness to learn.

Whether your goal is to excel in computer science, become a software developer, prepare for coding interviews, or simply strengthen your problem-solving skills, this course will provide the knowledge and confidence you need to succeed.

Join this course and begin your journey toward mastering the principles of algorithm design, computational thinking, and efficient problem solving—the essential skills behind every great software system.

Who this course is for:

  • Undergraduate and postgraduate students in Computer Science, Information Technology, Artificial Intelligence, Data Science, Software Engineering, and related disciplines who want to strengthen their understanding of algorithm design and analysis.