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Design and Analysis of Algorithm
Rating: 4.5 out of 5(4 ratings)
11 students

Design and Analysis of Algorithm

Master algorithm design, time complexity, dynamic programming, greedy methods, and graph algorithms with real-world exam
Last updated 11/2025
English

What you'll learn

  • Analyze the time and space complexity of any algorithm using Big-O, Big-Θ, Big-Ω, recurrence relations, and asymptotic techniques.
  • Design and implement efficient algorithms using divide-and-conquer, greedy strategy, dynamic programming, and graph-based methods.
  • Evaluate algorithm correctness and performance, compare multiple algorithmic solutions, and choose optimal approaches for real-world problems.
  • Solve complex computational problems using shortest paths, minimum spanning trees, string algorithms, and optimization strategies including NP-complete insights

Included in This Course

97 questions
  • DAA_Practice_Test_148 questions
  • DAA_Practice_Test_249 questions

Description

Efficient algorithms are the foundation of modern software engineering, competitive programming, and technical interviews.
But most learners get lost between theory-heavy books and code-heavy tutorials that skip the core logic.

This course solves that problem through a balanced, practical, and structured approach to algorithm design and analysis.

Whether you're a Computer Science student, a software developer preparing for interviews, or a beginner who wants to strengthen core problem-solving skills — this course will take you from basics to mastery with clarity.

What You Will Learn

In this comprehensive course, you will:

  • Understand asymptotic notations (Big-O, Big-Theta, Big-Omega) and compute complexity for any algorithm.

  • Solve recurrence relations using the Master Theorem, substitution, and recursion tree methods.

  • Design efficient algorithms using
    Divide & Conquer, Dynamic Programming, Greedy Techniques, and Graph Algorithms.

  • Implement classical algorithms like
    Merge Sort, Quick Sort, Binary Search, Dijkstra, Bellman-Ford, BFS, DFS, MST (Prim & Kruskal), and DP patterns.

  • Compare multiple approaches and choose the most optimal one.

  • Understand algorithm correctness, optimization, and problem constraints.

  • Explore advanced topics such as
    NP-Completeness, reductions, approximation, and randomized algorithms.

You will also get hands-on experience with quizzes, coding exercises, and a structured capstone project.

Why This Course is Different

Unlike typical theory-only lectures, this course focuses on:

Clarity

Complex topics explained in simple language with intuitive visuals and step-by-step reasoning.

Real-world relevance

Each module includes coding demos, practical scenarios, and problem variations used in interviews and competitive exams.

Balanced approach

We cover both fundamental theory and practical coding, making you confident in interviews, exams, and real-life applications.

Logical progression

Concepts build upon each other—starting from basics, moving to intermediate techniques, and ending with advanced algorithmic thinking.

Course Structure

This course is divided into clear, easy-to-follow modules:

Module 1: Introduction & Mathematical Foundations

Asymptotic analysis, notations, functions, recurrence basics.

Module 2: Fundamental Data Structures

Arrays, lists, stacks, queues, hashing—essential for algorithmic thinking.

Module 3: Divide and Conquer Algorithms

Merge Sort, Quick Sort, Binary Search, recurrence relations.

Module 4 & 5: Dynamic Programming (Beginner to Advanced)

Optimization, overlapping subproblems, Knapsack, LIS, DP on strings and trees.

Module 6: Greedy Strategy

Activity selection, interval scheduling, Huffman coding, matroid intuition.

Modules 7–10: Graph Algorithms

BFS, DFS, topological sort, shortest paths (Dijkstra, Bellman-Ford), MST, Union-Find, flows.

Module 11: Complexity Theory

P vs NP, NP-complete problems, reductions, decision vs optimization.

Module 12: Advanced Topics

Approximation algorithms, randomization, amortized analysis, heuristics.

Each module includes:

  • Crystal-clear video lectures

  • Concept reinforcement quizzes

  • Coding exercises

  • Practical examples

  • Summary notes

Who This Course Is For

  • Computer Science students who want strong algorithm foundations

  • Software developers preparing for placements or technical interviews

  • Competitive programmers who want to master DP, greedy, graphs, and complexity

  • BTech/MTech researchers working on algorithmic or optimization topics

  • Anyone with basic coding knowledge who wants to level up problem-solving skills

No advanced background is required — the course starts from essential basics.

Tools You Need

Just:

  • Any coding language (Python, C++, or Java recommended)

  • A laptop with a code editor (VS Code, PyCharm, or any IDE)

  • Basic understanding of loops, functions, and arrays

Nothing else is required — the course includes all theory primers.

What Makes This Course Worth Your Time

  • Taught with industry clarity and academic depth

  • Structured from beginner to advanced

  • Covers everything essential for placements, interviews, competitive exams, and projects

  • Includes practice problems and real examples

  • You build true algorithmic thinking that stays for life

Whether your goal is to score higher in university exams, crack tough coding interviews, or become a better programmer — this course gives you the foundation and confidence you need.

After Completing This Course

You will be able to:

  • Analyze and compare algorithms like a professional

  • Design optimal solutions to complex problems

  • Tackle interview-level algorithmic challenges

  • Read, understand, and critique algorithmic research

  • Build high-performance software with confidence

Ready to begin your journey toward mastering algorithms?

Enroll now and start transforming the way you think, code, and solve problems.

Who this course is for:

  • Computer Science students who want a strong foundation in algorithms for university exams and academic understanding. Software developers and programmers looking to improve their problem-solving skills, optimize their code, and prepare for technical interviews. Competitive programmers who want to master time complexity, dynamic programming, greedy techniques, and graph algorithms. Aspiring researchers or learners interested in algorithm design, computational complexity, and advanced problem-solving methods. Beginners with basic coding knowledge who want to move from writing simple programs to designing efficient, real-world algorithms.