
Trace how a create table and subsequent insert move through lock, prepare, tokenization, parsing, vdbe, and b-tree with pager and journal during a write transaction.
Explore how to build and run parallel chains using runnable parallel, create prompts, and apply conditional routing to manage non-deterministic chains in an algorithmic workflow.
Master the fundamentals of Data Structures and Algorithms (DSA) using three of the most widely used programming languages—Python, C++, and Java. This comprehensive course is designed for beginners, students, aspiring software engineers, and professionals who want to build strong problem-solving skills and excel in technical interviews, competitive programming, and software development.
The course starts with programming fundamentals and gradually introduces the core concepts of data structures, including arrays, strings, linked lists, stacks, queues, hash tables, trees, heaps, graphs, and advanced data structures. Learners will understand how these structures are implemented, how they work internally, and when to use them to solve real-world problems efficiently.
You will then dive deep into algorithm design and analysis, covering topics such as searching, sorting, recursion, backtracking, greedy algorithms, divide-and-conquer techniques, graph algorithms, and dynamic programming. Special emphasis is placed on understanding time and space complexity, enabling learners to write optimized and scalable code.
Throughout the course, every concept is demonstrated and implemented in Python, C++, and Java, allowing students to gain practical experience across multiple programming languages. Learners will solve numerous coding challenges and interview-style problems that strengthen logical thinking, coding efficiency, and algorithmic problem-solving abilities.
The curriculum also includes extensive practice with common coding interview patterns such as sliding window, two pointers, binary search, depth-first search (DFS), breadth-first search (BFS), recursion, dynamic programming, graph traversal, and more. Real-world examples and hands-on exercises help students understand how data structures and algorithms are applied in modern software systems.
By the end of this course, You will be able to confidently design efficient algorithms, implement complex data structures, analyze code performance, and solve challenging programming problems. Whether your goal is to crack coding interviews, improve your competitive programming skills, or become a better software developer, this course provides the strong foundation and practical experience needed to succeed.