Sorting Algorithms Studio
Compare Bubble, Selection, Insertion, Merge, Quick, and Heap sorts with live comparison and swap telemetry.
O(N log N) / O(N²)Explore step-by-step visualizers for sorting algorithms, stacks, queues, linked lists, and graph pathfinding with real-time Big-O analysis.
Compare Bubble, Selection, Insertion, Merge, Quick, and Heap sorts with live comparison and swap telemetry.
O(N log N) / O(N²)Simulate Push, Pop, Peek, and overflow/underflow checks on a dynamic Last-In First-Out linear stack.
Top Pointer, O(1) OperationsExplore Enqueue and Dequeue operations on linear and circular queues with Front and Rear pointer tracking.
Front & Rear, O(1) AmortizedTrace Singly, Doubly, and Circular Linked Lists with interactive node insertions, deletions, and pointer reversals.
Node(Data, Next, Prev)Visualize Breadth-First Search (BFS), Depth-First Search (DFS), Dijkstra shortest path, and Prim/Kruskal MST.
G = (V, E), O(V + E log V)Simulate A*, Dijkstra, and Greedy BFS on custom obstacle grids with weighted mud/swamp terrain and procedural mazes.
f(n) = g(n) + h(n)Step backwards and forwards through algorithms to understand subtle pointer swaps and recursion trees.
Track exact comparison counts and array access metrics compared against theoretical Big-O upper bounds.
Directly aligned with CBSE CS Class 12, AP Computer Science A, and university CS101/CS102 syllabi.
Follow this standardized experimental methodology to configure parameters, simulate processes, and record scientific telemetry.
Choose from sorting algorithms, linear structures (stack, queue, linked list), or non-linear graph traversals.
Enter custom integer arrays, linked list sequences, or weighted graph matrices, or choose preset edge cases.
Use play, pause, step forward, and step backward controls to observe pointer updates, swaps, and call stacks.
Inspect active comparison counts, array access operations, memory allocations, and theoretical Big-O curves.
Information-theoretic limits and pointer state machines evaluated in real time.
Our interactive DSA laboratory adheres to CBSE Computer Science Class 12 (Data Structures with Python), AP Computer Science A (Arrays, ArrayLists, Searching & Sorting), and ABET accredited undergraduate computing curricula.
Visualizing memory pointer updates and recursive call stacks replaces abstract whiteboard lectures with immediate tactile intuition.
Inspect comparisons, swaps, heap memory pointers, and recursion stack depth in real time.
Technical and curriculum details about data structures & algorithms.
Merge Sort guarantees a balanced divide-and-conquer split regardless of input order, maintaining O(N log N) worst-case time. Quick Sort's performance depends on pivot choice; poor pivots (e.g. sorted array with first element pivot) result in unbalanced partitions and O(N²) quadratic time.
Yes. All DSA modules allow custom numeric array inputs (including reverse sorted, duplicates, and negative values) and custom graph node adjacency matrices.
Recursive algorithms (Quick Sort, Merge Sort, DFS) render an active call stack pane showing local variables, recursion frame depth, and return unwinding.
Yes. All algorithm visualizers and data structure sandboxes are 100% free and open for educational and interview preparation use.