Mobile: Use the on-screen D-pad or swipe toward where you want to move through the corridors.
Maze Runner generates a brand new random maze every time you play. Using a depth-first search algorithm, each maze is guaranteed to have exactly one solution path from start to finish. Navigate your character (blue dot) from the top-left corner to the green exit in the bottom-right. The game tracks your moves and time, challenging you to find the most efficient path. Mazes get larger and more complex as you advance through levels. This game exercises spatial reasoning, planning ability, and patience - skills that transfer to real-world navigation and problem-solving.
Use Arrow Keys or WASD to move through the maze. On mobile, use the on-screen directional buttons. Reach the green square to complete the level. Each level generates a new, larger maze!
The 'wall follower' technique (always keeping your right or left hand touching a wall) will eventually solve any maze, though not optimally. Look ahead for dead ends before committing to a path. Try to build a mental map of areas you have already explored.
Love puzzles? Try Tic Tac Toe for strategy, or Number Memory for a different kind of challenge.
Maze Runner generates unique, solvable mazes using procedural algorithms, providing an infinite supply of fresh puzzles. Maze solving is one of humanity's oldest cognitive challenges — from the mythical Labyrinth of Crete to modern puzzle books. Our implementation uses depth-first search with randomized backtracking to generate 'perfect mazes' (mazes with exactly one solution path and no loops), ensuring every puzzle is both solvable and satisfyingly complex. The random generation means you'll never encounter the same maze twice, providing endless replay value. This game exercises spatial reasoning, path planning, and working memory as you mentally track explored routes and dead ends.
Mazes have fascinated humans for over 4,000 years. The earliest known labyrinth design appears in ancient Egypt (~1800 BCE), followed by the Greek myth of the Minotaur's labyrinth designed by Daedalus. Garden mazes became popular in Renaissance Europe, with Hampton Court Palace's famous hedge maze (1690) still operating today. In mathematics, maze solving became a formal study with Leonhard Euler's work on graph theory (1736) and later with algorithms like Tremaux's algorithm (1882) and wall-following methods. In computer science, maze generation and solving are fundamental exercises in algorithm design, teaching concepts like recursion, backtracking, graph traversal, and pathfinding.
Desktop: Use arrow keys (Up, Down, Left, Right) to navigate through the maze. Mobile: Use the on-screen D-pad or swipe in the direction you want to move. Objective: Navigate from the green start position to the red exit. Generation: Each maze is procedurally generated when you start a new game, ensuring a unique challenge every time. New Maze: Click 'New Maze' at any time to generate a fresh puzzle. Walls: You cannot pass through walls (dark squares). You can only move through open corridors (light squares).
Right-Hand Rule: Place your virtual 'right hand' on the wall and keep following it. This simple algorithm is guaranteed to solve any simply-connected maze (no isolated loops), though it won't always find the shortest path. Dead-End Recognition: Mark dead ends mentally. Once you hit a dead end, backtrack to the last intersection and try a different direction. Remembering dead ends prevents revisiting them. General Direction: Keep the exit's general direction in mind. When you have a choice at an intersection, prefer paths leading toward the exit over paths leading away from it. Section Solving: For large mazes, divide the space into quadrants and solve each section, connecting your path across section boundaries. Longest Corridors: Long, straight corridors often form part of the solution path. When you find one running in the exit's direction, follow it.
Spatial navigation engages the hippocampus — the brain's internal GPS system. Neuroscientist John O'Keefe won the 2014 Nobel Prize for discovering 'place cells' in the hippocampus that fire when we're in specific locations, creating mental maps. Regular practice with spatial navigation tasks (like maze solving) has been shown to increase hippocampal volume and improve spatial memory. London taxi drivers, who navigate complex street layouts daily, have measurably larger hippocampi than bus drivers who follow fixed routes. Our maze game provides similar spatial navigation training in a convenient, repeatable format.
Every maze is generated fresh using a depth-first search with randomized backtracking — this produces a 'perfect maze,' meaning exactly one path between any two points, no loops, no isolated sections. I recursively carve passages from a grid of walls, randomly choosing unvisited neighbors and backtracking at dead ends. That's why you never see the same maze twice. Rendering is just filled rectangles for walls and open cells. The green start and red exit are placed at opposite corners for maximum challenge.