The robot can only move either down or right at any point in time. Given the two integers m and n, return the number of possible unique paths that the robot can take to reach the bottom-right …

The objective is to figure out whether it is possible to start from the source cell and reach the target cell by moving one cell at a time in any of the four cardinal directions (north, east, south, …

For each of the given mazes, write the shortest and most elegant code to help the robot escape. Use only these four custom Motion blocks (along with whatever Control blocks you need):

The maze solving robot — also known as a micro mouse — is designed to find a path without any assistance or help. As a type of autonomous robot, it has to decode the path on its own to …

(First Pass): The robot finds its way out from a "non-known perfect maze". Does not matter where you put it inside the maze, it will find a "solution". (Second Pass): Once the robot found a …

The Arduino Maze Solver Robot is a project aimed at creating an autonomous robot capable of navigating through a maze using an ultrasonic sensor and the right-hand rule algorithm.

In this project you will practice using inheritance by implementing several different kinds of virtual robots that navigate around a maze according to different sets of rules. We will use the ideas …

Maze Solving Robot Code for Arduino that uses the Adafruit Motor Shield and IR sensors to autonomously navigate through a maze. Features include modular movement functions, …

Unique Paths takes only the two integers m and n as input, representing the dimensions of a grid with m rows and n columns. The goal is to calculate the number of paths that a robot could …

Escape a Large Maze - There is a 1 million by 1 million grid on an XY-plane, and the coordinates of each grid square are (x, y). We start at the source = [sx, sy] square and want to reach the …