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Centered around a project where teams (1 to 2 students per team) create and program a visually-guided autonomous quadrotor robot, this class focuses on advanced embedded control of an electromechanical system. Topics include mechanical/electrical assembly, programming interfaces between an embedded computer (such as a Raspberry PI running Linux) and external sensors/actuators (such as an IMU, camera, or motor controllers), programming and tuning a timing-critical control loop for stable flight, using pre-existing computer vision software for tracking optical targets, and creating a software stack that interacts with low-level code to create a desired high level behavior.
























Programs Accredited by Govt. Bodies
Centered around a project where teams (1 to 2 students per team) create and program a visually-guided autonomous quadrotor robot, this class focuses on advanced embedded control of an electromechanical system. Topics include mechanical/electrical assembly, programming interfaces between an embedded computer (such as a Raspberry PI running Linux) and external sensors/actuators (such as an IMU, camera, or motor controllers), programming and tuning a timing-critical control loop for stable flight, using pre-existing computer vision software for tracking optical targets, and creating a software stack that interacts with low-level code to create a desired high level behavior. The simple four rotor design of quadrotors is easy to work with and modify, allowing engineers to find better applications each day. This workshop introduces participants to the technologies involved in Unmanned Aerial Vehicles and the techniques involved in making a working Quadrotor. Students practically understand the overall design, configuration and testing of the Quadrotor project.