LAB 9 Robot Arm Path Planning TAS: Kedar Amladi & Margaret Toebes.

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Presentation transcript:

LAB 9 Robot Arm Path Planning TAS: Kedar Amladi & Margaret Toebes

Goal Build a two link RR robot arm and demonstrate inverse kinematics and path planning by safely navigating a known workspace.

The Arm The arm should have a stable base that doesn't slide around during the demo Please attach something to the end effector so we can make measurements

Playing Field Each block is ½ of an inch

Demo On demo day, you will be given two (x,y) positions A and B. Your robot must navigate from the reference configuration ->A -> B -> A Your arm should come to a complete stop at each position, and should not continue until its position is recorded by the grader. If your robot arm touches the obstacle or leaves the workspace, your current try ends.

How To (suggestion) Map out your robot’s configuration space. Write a function that will perform inverse kinematic calculations to convert your robot’s position into a set of joint angles. Follow steps similar to lab 5 by using a set of waypoints that span the space.

Tips Make your robot arm as rigid as possible, and gear down the arm motors to increase precision. Remember to check all configurations generated by inverse kinematics. It is not necessary that all configurations will be reachable under the constraints of the obstacle.

Demo Grading Grade will be best of three tries A run is worth a total of 65 points: Distance off from A (<.25in, <.50in) – (10,5) points Distance off from B (<.25in, <.50in) – (25,10) points Distance off from A (<.25in, <.50in) – (30,20) points Distances are calculated using L2 metric. Runs end when arm hits obstacle or leaves workspace.

Demo Day Next Tuesday: April 22 nd