Bipedal, four-legged and humanoid robots are rapidly increasing in our lives. The design and development of robots continue in similar. For this reason, the importance of studies on bipedal robots is also increasing. In this study, the design of a biped robot, forward and inverse kinematics computation were made. Bipedal robot walking pattern and joint angle changes were determined according to the kinematic model of the robot and the power of the motors to rotate the joints. As a result of the walking pattern, center of mass and zero moment point change were tracked. As a result of the study, the stepping style, walking motion, gait analysis, changes in joint angles were determined of a bipedal robot.
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