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Abstract(s)
This paper addresses the problem of modelling and control of biped robot by combining Cartesian-based position and force control algorithms. The complete walking cycle is divided in two phases: i) single support - in which it is studied the trajectory controllability based on simple motion goals and ii) exchange of support - in which the foward leg absorbs the impact and then gradually accept the robot's weight. The control of the foot with the constrained surface is modelled through linear spring-damper systems. The system's controllability is enhanced through the insertion of a dynamic selection matrix that modifies the actuating profile in each phasse. The control algorithms are simulated and their effectiveness and robustness are discussed.
Description
Keywords
Legged locomotion Motion control Gait analysis Position control Force control
Citation
Publisher
Institute of Electrical and Electronics Engineers