
An algorithm to improve the accuracy and stability of rigid-body contact force calculation is presented. The algorithm uses a combination of analytic solutions and numerical methods to solve a spring-damper differential equation typical of a contact model. The solution method employs the recently proposed patch method, which especially suits the spring-damper differential equations. The resulting semi-analytic solution reduces the stiffness of the differential equations, while performing faster than conventional alternatives
mechsnical contact, deformable differential equation, vibration control, Algorithm design and analysis, force control, humanoid robots, stability, shock absorbers, springs (mechanical), robot kinematics
mechsnical contact, deformable differential equation, vibration control, Algorithm design and analysis, force control, humanoid robots, stability, shock absorbers, springs (mechanical), robot kinematics
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