
The design of an admittance control law for reliable force-guided assembly is addressed. The overall objective is to design the manipulator's mechanical performance so that, at each possible bounded part misalignment, the contact force always leads to a motion that alleviates the misalignment. The implementation of such an approach using a single nominal velocity and a single admittance function is referred to as force-assembly. Previous work addressing force-assembly of a workpiece into a fixture has shown that when workpiece/fixture contact is frictionless there always exists an admittance control law that ensures the proper insertion of a workpiece into a deterministic future. The authors discuss the identification of the condition that must be satisfied for force-assembly with friction and the optimization of the admittance control law to obtain the maximum value of friction that satisfies the force-assembly conditions for a given workpiece-fixture combination. >
670, Fixtures, Friction, Assembly, Robust control, Mechanical factors, Force control, Mechanical engineering, Manipulators, Admittance, Motion control
670, Fixtures, Friction, Assembly, Robust control, Mechanical factors, Force control, Mechanical engineering, Manipulators, Admittance, Motion control
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