
Abstract This paper describes the use of topology optimization as a synthesis tool for the design of large-displacement compliant mechanisms. An objective function for the synthesis of large-displacement mechanisms is proposed together with a formulation for synthesis of path-generating compliant mechanisms. The responses of the compliant mechanisms are modelled using a Total Lagrangian finite element formulation, the sensitivity analysis is performed using the adjoint method and the optimization problem is solved using the Method of Moving Asymptotes. Procedures to circumvent some numerical problems are discussed.
Robot dynamics and control of rigid bodies, synthesis of path-generating compliant mechanisms, Topological methods for optimization problems in solid mechanics, Finite element methods applied to problems in solid mechanics, sensitivity analysis, synthesis of large-displacement mechanisms, method of moving asymptotes, total Lagrangian finite element, adjoint method, topology optimization
Robot dynamics and control of rigid bodies, synthesis of path-generating compliant mechanisms, Topological methods for optimization problems in solid mechanics, Finite element methods applied to problems in solid mechanics, sensitivity analysis, synthesis of large-displacement mechanisms, method of moving asymptotes, total Lagrangian finite element, adjoint method, topology optimization
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