Print Email Facebook Twitter Compensating parasitic motions and cross-couplings in compliant mechanisms Title Compensating parasitic motions and cross-couplings in compliant mechanisms: The development of a new compensation strategy to diminish unwanted motions Author Meinders, Naut (TU Delft Mechanical, Maritime and Materials Engineering) Contributor Yasir, A. (mentor) Herder, J.L. (mentor) van der Wijk, V. (graduation committee) Langelaar, M. (graduation committee) Degree granting institution Delft University of Technology Programme Mechanical Engineering | Mechatronic System Design (MSD) Date 2021-10-14 Abstract There is a constant drive to make the next generation machines in the semiconductor industry more precise and faster. For this machines with a high repeatability, good dynamics and long lifetime are needed. Compliant mechanisms are suitable candidates to be used in this kind of machines because they can be manufactured monolithically, don’t wear out over time and do not suffer from backlash which makes them ideal for precision mechanisms. However, in these machines parasitic motions and cross-axis couplings are present. These unwanted motions reduce the precision and increases the control complexity respectively.Strategies presented in literature to compensate for unwanted motions are summarized in the first part of this report. These strategies are evaluated and by combining two promising strategies a new compensation strategy is proposed. The second part of this report focusses on this new strategy. Using this new strategy a constant stiffness linear joint, a near zero parasitic motion translational guide with well constraint uncontrollable masses and a decoupled 2-DoF mechanism are synthesized. All these case studies needed to have a large range of motion because many effective strategies for small range of motion mechanisms are available in literature. Subject Parasitic motionCross-couplingControlled stiffnessControlled dynamicsShape optimizationCompliant mechanism To reference this document use: http://resolver.tudelft.nl/uuid:f501aae9-e295-4f01-a35e-81a221d31077 Embargo date 2022-10-14 Part of collection Student theses Document type master thesis Rights © 2021 Naut Meinders Files PDF Thesis_Naut_Meinders.pdf 7.23 MB Close viewer /islandora/object/uuid:f501aae9-e295-4f01-a35e-81a221d31077/datastream/OBJ/view