This video introduces the kinematically started deformation method, a method for the fast computation of statically deformed configurations of flexure mechanisms. Computing the deformation of a complex mechanism is up to 90 times faster than conventional methods.
Details can be found in:
Dwarshuis et al. 2020. “Kinematically started efficient position analysis of deformed compliant mechanisms utilizing data of standard joints”. In: Mechanism and Machine Theory. doi.org/10.1016/j.mechmachtheory.2020.103911
Dwarshuis et al. 2022. “Efficient computation of large deformation of spatial flexure based mechanisms in design optimizations”. In: Journal of Mechanisms and Robotics. doi.org/10.1115/1.4054730
Naves et al. 2021. “T-Flex: A fully flexure-based large range of motion precision hexapod”. In: Precision engineering. doi.org/10.1016/j.precisioneng.2021.08.015
This is the first of four recent improvements in flexure modelling that are part of the PhD research of Koen Dwarshuis at the Precision Engineering lab (Dannis Brouwer) at the University of Twente. Details can be found in the PhD thesis:
Dwarshuis, 2022. “Beam-based analysis of flexure mechanisms: Increasing computational efficiency, accuracy and design freedom” doi.org/10.3990/1.9789036554831
Research team:
Koen Dwarshuis, Ronald Aarts, Marcel Ellenbroek, Dannis Brouwer
Video by:
Koen Dwarshuis, Marijn Nijenhuis
Funding:
HTSM 2017, NWO (16210)
コメント