Optimization based muscle wrapping in biomechanical multibody simulations

Conference contribution
(Conference Contribution)


Publication Details

Author(s): Penner J, Leyendecker S
Publication year: 2018
Conference Proceedings Title: PAMM
Language: English


Abstract

In musculoskeletal simulations muscle lengths and muscle force directions imply the characteristics of muscles acting around joints. Typically, the anatomical structure of the human body forces muscles to wrap around bones and neighboring tissue, thus most muscle paths cannot be represented adequately as straight lines. Therefore, biomechanical simulations require methods to compute musculotendon paths, their lengths, and their rates of length change to determine the muscle forces. This work focuses on a mechanical analogue to find the shortest path on general smooth surfaces, using a discrete variational principle. In this context, the geodesic path is reinterpreted as the constrained, force-free motion of a particle in n dimensions. The muscle path is then a G1-continuous combination of geodesics on adjacent obstacle surfaces.


FAU Authors / FAU Editors

Leyendecker, Sigrid Prof. Dr.-Ing.
Chair of Applied Dynamics
Penner, Johann
Chair of Applied Dynamics


Research Fields

biomechanics
Chair of Applied Dynamics
structure preserving simulation and optimal control
Chair of Applied Dynamics
Modellierung/Simulation/Optimierung
Research focus area of a faculty: Technische Fakultät


How to cite

APA:
Penner, J., & Leyendecker, S. (2018). Optimization based muscle wrapping in biomechanical multibody simulations. In PAMM. München, DE.

MLA:
Penner, Johann, and Sigrid Leyendecker. "Optimization based muscle wrapping in biomechanical multibody simulations." Proceedings of the GAMM Annual Meeting, München 2018.

BibTeX: 

Last updated on 2019-16-08 at 17:10