Title: Muscle interaction in the context of muscle deformation modelling by a Position Based Dynamics method
Other Titles: Muscle interaction in the context of muscle deformation modelling by a Position Based Dynamics method
Authors: Havlíček, Ondřej
Advisor: Kohout Josef, Doc. Ing. Ph.D.
Referee: Maňák Martin, Mgr. Ph.D.
Issue Date: 2024
Publisher: Západočeská univerzita v Plzni
Document type: diplomová práce
URI: http://hdl.handle.net/11025/57230
Keywords: extended position-based dynamics;musculoskeletal system;deformation;simulation;deformable bodies;muscle contraction modelling;deformable collision detection;collision detection and resolution;muscular synergy;c++
Keywords in different language: extended position-based dynamics;musculoskeletal system;deformation;simulation;deformable bodies;muscle contraction modelling;deformable collision detection;collision detection and resolution;muscular synergy;c++
Abstract: This thesis focuses on modelling intermuscular interactions in the context of muscle deformation using the Position Based Dynamics (PBD) method. The deformation method was extended to improve its consistency during simulation. Passive intermuscular interaction was introduced and implemented through a general deformable collision handling system. Additionally, a system for active muscle interaction was developed for the model, enabling physiologically accurate, motion-based, and synchronous muscle contractions during arbitrary movements. The results were rigorously verified against a similar method and evaluated for physiological accuracy, preservation of shape and volume, and muscle collision avoidance. The physiologically advanced model seems to hold a real-world application potential.
Abstract in different language: This thesis focuses on modelling intermuscular interactions in the context of muscle deformation using the Position Based Dynamics (PBD) method. The deformation method was extended to improve its consistency during simulation. Passive intermuscular interaction was introduced and implemented through a general deformable collision handling system. Additionally, a system for active muscle interaction was developed for the model, enabling physiologically accurate, motion-based, and synchronous muscle contractions during arbitrary movements. The results were rigorously verified against a similar method and evaluated for physiological accuracy, preservation of shape and volume, and muscle collision avoidance. The physiologically advanced model seems to hold a real-world application potential.
Rights: Plný text práce je přístupný bez omezení
Appears in Collections:Diplomové práce / Theses (KIV)

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A22N0002Phodnoceni-ved.pdfPosudek vedoucího práce198,09 kBAdobe PDFView/Open
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