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Friedrich-Alexander-Universität Lehrstuhl für Autonome Systeme und Mechatronik ASM
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  1. Friedrich-Alexander-Universität
  2. Technische Fakultät
  3. Department Elektrotechnik-Elektronik-Informationstechnik
Friedrich-Alexander-Universität Lehrstuhl für Autonome Systeme und Mechatronik ASM
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  2. Chair of Autonomous Systems and Mechatronics
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  4. Biomechanical Motion Analysis and Creation

Biomechanical Motion Analysis and Creation

In page navigation: Chair of Autonomous Systems and Mechatronics
  • Research
    • Components and Control
    • Interfaces and Interaction
    • Human-Machine-Centered Design Methods
    • Biomechanical Motion Analysis and Creation
      • Applications of Biomechanical Simulations
      • Biomechanical Assessment of Big Wave Surfing
      • Bridging the gap in ACL injury prevention with FAME: Field-based Athlete Motion Evaluation and simulation (FAME)
      • Digital Twin of the Musculoskeletal System
      • Fundamentals of Biomechanical Simulations
      • Individual Performance Prediction Using Musculoskeletal Modeling
      • Machine Learning for Personalisation of Biomechanical Movement Simulations (C01)
      • Personalization of Muscoskeletal Models
      • Videos

Biomechanical Motion Analysis and Creation

The Biomechanical motion analysis and creation (BioMAC) group aims to develop methods for accurate predictions and reconstructions of human motion, with a focus on gait. With our research, we aim to better understand human motion, and use this understanding to improve design of devices, such as prostheses, exoskeletons, and running shoes, as well as prevent injuries, such as knee osteoarthritis or ligament tears. To achieve our goals, we combine physics-models with machine learning methods to create accurate movement simulations. We use these to make predictions of new movements, e.g., when wearing a prosthesis or a specific running shoe, and to make reconstructions. Then, our aim is to create movement analyses from wearable sensor data that are as accurate as lab-based movement analysis methods. To create movement simulations, we replicate the optimization that the central nervous system performs when planning and executing movements digitally by solving optimal control problems. In an optimal control problem, we model the human body using a musculoskeletal model with multibody and muscle dynamics. We use an objective related to energy minimization and define the movement task using constraints.

 

Group Head

Anne Koelewijn

Prof. Dr. Anne Koelewijn

Room: Raum 00.022
  • Phone number: +49 9131 85-27921
  • Email: anne.koelewijn@fau.de

 

Group Members

Alexander Weiß

Alexander Weiß, M. Sc.

Chuyi Wang

Chuyi Wang, M. Sc.

Ilias Masmoudi

Ilias Masmoudi, M. Sc.

Maria Eleni Athanasiadou

Maria Eleni Athanasiadou, M. Sc.

Markus Gambietz

Markus Gambietz, M. Sc.

Namra Rauf

Namra Rauf, M. Sc.

 

Presentations and Videos

Presentations & Videos

 

Demo

This demo shows how the developed methods can be used to reconstruct measured movement but also to predict movements in response to environmental changes:

MaD Walker Demo

 

Projects

  • To the page:Machine Learning for Personalisation of Biomechanical Movement Simulations (C01)
    Machine Learning for Personalisation of Biomechanical Movement Simulations (C01)
  • To the page:Individual Performance Prediction Using Musculoskeletal Modeling
    Individual Performance Prediction Using Musculoskeletal Modeling
  • To the page:Digital Twin of the Musculoskeletal System
    Digital Twin of the Musculoskeletal System
  • To the page:Biomechanical Assessment of Big Wave Surfing
    Biomechanical Assessment of Big Wave Surfing
  • To the page:Bridging the gap in ACL injury prevention with FAME: Field-based Athlete Motion Evaluation and simulation (FAME)
    Bridging the gap in ACL injury prevention with FAME: Field-based Athlete Motion Evaluation and simulation (FAME)

In collaboration with the Machine Learning and Data Analytics (MAD) Lab:

Machine Learning for Neuromusculoskeletal Modelling (C03)

Past Projects

  • To the page:Fundamentals of Biomechanical Simulations
    Fundamentals of Biomechanical Simulations
  • To the page:Applications of Biomechanical Simulations
    Applications of Biomechanical Simulations
  • To the page:Personalization of Muscoskeletal Models
    Personalization of Muscoskeletal Models

 

Lehrstuhl für Autonome Systeme und Mechatronik
Friedrich-Alexander-Universität Erlangen-Nürnberg

Paul-Gordan-Strasse 3/5
91052 Erlangen
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