Projects per year
Organization profile
Organisation profile
Musculoskeletal modelling in the AnyBody Research Group.
The group's activities are rooted in a deep competence in computational mechanics applied to biological systems. The work is centred on developing methods for musculoskeletal modelling, which has led to the development of the AnyBody Modeling System and its associated repository of musculoskeletal models. In addition, the group works with solid mechanics problems in hard and soft tissues. The group has close links to the Department of Health Science and Technology.
Typical applications of the group's work are within health science, sports, rehabilitation, product design and ergonomics, and examples are planning of orthopaedic surgery, prevention of pressure ulcers, design of badminton rackets, analysis of movement techniques in football kicking, design of wheelchairs, analysis of fatigue in car drivers and design of work places.
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Network
Profiles
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Michael Skipper Andersen
- The Faculty of Engineering and Science - Associate Professor
- Department of Materials and Production - Associate Professor
- Physics and Mechanics - Associate Professor
- Biomechanics - Associate Professor
Person: VIP
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Hannah Fabro
- The Faculty of Engineering and Science - Guest PhD student
- Department of Materials and Production - Guest PhD student
- Physics and Mechanics - Guest PhD student
- Biomechanics - Guest PhD student
Person: External
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Simon Spanggaard Kristoffersen
- The Faculty of Engineering and Science - Visiting Researcher
- Department of Materials and Production - Visiting Researcher
- Physics and Mechanics - Visiting Researcher
- Biomechanics - Visiting Researcher
Person: External
Projects
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Total Knee Arthroplasty Implants Optimized for Post-operative Stability
Andersen, M. S., Andersen, M. S. & Ludvigsen, K. K.
Independent Research Fund Denmark
01/07/2020 → 30/06/2023
Project: Research
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Accurate robotic 3D knee joint laxity - novel technology to assess knee injuries and plan surgeries
Andersen, M. S., Ludvigsen, K. K. & Andersen, M. S.
01/06/2020 → 31/05/2021
Project: Research
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Research output
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A forward dynamics methodology to study nonlinear dynamics and wear of total knee arthroplasties
Renani, E. A. & Andersen, M. S., 2021, (Accepted/In press).Research output: Contribution to conference without publisher/journal › Conference abstract for conference › Research › peer-review
Open AccessFile -
A methodology to evaluate the effects of kinematic measurement uncertainties on knee ligament properties estimated from laxity measurements
Andersen, M. S., Dzialo, C. M., Marra, M. & Pedersen, D., 2021, (Accepted/In press) In: Journal of Biomechanical Engineering.Research output: Contribution to journal › Journal article › Research › peer-review
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Estimation of ground reaction forces during stair climbing in patients with ACL reconstruction using a depth sensor-driven musculoskeletal model
Oh, J., Kuenze, C., Signorile, J. F., Andersen, M. S., Letter, M., Best, T. M., Ripic, Z., Emerson, C. & Eltoukhy, M., Feb 2021, In: Gait & Posture. 84, p. 232-237 6 p.Research output: Contribution to journal › Journal article › Research › peer-review
Prizes
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Wearable Robotics Association's 2018 Innovation Challenge Grand Prize Winner (WearRAcon18)
Castro, Miguel Nobre (Recipient), Rasmussen, John (Recipient), Andersen, Michael Skipper (Recipient) & Bai, Shaoping (Recipient), 22 Mar 2018
Prize: Research, education and innovation prizes
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Mimics Innovation Award - Second Prize EMEA Region
Halonen, K. (Recipient), Dzialo, C. M. (Recipient), Mannisi, M. (Recipient), Venäläinen, M. (Recipient), de Zee, Mark (Recipient) & Andersen, Michael Skipper (Recipient), 2018
Prize: Research, education and innovation prizes
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Winner of Fifth Grand Challenge Competition to Predict In Vivo Knee Loads
Andersen, Michael Skipper (Recipient), Marra, M. (Recipient), Vanheule, V. (Recipient), Fluit, R. (Recipient), Verdonschot, N. (Recipient) & Rasmussen, John (Recipient), 2014
Prize: Other prizes
Activities
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How Internal Knee Compressive Forces are Most Effectively Reduced by Applied Hip, Knee and Ankle Joint Moments
Jonas Steensgaard Stoltze (Lecturer), John Rasmussen (Lecturer) & Michael Skipper Andersen (Lecturer)
24 Jul 2017Activity: Talks and presentations › Conference presentations
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On the biomechanical relationship between external hip, knee and ankle joint moments and the internal knee compressive forces
Jonas Steensgaard Stoltze (Lecturer), John Rasmussen (Lecturer) & Michael Skipper Andersen (Lecturer)
11 May 2017Activity: Talks and presentations › Conference presentations
File -
8th Annual meeting of Danish Biomechanical Society
Jonas Steensgaard Stoltze (Speaker)
7 Oct 2016Activity: Talks and presentations › Conference presentations
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