FP7Staff exchange2010–2014

MUSCLEUP · Towards an Interface for Detailed Musculoskeletal Models

FP7 — People (Marie Curie Actions)

Duration
2010-06-01 → 2014-05-31
EU contribution
€93,600
Participants
2
Scheme
MC-IRSES

Lines connect the coordinator with its partners.

Results in brief

MuscleUp - Towards an Interface for Detailed Musculoskeletal Models

Publishable summary Marie Curie International Research Staff Exchange Scheme grant under Call FP7-PEOPLE-2009-IRSES (Project# 246994): MuscleUp - Towards an Interface for Detailed Musculoskeletal Models Partners: 1) University of Stuttgart, Germany 2) University of Leeds, UK 3) Queensland University of Technology (QUT), Australia 4) University of Auckland, New Zealand Funding Period: 48 months (June 1, 2010 - May 31, 2014) Project Coordinator: Prof. Oliver Röhrle, PhD Faculty of Civil and Environmental Engineering Cluster of Excellence for Simulation Technology University of Stuttgart, Germany Website: https://opencms.uni-stuttgart.de/fak2/mib/km/cbam/research/muscleup/index.html Synopsis of the Project Objectives: The common ground of all participants of this IRSES MuscleUp network is the use and need of biomechanically realistic computational models of parts of the musculoskeletal system. Depending on the interest of the research, the existing models focus on specific components of a musculoskeletal system, e.g. skeletal muscle, bone, cartilage, implants, however comprehensive and more complex models are missing, e.g. a model of the spine that includes vertebrae, intervertebral disc, the ligaments and the back muscles. In addition to the geometrical models, researchers also often face the challenge of choosing the proper constitutive laws or to properly prescribe physiological boundary (loading) conditions for particular pathological cases. The consortium brought together a team of researchers with distinctly different expertises and backgrounds while all being interested in computational models. Together, the consortium has a wide range of expertise such as software engineering and development of computational platforms (mainly ABI), constitutive modelling of soft and hard tissues (mainly SimTech), knowledge and motivation derived from clinical applications (IHBI, QUT), and experimental and instrumentation for validation (Leeds). The range of different expertise of the partners of this network and the breadth of the disciplines demonstrates the commitment to multi-disciplinary research. Overall achievement: Based on the MuscleUp workshops and the organised conference sessions, it was possible to bring together researchers and modellers from different backgrounds, e.g. researchers focusing on continuum mechanical models, researchers focusing on multi-body simulations, and researchers relying on these models to determine realistic dynamical loading behaviour, which are essential to investigate the morphology and physiology of musculoskeletal systems and as boundary conditions for in silico mechanical tests of implants. The intensive exchanges and effective discussions within researchers directly involved with MuscleUp as well as associated researchers beyond the MuscleUp concortium, have provided the basis for new research on coupling musculoskeletal systems (i.e. the skeleton) with realistic input from muscular contractions, This often requires the coulpling of 3D and 1D (continuum mechanics and multi-body) skeletal muscle models or on EMG-informed skeletal muscle models. The 3D continuum mechanical skeletal muscle modelling, the EMG-informed skeletal muscle modelling and the 1D and 3D coupling frameworks have provided the framework for three sessions at the World Congress at Biomechanics at Boston, USA. Based on these three sessions and the intensive discussions, new research projects have been generated. In addition to initiating new research directives, the MuscleUp-website for sharing different musculoskeletal models, in particular models involving the tongue, the spine, the upper limb and the pelvic floor has been developed. The key difference to other sites that might contain repositories is the fact that we have used and further developed computational tools to visualise the models in 3D within a web browser. After installing the Zinc Plugin, one can rotate the models, look at different details, get further information on constitutive laws and other relevant data such as publications.

Data: CORDIS, © European Union

Project objective

Computer simulations are an increasingly popular tool for investigating and enhancing our knowledge of the human body. They can provide valuable insights and provide in silico experiments to test hypotheses of complex biological relationships. Due to the inherent complexity of the structures and the highly-specialised area of expertise of the researcher/user, computational models are often reduced to the components that are essential to fulfil the least amount of assumptions such that their results can be interpreted and discussed within a specific context. The purpose of this proposal is to bring together researchers with complementary expertise to develop (i) detailed models of complex musculoskeletal systems (the ‘next generation models’) and (ii) a novel web interface to disseminate those models. The improvement of models existing in research groups participating in this proposal will include the spine, hip, pelvic floor, and the tongue. A special focus will be on the inclusion of 3D soft tissue structures, e.g. skeletal muscles, and their material descriptions. The aim of the interface is to provide easy access to such near-complete descriptions of complex models. The interface is guided by the development of the models and will appeal to similar concepts as standard web pages and the ability to include 3D scenes of models. This can only be achieved through an international network of well-established research groups with expertise in material science, computational science, software design, whole organ modelling, modelling biotribological systems, clinical contacts, biomechanics, sports science, etc. The network includes the Cluster of Excellence for Simulation Technology, SimTech (University of Stuttgart, Germany), the Institute of Medical and Biological Engineering (University of Leeds, UK), the Auckland Bioengineering Institute (University of Auckland, New Zealand), and the Medical Engineering Research Theme (Queensland University of Technology, Australia).

Original text from CORDIS.

Participants

Links

Data: CORDIS, © European Union