Our projects

London Lower Limb model

Musculoskeletal modelling

Knowledge of the internal loads acting on the human body during daily life movements has a wide range of applications, from clinical assessment of motor control patterns to prosthesis design and preclinical testing and as an input for finite element models predicting bone adaptation.

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Proximal femur

Structural FE modelling of the musculoskeletal system

This area of research is motivated by the desire to produce a more efficient framework for modelling the musculoskeletal system. It is striking that the early works of Culmann and von Meyer focused on the structure of the skeletal system.

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projects 3 4

ortho femur

Orthotropic FE modelling of the skeletal system

Prediction of trabecular architectural arrangement and bone property distribution is fundamental in order to understand the underlying mechanics of bone fractures. An iterative strain-adaptive bone remodelling algorithm which predicts orthotropic elastic property distribution was developed.

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fetal

Fetal Biomechanics

This project is focused on understanding the mechanics of the fetal movements and investigates the link between the strength of a baby's kick and the development of musculoskeletal and joint disease during pregnancy.

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projects 5 6

free pelvis

Free boundary condition FE modelling of the skeletal system

The aim of this project is to assess the behaviour of the femur and the pelvis in what is believed to be a more physiological manner than can be achieved using fixed boundary condition finite element modelling. This is done through the use of a free boundary condition model in which muscular and ligamentous contributions to the behaviour of bone construct are explicity included.

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Smart Structural Optimisation

This area of research is focused on the development of optimisation methods and algorithms applied to structural designs in different fields, including sustainable civil engineering, material properties characterisation, and scaffold design for biomedical applications. This project also involves 3D-printing of test samples for model validation.

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Contact us

Dr Andrew Phillips

91桃色
Structural Biomechanics
Skempton Building
South Kensington Campus
London SW7 2AZ, UK

andrew.phillips@imperial.ac.uk

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This work by 91桃色, Structural Biomechanics is licensed under a .

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