Blog posts

We are looking for candidates for this PhD project entitled: 'Strain rate sensitive properties of skin- The development of combined theoretical and experimental tools to capture the strain rate dependent behaviour of soft tissues'. If you are interested, you can consult the full project description here, and contact Dr Frances Davis at frances.davis [at] soton.ac.uk.

We recently awarded a grant to develop stent-graft. We welcome those young scientists to apply for a 'Research Scientist' position at IHPC, A*STAR. The candidates should come from computational mechanics background, and have some previous experience in the study of medical devices including cardiovascular stents and stent-grafts. others: 1). Computational bioengineering and biomechanics, structural optimization 2). Familiar with software such as ANSYS, ABAQUS, SOLIDWORKS, etc.

Applications are invited for a PhD position in Mechanics and Manufacturing of Composites in the Department of Civil & Env. Engineering at the University of Wisconsin-Madison. Preference will be given to candidates with a strong background in solid mechanics, finite element analysis and computer programming. Prior knowledge of polymeric composites and manufacturing will be advantageous. The position will start in Fall 2017.

Expressions of interest are invited for applicants interested in applying for a 3 year post-doctoral fellowship in the area of computational mechanics of composite materials.

Helices are ubiquitous building blocks in natural and engineered systems. Previous studies showed that helical ribbon morphology can result from anisotropic driving forces and geometric misorientation between the principal axes of the driving forces and the geometric axes. However, helical ribbon shapes induced by elastic modulus anisotropy have not been systematically examined even though most natural and engineered structures are made of composite materials with anisotropic mechanical properties.

We have an open PhD position to study the mechano-chemical organisation of cells from a physical and mathematical point of view. Individually or collectively, cells move due to mechanical and chemical gradients and doing so they self-organise in very specific forms. Understanding the physical laws under mechano-chemical gradients can head to establish new protocols in the control of cell structures. The final goal of the project is to manipulate cells so that the morphology of cell structures can be predicted, e.g. in biological-based prosthesis.