Tissue Engineering

During our everyday life, many of our tissues are subjected to large deformations.
During our every day life, many of our tissues are subjected to large deformations.
One cell thick monolayers are the simplest tissues found in multicellular organisms, yet they fulfil critical roles in normal phys

Iain E. Dunlop

Dr Iain Dunlop's uses methods from nanotechnology and surface chemistry to address questions in cell biology. In vivo, cells determine their behaviour largely by reacting to their environments; in particular, they respond to specific signals that are located on surfaces that they come into contact with. Such signals are hugely important in ensuring each cell plays its role within multicellular organisms. However, because biological surfaces are complex, it can be difficult to know exactly which features are significant.

Living cells have an ‘in-built' system for controlling the length they grow to, according to research by scientists from...
Scientists are closer to understanding how to grow replacement bones with stem cell technology, thanks to research published today

Molly Stevens

Molly Stevens is currently Professor of Biomedical Materials and Regenerative Medicine and the Research Director for Biomedical Material Sciences in the Institute of Biomedical Engineering. She joined Imperial in 2004 after a Postdoctoral training in the field of tissue engineering with Professor Robert Langer in the Chemical Engineering Department at the Massachusetts Institute of Technology (MIT). . Research in regenerative medicine within her group includes the directed differentiation of stem cells, the design of novel bioactive scaffolds and new approaches towards tissue regeneration.

Julian Jones

The Jones groups's research interests are highly multidisciplinary but revolve around the development of nanostructured bioactive porous scaffolds for tissue engineering, including macroporous and nanoporous bioactive glasses and novel nanocomposite materials. The cellular response to macro and nano structure is vitally important and materials characterization is a key area. At the atomic scale, cutting edge characterization techniques are employed, such as neutron diffraction and synchrotron source X-rays.

Nicolas Szita

Prof Szita’s research interests focus on the translation of bioprocessing concepts into microfluidic systems (or Lab-on-a-chip systems). He has particular expertise in the use of advanced microfabrication techniques for polymers (rapid prototyping), glass and silicon. 


Rachel McKendry

Professor Rachel McKendry is Professor of Biomedical Nanoscience and holds a joint position between the London Centre for Nanotechnology and Division of Medicine, University College London. She is Director of the £11M i-sense EPSRC IRC, a large interdisciplinary research collaboration in Early Warning Sensing Systems for Infectious Diseases. Her research lies at the cutting edge of nanotechnology, telecommunication, big data, infectious diseases and public health.