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Effects of Mechanical Stimulation on Tissue Engineered Constructs
PhD Supervisor(s): Yang Liu, David Williams
Contact Email: H.Hussein@lboro.ac.uk
Undergraduate Degree: MEng Electronic and Electrical Engineering (Loughborough University)
PhD Summary
Just as growth factors do, biomechanical cues such as intrinsic extracellular matrix (ECM) properties of tissues and mechanical loading conditions can modulate cell fate and function. This project aims to investigate the influence of hydrogel design and the mechanical forces simulated by a physiologically-relevant bioreactor on the differentiation of human mesenchymal stem cells (HMSCs) into a nucleus pulposus-like phenotype.
The aim of my work is to design scaffolds to deliver mechanical signals to regulate stem cell fate, improve bioreactor performance and evaluate the role of mechanical stimulation conditions including hydrostatic pressure, uniaxial compression and fluid flow induced shear stress on the growth and differentiation of MSCs with or without the use of growth factors.
Skills & Techniques
Publications, Presentations and Awards
Publications