Bio-Inspired Materials Chemistry

 

My group carries out research in the area of bio-inspired materials chemistry, taking Nature as the inspiration for developing novel strategies for the production of advanced materials. Biological structures are characterised by many unique features optimised for their function, including remarkable, complex morphologies, hierarchical organisation over many length scales and responsiveness to their environment. Importantly, all of this is achieved through strategies which operate under mild reaction conditions. The research in my group focuses on one class of biological materials - biominerals - which include structures such as bones, teeth and seashells. Through examining the structures of these biogenic minerals and the mechanisms by which biomineralization occurs, we aim to develop new, low-temperature synthetic routes to a range of materials, and indeed to produce materials with novel structures.

 

Applications

 

Crystallization is a hugely important subject which lies at the heart of a vast array of natural phenomena and technological processes, including weathering and frost heave, scaling phenomena, biomineralization, the formation of ice in the atmosphere and applications such as the fabrication of nano-materials, mineral-based biomaterials, pharmaceuticals, food-stuffs and personal care products. Developing ways of controlling crystallization - be it the formation of new materials or indeed the prevention of unwanted crystallization events such as the formation of kidney stones - is thus highly important to fundamental research and technology across many disciplines.

 

PhD position Available!

We are currently recruiting for a talented and entusiastic PhD student to join us in September 2018. This PhD studentship is offered in association with our newly-funded £5.4M EPSRC Programme Grant ‘Crystallisation in the Real World: Delivering Control through Theory and Experiment’. The aim of this exciting 5-year research programme is to develop new ways to control crystallisation by combining cutting-edge experiment and modelling to understand the mechanisms that determine how inorganic crystals nucleate and grow. If you are interesed in this position,

School of Chemistry, University of Leeds, Woodhouse Lane, Leeds, LS2 9JT