Our group use synthetic organic chemistry to make novel compounds for treatment and prevention of disease.
Our group specializes in small molecule organic and inorganic synthesis for the generation and characterization of new compounds.
Dutton - Organic, organometallic and inorganic chemistry from synthetic and theoretical perspectives
Our group examines the fundamental chemistry of a wide variety of systems (literally spanning the periodic table from beryllium to iodine) using both synthetic and computational approaches.
Our group studies molecules and chemical reactions observed throughout our Solar System and beyond into interstellar space.
Our group use a combination of biochemistry, cell biology, structural biology and medicinal chemistry approaches to understand the precise molecular mechanisms that control apoptosis.
I use Nuclear Magnetic Resonance (NMR) to investigate protein structure, function and dynamics.
Our group conducts a range of both fundamental and applied research to expand the bounds of analytical science.
Our group examines the molecular mechanisms underlying cell fate decisions dictated by the processes of apoptosis and autophagy.
Our group studies the principles of self-assembly in lipid membranes, peptide fibrillogenezis and peptide-membrane interactions.
Our group prepare Polymer Inclusion Membranes (PIMs) and polymer-based microspheres for use as small-scale chemical reactors and sensors for biological, environmental and industrial applications.
Our group exploit powerful light sources to study molecules relevant to pharmaceutics, atmospheric and aerosol chemistry, and even the interstellar medium.
Our group use quantum-mechanical methods to understand enzyme mechanism, molecular mechanical methods to explore the dynamics of proteins, and a variety of tools to predict how molecules interact.
Our group carries out research with the use of state-of-the-art computational quantum chemistry methods; using computers to solve chemical and biochemical problems.
Our group combines elements of optics, nanofabrication, synchrotron science and X-ray Free Electron Lasers, to develop new approaches to imaging materials and structures at the atomic, molecular and cellular level.
Our research focuses on creating, understanding and controlling materials at the nanometer scale.
I study the surfaces of semiconductor crystals, particularly diamond, and how they react to the world around and within us.
Our group explores the complex mechanisms behind cellular and sub-cellular events and processes. We also seek to develop novel bio-imaging modalities and instrumentation for new diagnostic and therapeutic tools.
Our group studies the functionalisation of technologically-interesting materials such as diamond, graphene, silicon and organic semiconductors via the chemical modification of the surface and surface transfer doping.
Our group focuses on creating, understanding and controlling materials at the nanometer scale. We explore chemical and molecular properties and processes at surfaces and at interfaces.
Our group focuses on creating, understanding, and controlling the surfaces and interfaces of functional materials at molecular scale to develop new technologies and material platforms for next-generation devices.
Our group researches various forms of propagation-based X-ray imaging, and are developing quantitative full field imaging techniques using polychromatic X-ray sources.
van Riessen - Experimental condensed matter and materials physics, and coherent X-ray imaging development
Our group develops novel methods of probing condensed matter and material properties using coherent X-ray imaging methods, electron spectroscopy, and nanofabricated devices.