David L. Andrews
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David L. Andrews | |
|---|---|
| Born | October 15, 1952 |
| Citizenship | United Kingdom |
| Alma mater | University College London |
| Known for | Theory of optical processes |
| Scientific career | |
| Fields | Chemical Physics |
| Institutions | University of East Anglia |
| Thesis | Applications of quantum electrodynamics to light scattering and absorption processes (1976) |
| Doctoral advisor | T. Thirunamachandran |
David Leslie Andrews, FRSC, FInstP (born 15 October 1952) is a British emeritus professor of Chemical Physics at the University of East Anglia, where he was the Head of Chemical Sciences and Physics, from 1996 to 1999.[1]
David Andrews attended Colfe's Grammar School, Lee, London, U.K. from 1963 to 1970.[citation needed] He graduated (1st Class Hons) in Chemistry, from University College London in 1973.[citation needed] He then obtained a PhD in theoretical chemistry from the same university, in 1976.[citation needed]
Career
From 1976 to 1978, Andrews was an Associate Research Assistant in the Department of Mathematics and Research Associate in Department of Chemistry, in University College London.[citation needed] In 1978, he became Science Research Council Postdoctoral Fellow[citation needed] and in 1979 he joined the University of East Anglia as a Lecturer.[citation needed] Andrews was promoted to Senior Lecturer in 1991 and to Reader in 1994. He was appointed Professor of Chemical Physics in 1996[1] and became Emeritus Professor in 2023.[2]
Research
Andrews and his research group have published on the theory of optical phenomena, developing quantum electrodynamical theory[3] and symmetry principles[4] for applications including fluorescence,[5] and optical nanomanipulation.[6] Andrews has worked on the quantum theory of intermolecular energy transfer,[7] including a theory of energy transfer that accommodates both radiationless and radiative processes.[8] He has also contributed to quantum optics and nonlinear optics,[9] with studies of chiral interactions including a prediction of the hyper–Rayleigh scattering effect,[10] while studies of chirality and optical helicity[11] led to contributions to the theory of optical vortices.[12]