Breadcrumb
Prof Trevor Wooley
Office: 4.18 Howard House
Department of Mathematics
University Walk, Clifton, Bristol BS8 1TW, U.K.
Telephone:
+44 (0)117 331-5240
Extension: 15240
Mail: trevor.wooley
http://www.maths.bris.ac.uk/~matdw
Education
- BA Hons Mathematics
- University of Cambridge (1987)
- CASM (Part III)
- University of Cambridge (1988)
- PhD Pure Mathematics
- Imperial College of Science and Technology, University of London (1990)
Honours
- Fellow of the Royal Society (2007)
- Royal Society Wolfson Research Merit Award (2007 - 2012)
- 45-minute Invited Speaker, International Congress of Mathematicians, Beijing (2002)
- Salem Prize (1998)
- Junior Berwick Prize of the London Mathematical Society (1993)
- David and Lucile Packard Fellow (1993 - 1998)
- Alfred P. Sloan Research Fellow (1993 - 1995)
Publications
Near-optimal mean value estimates for multidimensional Weyl sums (2014)
S. T. Parsell, S. M. Prendiville and T. D. Wooley
Geom. Funct. Anal. vol: to appear , Pages: 1 - 58
URL provided by the author
Vinogradov's mean value theorem via efficient congruencing (2012)
Trevor D. Wooley
Annals of Mathematics vol: 175 , Issue: 3 , Pages: 1575 - 1627
URL provided by the author
Research Interests
My research is centred on the Hardy-Littlewood (circle) method, a method based on the use of Fourier series that delivers asymptotic formulae for counting functions associated with arithmetic problems. In the 21st Century, this method has become immersed in a turbulent mix of ideas on the interface of Diophantine equations and inequalities, arithmetic geometry, harmonic analysis and ergodic theory, and arithmetic combinatorics. Perhaps the most appropriate brief summary is therefore "arithmetic harmonic analysis".
Much of my work hitherto has focused on Waring's problem (representing positive integers as sums of powers of positive integers), and on the proof of local-to-global principles for systems of diagonal diophantine equations and beyond. More recently, we have explored the consequences for the circle method of Gowers' higher uniformity norms, the use of arithmetic descent, and function field variants. The ideas underlying each of these new frontiers seem to offer viable approaches to tackling Diophantine problems known to violate the Hasse principle.
