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Churchill admits about sixteen undergraduates each year to read Mathematics, Mathematics with Physics or Mathematics with Computer Science. Candidates are normally taking Mathematics and Further Mathematics though the course is accessible to candidates with only single-subject mathematics. In such cases the study of extra further mathematics modules is an advantage to those only able to take a single mathematics course.
The University Mathematics course covers pure and applied mathematics and statistics, including applications of mathematics to physics, to decision-making processes, to financial modelling and to numerical techniques for computation. It is the course for prospective academic mathematicians but it is by no means only for them. Its graduates go into both academic and industrial research, into the computing industry and the financial world, into teaching, into management and administration, and many other careers.
The course is among the most demanding undergraduate mathematics courses in the world. If you want to learn as much as possible of mathematics and all its applications and are prepared to work hard to do so, then Churchill is the place for you. If you enjoy mathematics, we hope you will apply to us. We look forward to teaching you in due course.
This course provides an alternative way of specialising in theoretical physics to those provided by the Mathematics and Natural Sciences courses on their own. It is a distinct course only in the first year. After that, its students may transfer into the Natural Sciences course to specialise in physics. The first year combines material from both the Mathematics and the Natural Sciences (Physics) courses, about three-quarters being from the Mathematics course. Further mathematics is provided instead of experimental sciences that form a part of the first year Natural Sciences course.
An aerial photo of the new University Mathematics buildings. The road running from left to right is Madingley Road, and the residential courts in the immediate foreground are those of Churchill College. So you can't get much closer to the department than Churchill if you want to study Mathematics.
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Dr Christopher Tout Dr Christopher Tout (Director of Studies, Applied) came to Churchill in 2000 to teach mathematics, all aspects of which have been a life-long interest. Today he specialises in applied mathematics and theoretical physics which he uses every day in his research as the John Couch Adams Astronomer at the University's Institute of Astronomy, situated just beyond the College boundary. The study of the stars incorporates all aspects of modern mathematical physics from compressible fluid dynamics through quantum mechanics, relativity, statistical physics, nuclear physics and even solid state physics. Ultimately the problems boil down to the solutions to non-linear partial differential equations from which spring our understanding of the evolution of stars from their birth in cosmic clouds, through their youth like the Sun, as middle aged giants and to old age as white dwarfs, neutron stars or black holes. Dr Tout has lived on three continents and experienced mathematics taught in a number of universities throughout the world. Nowhere has he found a course as comprehensive as this one. It may be more challenging but if you enjoy mathematics in any form it is well worth it. |
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Dr Colm Caulfield Dr Colm Caulfield came to Churchill in 2005. He holds a joint appointment in the Department of Applied Mathematics and Theoretical Physics and the BP Institute. The BP Institute is a multi-disclipinary research centre devoted to fundamental studies of problems related to the energy industry, defined in the broadest sense. It brings together industrialists and academics with expertise in applied mathematics, earth sciences, engineering and chemistry. Dr Caulfield is interested in working as part of such diverse teams to study various fluid flows in the environment, particularly in cases where density differences play a dynamical role. Of course, density differences, (due to temperature or composition variation) are ubiquitous in the environment. Understanding the fundamental properties of the associated fluid dynamics is key to ensuring sustainable human activity. To name just three important examples, understanding how density differences affect fluid flows can allow strategies to be developed to model the climate system, to deal with the dispersion of pollutants, or to minimize energy consumption within buildings. |
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Prof Alec Boksenberg Prof Alec Boksenberg was formerly Director of the Royal Greenwich Observatory. He now works at the Institute of Astronomy. |
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Prof Douglas Gough Prof Douglas Gough is Director of the Institute of Astronomy. He is one of the founding fathers of the study of helioseismology. |
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Prof James Norris James Norris specializes in the study of Probability and Random Processes. These are branches of mathematics concerned with predicting the behaviour of systems subject to uncertainty but where the uncertainty can be quantified - a simple example would be the outcome of a series of coin tosses. A more general and rather pervasive class of examples is known as Markov Chains. See the textbook Markov Chains (CUP 1998) for an introductory account. The content of Chapter 1 forms the basis of a second year course in the Mathematical Tripos. Professor Norris's research interests cover a wide range of topics ranging from Brownian motion and stochastic calculus to large systems of interacting random particles used to model certain physical phenomena. |
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Prof Geoffrey Grimmett Prof Geoffrey Grimmett is Head of the Pure Mathematics Department. His research interests are in probability theory, combinatorial theory, stochastic models in statistical physics and probabilistic number theory. |

Preparing for Entertainment after a Mathematicians' Dinner