Dr Adrian Dudek

Adjunct Associate Professor

School of Mathematics and Physics
Faculty of Science

Overview

Adrian grew up in Perth and double majored in Pure Mathematics and Applied Mathematics at the University of Western Australia. Soonafter, he ventured to Canberra to undertake a PhD, focussing on analytic number theory: an enchanting area where one perplexingly uses calculus and analysis to study discrete structures such as the set of prime numbers.

After this, he worked as a derivatives trader at Optiver APAC for five years before transitioning into his current role as Head of Academic Partnerships. He spends most of his time talking to students about all of the exciting applications of mathematics in the real world (and quite often he talks about prime numbers).

Research Interests

  • The Distribution of Prime Numbers
    The prime numbers are simple to define, yet try to study them in depth and they are notoriously evasive. I enjoy all manner of problems involving prime numbers, from results that establish the existence of prime numbers in short intervals to additive problems similiar to Goldbach's conjecture.
  • Construction of Expander Graphs
    An expander graph is a graph that is a strong candidate to be used as some sort of network. Mathematicians have a straightfoward way of characterising the expansion of a graph, that is, how well information travels through it. It then becomes an interesting problem to construct arbitrarily large graphs with high expansion. Solutions to this problem call on various seemingly disconnected areas of maths.

Publications

View all Publications

Available Projects

  • The Riemann Hypothesis is possibly the most well known unsolved problem in all of mathematics. Incredibly, the more we know about the zeroes of the Riemann zeta-function, the more we know about the set of prime numbers. There are entire books full of unsolved problems on prime numbers; recent advances in studying zeta-function zeroes can be called upon to tackle these.

    One such problem involves proving the existence of a function h(x) such that the interval (x, x+h(x)) always contains at least one prime. The goal of this area of research is to find slow-growing functions that do the trick; this would ensure the existence of primes in quite small intervals. Much of this research is motivated by Legendre's conjecture: the unproved assertion that there is always a prime number between any two square numbers.

    Another problem involves the additive role that primes play. The Goldbach conjecture is the assertion that any even number greater than two can be expressed as the sum of two primes. There are many related similiar results that one can prove armed with the tools of modern number theory.

View all Available Projects

Publications

Journal Article

Possible Research Projects

Note for students: The possible research projects listed on this page may not be comprehensive or up to date. Always feel free to contact the staff for more information, and also with your own research ideas.

  • The Riemann Hypothesis is possibly the most well known unsolved problem in all of mathematics. Incredibly, the more we know about the zeroes of the Riemann zeta-function, the more we know about the set of prime numbers. There are entire books full of unsolved problems on prime numbers; recent advances in studying zeta-function zeroes can be called upon to tackle these.

    One such problem involves proving the existence of a function h(x) such that the interval (x, x+h(x)) always contains at least one prime. The goal of this area of research is to find slow-growing functions that do the trick; this would ensure the existence of primes in quite small intervals. Much of this research is motivated by Legendre's conjecture: the unproved assertion that there is always a prime number between any two square numbers.

    Another problem involves the additive role that primes play. The Goldbach conjecture is the assertion that any even number greater than two can be expressed as the sum of two primes. There are many related similiar results that one can prove armed with the tools of modern number theory.