The Retreat for Women in Applied Mathematics 2026 (RWAM 2026) is a five-day retreat for female applied mathematicians (or people who identify as female) from all career stages (PhD, postdoc, junior or senior faculty), generally working in the field of mathematical modelling across the physical sciences, biology and engineering.  Building on the successes of RWAM 2023, 2024 and 2025, RWAM 2026 will be a distinctive event touching different aspects of careers in mathematics. 

Fri, 14 Nov 2025
12:00
N4.01

Mathematrix: Maths Isn't Neutral with Hana Ayoob

Hana Ayoob
(Mathematrix)
Abstract

Mathematicians often like to think of maths as objective. Science communicator Hana Ayoob joins us to discuss how the fact that humans do maths means that the ways maths is developed, used, and communicated are not neutral.

Thu, 18 Jun 2026

14:00 - 15:00
Lecture Room 3

TBA

Daniele Boffi
(King Abdullah University of Science and Technology (KAUST))
Abstract

TBA

Escher staircase in the Oxford Mathematics Building with sun reflection
We are delighted to announce the launch of the Pousaz Scholarship Programme, made possible through a grant from the Pousaz Philanthropies Foundation. Starting in September 2026, three cohorts of five Pousaz Scholars will join Oxford's Mathematical Institute to pursue an MSc in Mathematics or related subjects.
KPP traveling waves in the half-space
Berestycki, J Graham, C Kim, Y Mallein, B Communications in Mathematical Physics volume 406 issue 11 (03 Oct 2025)
Thu, 14 May 2026

14:00 - 15:00
Lecture Room 3

Numerical analysis of oscillatory solutions of compressible flows

Prof Dr Maria Lukacova
(Johannes Gutenberg University Mainz)
Abstract

Speaker Prof Dr Maria Lukacova will talk about 'Numerical analysis of oscillatory solutions of compressible flows'

 

Oscillatory solutions of compressible flows arise in many practical situations.  An iconic example is the Kelvin-Helmholtz problem, where standard numerical methods yield oscillatory solutions. In such a situation,  standard tools of numerical analysis for partial differential equations are not applicable. 

We will show that structure-preserving numerical methods converge in general to generalised solutions, the so-called dissipative solutions. 
The latter describes the limits of oscillatory sequences. We will concentrate on the inviscid flows, the Euler equations of gas dynamics, and mention also the relevant results obtained for the viscous compressible flows, governed by the Navier-Stokes equations.

We discuss a concept of K-convergence that turns a weak convergence of numerical solutions into the strong convergence of
their empirical means to a dissipative solution. The latter satisfies a weak formulation of the Euler equations modulo the Reynolds turbulent stress.  We will also discuss suitable selection criteria to recover well-posedness of the Euler equations of gas dynamics. Theoretical results will be illustrated by a series of numerical simulations.  

 

 

GNU $_{\scriptsize{\rm MACS}}$ towards a Scientific Office Suite
Gubinelli, M van der Hoeven, J Poulain, F Raux, D Lecture Notes in Computer Science 562-569 (2014)
Introduction
Flandoli, F Gubinelli, M Hairer, M Lecture Notes in Mathematics 1-10 (13 Nov 2019)
An Introduction to Singular SPDEs
Gubinelli, M Perkowski, N Springer Proceedings in Mathematics & Statistics 69-99 (03 Jul 2018)
Wed, 03 Dec 2025
14:30
N3.12

Mathematrix: DPhil Applications Q&A

Abstract

Your chance to ask Mathematrix DPhil students about the process of applying to PhD programs, including written stages and interviews! 

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