SCIENCE HIGHLIGHTS

PI: Peter Wyper Coronal mass ejections (CMEs) from the Sun are massive expulsions of plasma and magnetic field originating in the Sun’s atmosphere (the solar corona). They are the main driver of Space Weather around the Earth, and come in a variety of different morphologies. In a new study involving simulation data developed with Dirac […]

PL: Luiz A.C. A. Schiavo, PCL: James A. McLaughlin, Gert J.J. Botha, and Natasha L.S. Jeffrey Solar flares are among the most powerful events in the solar system, releasing vast amounts of magnetic energy stored in the Sun’s outer atmosphere, the solar corona. This energy release is driven by a fundamental process called magnetic reconnection, […]

PI: Christine Davies Axion-like particles (ALPs) frequently appear as light spinless particles in extensions of the Standard Model of particle physics. How best to find them, if they exist, depends on their mass and the strength of their coupling to known particles. Figure 1. Diagrams showing how a vector meson, V (here the J/𝛙), decays […]

PI: Christopher Thomas The LHCb experiment at CERN has discovered an unprecedented number of new hadrons (bound states of quarks and gluons), around 70 to date. Many of these are seen as short-lived resonances decaying through the strong interaction to lighter, stable hadrons. Numerous of them lie at unexpected energies compared to what is predicted […]

PI: Thaddeus Komacek Highlight 1: General Circulation Model (GCM) simulations of the first planet orbiting close-in to a pulsar characterised with the James Webb Space Telescope. Figure 1 (top): Temperature maps and streamlines (left) and temperature-pressure profiles (right) from 3D GCMs of PSR J2322-2650b. From Zhang et al. (2025), ApJL, 995:L64. Highlight 2: GCM simulations […]

PI: Matteini Alfvén waves play a crucial role in the transport of energy in various magnetised laboratory, space and astrophysical plasmas. They are both linear and non-linear MHD solutions and can travel long distances along the background magnetic field, transporting and depositing energy far from the source. In the presence of compressible fluctuations however, Alfvén […]

PI: David Schaich DiRAC Project dp162/APP50526, “Lattice studies of maximally supersymmetric Yang–Mills in three dimensions”, is exploring conjectured holographic dualities that relate supersymmetric quantum field theories to quantum gravity in a higher number of space-time dimensions. Such holographic dualities are widely employed in theoretical physics, and are beginning to benefit from first-principles lattice field theory […]

PI: Gareth Collins On the 24th of December 2021, a bus-sized meteoroid struck the martian surface, producing a 150-m wide crater. The impact excavated an extensive field of m-scale blocks of water ice—the lowest-latitude water ice observed on Mars to date. We used 3D computer simulations of the formation of the crater performed on DiRAC […]

PI: Prof. Justin I. Read In the EDGE project – Engineering Dwarfs at Galaxy Formation’s EDGE (dp324) – we simulate the smallest stellar systems at an unprecedented spatial resolution of just ~10 light years. At this resolution, we have resolved the formation of realistic, dense, globular star clusters through to the present day, in their […]

PI: Richard Alexander Young stars are surrounded by cold discs of dust and gas, which form because gas clouds invariably “spin up” as they collapse to form stars. These so-called protoplanetary discs are the sites of exoplanet formation. In recent years observations with telescopes such as ALMA have revealed a wealth of structure in planet-forming […]