Explore our Research

Magnetism and Magnetic Technologies
Optics and Neutron Science

Our research combines computational modelling, materials physics, optics and neutron science to understand, design and investigate functional materials and devices.

Magnetism and Magnetic Technologies

From inverse design and magnetic sensor development to micromagnetic and multiphysics simulation, our research develops computational methods and software for understanding and optimising magnetic materials and devices.

Inverse Computational Magnetism
Magnetic Sensors
Micromagnetic and Multiphysics Software

A 3D schematic diagram illustrating two configurations of devices built on a piezoelectric substrate. Each setup features an interdigital transducer 1 (IDT 1), a surface acoustic wave (SAW) section, a central magnetic lattice array, and an interdigital transducer 2 (IDT 2). An XYZ coordinate system is shown in the lower-left corner. Two inset panels on the right display spatial field maps or heatmaps corresponding to the magnetic lattices, complete with color scales.

Optics and Neutron Science

Complementing this computational focus, our work in optics and neutron science combines holographic grating fabrication, very cold neutron beam control, neutron interferometry and diffraction studies to develop new methods for manipulating neutron beams and investigating functional materials.

Very Cold Neutron Optics and Interferometry

A 3D schematic diagram illustrating an optical diffraction setup. On the right, an incident green beam strikes a tilted striped grating, with axes $x$ and $z$, rotation angle $\theta$, and tilt angle $\zeta$ marked. The resulting beams project onto a square 2D-detector on the left, showing diffraction orders labeled $-1^{st}$, $0^{th}$ (green), and $+1^{st}$ (red).