Welcome to the NanoΣky team
Our research lies at the intersection between nanomagnetism and topology. Our main scientific interests pertain to nanomagnetism and topology, magnetic skyrmions, spin-orbit coupling effects, skyrmion-based devices and X-ray imaging. We explore the rich physics of skyrmions and their technological applications (“Skyrmionics”), Spin-Orbit Coupling effects (“Spin-orbitronics”) and in general in the field of Spintronics. Specifically, we focus on enabling next-generation unconventional computing by investigating nanocomputing and neuromorphic computing.
Some of our contributions include the observation of skyrmion bubble states and topologically trivial states and predictions on the dynamics of skyrmionic configurations, the demonstration of the gigahertz eigenmode dynamics of skyrmion bubbles and their unexpectedly large inertia and the observation of nanoscale skyrmions at room temperature.
- Yu Li
I am a full-time PhD student in NEST Group, Department of Computer Science, and my project is supervised by Dr. Christoforos Moutafis, and Prof. Jim Miles.
My recent research interests lie in the theoretical&computational studies of magnetic skyrmions, and vary between many topics, e.g. skyrmion/antiskyrmion switching in chiral magnets, 3D dynamics and the energy landscapes of switching processes, roughness effect on the stability of skyrmionic textures in multilayer structures, ferromagnetic resonance, skyrmion-based devices, etc. I’m also having board collaborations with many people working on experiments, including people in our NEST group @Manchester, ETH Zurich, and Paul Scherrer Institute (PSI).
- Yuzhe Zang
PhD student in Computer Science at the University of Manchester
Supervisor: Dr. Christoforos Moutafis
Co-supervisor: Prof. Tom Thomson
- Runze Chen
PhD Project: Skyrmions for novel computations and skyrmion-based electronics, especially on modelling skyrmion-based nano-devices with logic/computing and memory functionality using a micromagnetics framework as well as developing circuit models for these devices towards their integration with vanilla CMOS technologies.
- Liam Panchaud
My research pertains to novel spintronic nanodevices and the methods by which these can be integrated to realise low-energy computing and storage systems. Of particular interest are devices engineered with neuromorphic principles as a driving inspiration and how these might positively augment state-of-the-art efforts in biologically plausible computation.
Email address: email@example.com.