Awarded Projects

The main goal of this computational project is to compute, from first principles lattice QCD simulations, the quark-gluon vertex, in both Landau gauge and in linear covariant gauges.

Plastics are important polymeric materials with versatile applications, such as boat hulls/decks, tanks, pipes or gratings, and bottles, but unfortunately, they contribute massively for severe plastic contamination worldwide.

Astrophysical observations reveal that disorganised plasmas around compact objects produce coherent radiation. How orderly processes can arise from such conditions and give place to coherent dynamics still eludes us. Several mechanisms have been proposed to explain these phenomena.

The team will perform large-scale particle-in-cell simulations that support novel configurations to generate plasmas with comparable conditions to those found around astrophysical objects.

Complex fluids which simultaneously have elastic and plastic behaviors are ubiquitous in every day life (ketchup, chocolate), nature (fluids and materials in the human body), andvarious industries such as food, process, chemical and pharmaceutical.

Particle accelerators and light sources are main tools for discovering the fundamental constituents of our universe, the inner workings of biological organisms, and the response of matter inside stars and planets.

Particle accelerators and light sources are main tools for discovering the fundamental constituents of our universe, the inner workings of biological organisms, and the response of matter inside stars and planets.

Most visible matter in the universe exists as plasma. Extreme plasmas are also pervasive in the most exotic astrophysical objects, such as neutron stars, black holes, jets and AGNs.

The project team proposes a suite of multilingual continual pretrained Dense and Mixture-of-Expert (MoE) models at different size tiers for different types of workloads that have different inference compute constraints.