Work Package 1 - Monte Carlo and Model Definition

Monte Carlo (MC) methods are powerful tools for everything from modelling the birth and evolution of the universe to performing the numerical integrals needed to calculate the cross sections for particle interactions, and are used extensively in astronomy, nuclear physics and particle physics.

MC calculations allow comparison of theoretical models with the large and complex experimental data sets typically produced by experiments. LIV.DAT students will receive a thorough grounding in MC theory and, through R&D projects in astrophysics, nuclear, accelerator and particle physics, learn about their application in these scientific domains, all of which are linked through the common Big Data challenges behind them.        

The following projects are part of this Work Package.

project 1

Physics Simulations to Underpin Discoveries in the Neutrino Sector

This project will develop a new global tune of GENIE.

project 2

Nuclear Fuel Accountancy with via HPC and Anti-Neutrino Data

This project will produce predictions of the anti-neutrino flux using ‘reactor codes’.

project 3

Physics and Biology of Proton Beam Therapy

This project aims to improve our understanding of the radiobiology of proton beam therapy.

project 4

Simulations of low surface brightness galaxy emission recovery from LSST

The student will develop models for recovering low surface brightness (LSB) stellar emission from galaxy clusters.

project 5

Viewing cosmological simulations with virtual telescope

This project will create the first model to map state-of-the-art cosmological simulations into “synthetic skies”.

project 6

Studies of coexisting nuclear shapes in exotic lead isotopes

The project is aimed at improving our understanding of collective phenomena in exotic nuclei.