Nanorad - Ultrafast, nano-scale material response to radiation and applications of ultrafast radiation sources.

Completed

Nuclear Fission and Fusion(Nuclear Fusion)
Not Energy Related

Basic and strategic applied research

PHYSICAL SCIENCES AND MATHEMATICS (Physics)

Not Cross-cutting

Dr KM Zepf
Mathematics & Physics
Queen's University Belfast

Dr B Dromey
Mathematics & Physics
Queen's University Belfast

Standard

EPSRC

01 March 2017

28 February 2022

60 months

£1,389,644

Plasma physics

Northern Ireland; Northern Ireland

NC : Physical Sciences

Dr KM Zepf, Mathematics & Physics, Queen's University Belfast
Dr B Dromey, Mathematics & Physics, Queen's University Belfast

Dr M Borghesi, Mathematics & Physics, Queen's University Belfast
Professor F Currell, Chemistry, University of Manchester
Dr S Kar, Mathematics & Physics, Queen's University Belfast
Dr J Kohanoff, Mathematics & Physics, Queen's University Belfast
Professor LS Lewis, Mathematics & Physics, Queen's University Belfast
Dr B Reville, Mathematics & Physics, Queen's University Belfast
Dr D Riley, Mathematics & Physics, Queen's University Belfast
Dr G Sarri, Mathematics & Physics, Queen's University Belfast
Dr M K Yeung, Mathematics & Physics, Queen's University Belfast

Project Contact, Lawrence Livermore National Laboratory (LLNL), USA
Project Contact, GSI Helmholtzzentrum für Schwerionenforschung, Germany
Project Contact, University of Glasgow
Project Contact, ELI-NP | Extreme Light Infrastructure - Nuclear Physics, Romania
Project Contact, Ludwig Maximilian University of Munich
Project Contact, University Centre Peterborough

The Centre for Plasma Physics is internationally leading in the exploitation of intense lasers and laser driven ultrafast radiation sources. This platform grant will allow strategic exploitation of the developments seeded in the previous, highly successful platform grant.In particular, the advent of ultrafast laser driven radiation sources ranging from x-rays to particle beams allows the dynamics of the natural world at the shortest timescales and spatially on the nanoscale to be investigated. This is the core theme of this platform grant, which follows on from the success in these areas achieved during the first platform grant. Emerging from this is the development of the worlds most powerful few-cycle (<10fs) laser - the TARANIS-X project. These high-energy, extremely short pulses are a key extension to the TARANIS facility at QUB and will enable cutting edge science.The over-arching strategic goal of this proposal is to fully exploit the new pathways that have been enabled by laser driven radiation sources and to maximize the scientific impact of the recently funded TARANIS-X project (EPSRC Experimental Equipment Call) by fully exploiting the synergies available through close integration of academic staff under the auspices of the proposed NanoRad Platform Grant.

28/01/19