Queen's University Belfast
Novel approach to laser-driven multi-stage ion acceleration
Abstract
dc:description.abstractAll-optical approaches to particle acceleration are currently attracting a significant research effort internationally. Key to the interest in a laser based particle accelerator lies in its cost effective and compactness. However, the ion beams accelerated by the laser-driven mechanisms have shortcomings such as a broad energy spectrum and large beam divergence. A recently developed concept of a versatile, miniature linear accelerating module harnesses the extremely high electromagnetic pulses produced by the interaction of intense lasers, and achieves simultaneous focusing, energy selection and post-acceleration of the proton beams. The process boosts the energy of the ions accelerated from the foil, through the application of a large amplitude field within a helical coil, which travels synchronously with the ions. This process lends itself to multi-staging, i.e. the sequential application of laser-driven accelerating fields, which is highly promising for significant increase of the accelerated proton energies. The project aims to develop this multi-stage approach which is totally new in the context of laser-driven protons, and can pave the way towards miniature, modular ion accelerators providing beams suitable for medical, scientific and industrial applications.<br/><i><br/>Thesis embargoed until 31 December 2026</i>.
Degree
thesis:*- Name dc:type.qualificationname
- Doctor of Philosophy
- Level dc:type.qualificationlevel
- Doctoral Thesis
- Grantor dc:publisher.institution
- Queen's University Belfast
- Year dc:date.issued
- 2021
Author and committee
dc:creator, dc:contributor.*- Author dc:creator
-
- Ferguson, Simon
- Advisors dc:contributor.advisor
-
- Kar, Satyabrata
- Borghesi, Marco
Subjects
dc:subject × 2Rights
- Language dc:language
- eng
Identifiers
dc:identifier.*- Identifier
- oai:pure.qub.ac.uk/portal:studenttheses/3d733bfb-018a-4caf-8bef-ed8b4bf443ab
- OAI identifier oai:identifier
- oai:pure.qub.ac.uk/portal:studenttheses/3d733bfb-018a-4caf-8bef-ed8b4bf443ab