📣 Help Shape the Future of UKRI's Gateway to Research (GtR)

We're improving UKRI's Gateway to Research and are seeking your input! If you would be interested in being interviewed about the improvements we're making and to have your say about how we can make GtR more user-friendly, impactful, and effective for the Research and Innovation community, please email gateway@ukri.org.

Adaption of the PROBE Cavity Design for Linear Proton Therapy Accelerators

Lead Research Organisation: Lancaster University
Department Name: Engineering

Abstract

During the previous successful PROBE grant the Cockcroft Institute designed and manufactured a 3 GHz side-coupled structure suitable for boosting the energy of a clinical cyclotron proton beam from 250 MeV upwards. The PROBE structure is predicted to deliver a world-leading gradient greater than 50 MV/m, and uses a patented method of construction that allows effective interior shaping of the cavity.

A high-gradient 3 GHz cavity is also of interest when used in a linac-based proton therapy system. The inherently smaller linac emittance would allow a smaller iris aperture and this could deliver a larger gradient using the same methods already demonstrated on PROBE in a previous PhD project - potentially over 60 MV/m. However, such a cavity has not yet been designed. This PhD project would carry out the detailed design of such a cavity in partnership with an interested industrial partner. We would construct a prototype using separate funding.

We have already carried out the equivalent design and manufacture of a previous cavity, so we are confident we know the challenges and pitfalls and have learnt a great deal from the previous project. We therefore judge the project has a high likelihood of obtaining a successful outcome. We can also confidently plan for the work of the PhD.

Publications

10 25 50

Studentship Projects

Project Reference Relationship Related To Start End Student Name
ST/R002142/1 30/09/2017 29/09/2022
2813986 Studentship ST/R002142/1 30/09/2020 29/09/2023 Matthew Southerby