ePubs
The open archive for STFC research publications
Home
About ePubs
Content Policies
News
Help
Privacy/Cookies
Contact ePubs
Full Record Details
Persistent URL
http://purl.org/net/epubs/work/43797
Record Status
Checked
Record Id
43797
Title
Analysis of measurement errors in residual gas ionisation profile monitors in a high intensity proton beam
Contributors
RE Williamson (STFC)
,
BG Pine (STFC)
,
SJ Payne (STFC)
,
CM Warsop (STFC)
Abstract
ISIS is the pulsed neutron and muon source based at the Rutherford Appleton Laboratory in the UK. Operation is centred on a loss-limited 50 Hz proton synchrotron which accelerates ~ 3e13 protons per pulse from 70 MeV to 800 MeV, corresponding to a mean beam power of 0.2 MW. Beam profile measurements are a key component of both ISIS operational running and R&D beam studies. Understanding and quantifying limitations in these monitors is essential, and has become more important as work to optimise and study the beam in more detail has progressed. This paper presents 3D field and ion trajectory modelling of the ISIS residual gas ionisation profile monitors, including the effects of non-uniformity in longitudinal and transverse drift fields, and beam space charge. The simulation model allows comparison between the input beam profile and that deduced from ion currents. The resulting behaviour is summarised along with corrections and errors.
Organisation
ISIS
,
ISIS-ACCEL
,
STFC
Keywords
Residual gas
,
Physics
,
Profile monitors
,
Ionisation
Funding Information
Related Research Object(s):
Licence Information:
Language
English (EN)
Type
Details
URI(s)
Local file(s)
Year
Paper In Conference Proceedings
In 11th European Particle Accelerator Conference (EPAC '08), Genoa, Italy, 23-27 Jun 2008, (2008).
TUPC109.pdf
2008
Showing record 1 of 1
Recent Additions
Browse Organisations
Browse Journals/Series
Login to add & manage publications and access information for OA publishing
Username:
Password:
Useful Links
Chadwick & RAL Libraries
Jisc Open Policy Finder
Journal Checker Tool
Google Scholar