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Insertion of STC into TRT at the Department of Physics, Oxford
Credit: CERN

Prof Dr Armin Reichold

Professor of Physics

Research theme

  • Accelerator physics
  • Fundamental particles and interactions

Sub department

  • Particle Physics

Research groups

  • Future Colliders
  • SNO+
Armin.Reichold@physics.ox.ac.uk
Telephone: 01865 (2)73358
Denys Wilkinson Building, room 473,617
  • About
  • Publications

First data from the linear collider alignment and survey project (LiCAS)

EPAC 2008 - Contributions to the Proceedings (2008) 1344-1346

Authors:

A Reichold, P Brockill, S Cohen, J Dale, M Dawson, T Handford, M Jones, G Moss, LA Rainbow, M Tacon, CU Estrada, D Urner, R Wastie, S Yang, J Prenting, M Schl枚sser, G Grzelak

Abstract:

The LiCAS project has developed a prototype robotic survey system for rapid and highly accurate surveying of long linear accelerator tunnel networks. It is aimed at the International Linear Collider (ILC). This Rapid Tunnel Reference Surveyor (RTRS) is an R&D instrument for evaluating the performance of the RTRS concept and its survey technology. The prototype has been commissioned in a test tunnel at DESY with initial calibrations and measurements ongoing. We will report recent results where they improve over previously reported work.

Nanometre precision interferometric stability monitoring systems for key accelerator components

EPAC 2008 - Contributions to the Proceedings (2008) 1350-1352

Authors:

MS Warden, PA Coe, D Urner, A Reichold

Abstract:

The MONALISA group develops novel, accurate, nanometre resolution, interferometric systems to monitor relative motions between key accelerator components. We use cost-effective technology developed for the telecommunications market, providing readily scalable, adaptable solutions. Key magnets and diagnostics in the beam-delivery section of the International Linear Collider (ILC) will need to maintain stable relative positions. In particular, the final focus quadrupole magnets require nanometre level stability. Even greater stability requirements will be placed on components for the Compact Linear Accelerator (CLIC). Interferometers provide the only means of monitoring relative positions over long timescales, at the nanometre and sub-nanometre level. The latest results from our novel design, fibre-coupled interferometers will be presented.

The stabilisation of final focus system

PRAMANA-J PHYS 69:6 (2007) 1137-1140

Authors:

PA Coe, D Urner, A Reichold

Abstract:

The StaFF (stabilisation of final focus) system will use interferometers to monitor the relative positions and orientations of several key components in the beam-delivery and interaction region. Monitoring the relative positions of the ILC final focus quadrupole magnets will be the most demanding application, where mutual and beam-relative stability will have a direct impact on machine luminosity. Established, laser-based frequency scanning interferometry (FSI) and fixed-frequency interferometry (FFI) offer positional resolution at length scales of the laser wavelength (1500 nm to 1560 nm) and a thousandth of the wavelength, respectively. As part of the ATF at KEK, StaFF will use interferometers to measure lines of a geodetic network to record relative motion between two beam position monitors. Interferometers are being designed and tested in Oxford prior to deployment at the ATF.

ATF extraction line laser-wire system

(2007) 1394-1396

Authors:

L Deacon, ST Boogert, GA Blair, G Boorman, A Bosco, P Karataev, L Corner, N Delerue, B Foster, F Gannaway, D Howell, M Newman, A Reichold, R Senanayake, R Walczak, A Aryshev, H Hayano, K Kubo, N Terunuma, J Urakawa

Abstract:

The ATF extraction line laser-wire (LW) aims to achieve a micron-scale laser spot size and to verify that micron-scale beam profile measurements can be performed at the International Linear Collider beam delivery system. Recent upgrades to the LW system are presented together with recent results including the first use of the LW as a beam diagnostic tool.

A laser-wire system at the ATF extraction line

Proceedings of EPAC 2006 European Physical Society Accelerator Group (2006) 738-740

Authors:

ST Boogert, G Blair, G Boorman, A Bosco, L Deacon, C Driouichi, P Karataev, T Kamps, N Delerue, S Dixit, Brian Foster, F Gannaway, David Howell, M Qureshi, Armin Reichold, R Senanayake, A Aryshev, H Hayano, K Kubo, N Terunuma, J Urakawa, LJ Jenner, A Brachmann, J Frisch, M Ross

Abstract:

A new laser-wire (LW) system has been installed at the ATF extraction line at KEK, Tsukuba. The system aims at a micron-scale laser spot size and employs a mode-locked laser system. The purpose-built interaction chamber, light delivery optics, and lens systems are described, and the first results are presented.

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