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

Professor Todd Huffman

Associate Professor of Physics

Research theme

  • Fundamental particles and interactions

Sub department

  • Particle Physics

Research groups

  • ATLAS
  • ePIC
Todd.Huffman@physics.ox.ac.uk
  • About
  • Publications

Link model simulation and power penalty specification of the versatile link systems

JOURNAL OF INSTRUMENTATION 6 (2011) ARTN C01088

Authors:

D Gong, C Liu, T Liu, T Huffman, A Prosser, J Troska, F Vasey, A Weidberg, A Xiang, J Ye, L Zhu

The radiation hardness of specific multi-mode and single-mode optical fibres at -25掳C beyond a full SLHC dose to a dose of 500 kGy(Si)

Journal of Instrumentation 5:11 (2010)

Authors:

BT Huffman, C Issever, NC Ryder, AR Weidberg

Abstract:

The optical fibres that will be used in SLHC detectors will be exposed to high doses and low temperatures in the inner detectors. A number of single-Mode (sM) and Multi-Mode (MM) fibres have been tested for radiation hardness by exposure beyond a full SLHC dose to 500 kGy(Si) in the -25 掳C operating temperatures expected in the upgraded inner detectors. From these measurements conservative estimates of the level of Radiation Induced Absorption (RIA) have been calculated for these fibres in realistic paths through an upgraded inner detector. Two SM fibres have been found whose total calculated RIAs were much lower than the budgeted 1 dB, despite the high dose rates used in the experiment. The RIAs for the DrakaElite Super RadHard Single-Mode Fiber and Fibre X were calculated to be 0.142 and 0.064 dB respectively. Another SM and a MM fibre showed high levels of RIA during the experiment, however they cannot be ruled out as candidate fibres due the the high dose rate of 27 kGy(Si)/hr used. 漏 2010 IOP Publishing Ltd and SISSA.

Eensey, weensey units

PHYSICS WORLD 23:5 (2010) 14-14

Eensey, weensey units

PHYSICS WORLD 23:5 (2010) 14-14

The radiation hardness of specific multi-mode and single-mode optical fibres at -25掳C beyond a full SLHC dose to a dose of 500 kGy(Si)

Journal of Instrumentation 5 (2010) 11

Authors:

BT Huffman, C Issever, NC Ryder, AR Weidberg

Abstract:

The optical fibres that will be used in SLHC detectors will be exposed to high doses and low temperatures in the inner detectors. A number of Single-Mode (SM) and Multi-Mode (MM) fibres have been tested for radiation hardness by exposure beyond a full SLHC dose to 500 kGy(Si) in the -25掳C operating temperatures expected in the upgraded inner detectors. From these measurements conservative estimates of the level of Radiation Induced Absorption (RIA) have been calculated for these fibres in realistic paths through an upgraded inner detector. Two SM fibres have been found whose total calculated RIAs were much lower than the budgeted 1 dB, despite the high dose rates used in the experiment. The RIAs for the DrakaElite Super RadHard Single-Mode Fiber and Fibre X were calculated to be 0.142 and 0.064 dB respectively. Another SM and a MM fibre showed high levels of RIA during the experiment, however they cannot be ruled out as candidate fibres due the the high dose rate of 27 kGy(Si)/hr used.

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