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

Hans Kraus

Professor of Physics

Research theme

  • Particle astrophysics & cosmology

Sub department

  • Particle Physics

Research groups

  • LUX-ZEPLIN
Hans.Kraus@physics.ox.ac.uk
Telephone: 01865 (2)73361
Denys Wilkinson Building, room 623
  • About
  • Publications

Muon-induced background in the EDELWEISS dark matter search

(2013)

Authors:

The EDELWEISS collaboration, B Schmidt, E Armengaud, C Augier, A Benoit, L Bergé, T Bergmann, J Blümer, G Bres, A Broniatowski, V Brudanin, B Censier, M Chapellier, F Charlieux, S Collin, P Coulter, GA Cox, O Crauste, J Domange, L Dumoulin, K Eitel, D Filosofov, N Fourches, G Garde, J Gascon, G Gerbier, M Gros, L Hehn, S Henry, S Hervé, G Heuermann, A Juillard, H Kluck, VY Kozlov, M Kleifges, H Kraus, VA Kudryavtsev, P Loaiza, S Marnieros, A Menshikov, X-F Navick, H Nieder, C Nones, E Olivieri, P Pari, B Paul, M Robinson, H Rodenas, S Rozov, V Sanglard, B Siebenborn, D Tcherniakhovski, AS Torrentó-Coello, L Vagneron, RJ Walker, M Weber, E Yakushev, X Zhang
More details from the publisher

Development of techniques for characterisation of scintillation materials for cryogenic application

Radiation Measurements 49:1 (2013) 7-12

Authors:

VB Mikhailik, H Kraus

Abstract:

The multi-photon counting (MPC) technique was designed to record photon emission of scintillators and, as a very powerful method of material characterisation, is enjoying increasing popularity. The technique is especially advantageous for the analysis of slow scintillation processes and the investigation of temperature-dependent scintillator properties. The paper describes the latest development of the technique aiming to improve performance and widen the scope of applications. The results from characterising MgF 2 are presented to illustrate the capabilities of the MPC technique. © 2012 Elsevier Ltd. All rights reserved.
More details from the publisher

Investigation of luminescence and scintillation properties of a ZnS-Ag/6LiF scintillator in the 7-295 K temperature range

Journal of Luminescence 134 (2013) 63-66

Authors:

VB Mikhailik, S Henry, M Horn, H Kraus, A Lynch, M Pipe

Abstract:

The luminescence and scintillation properties of ZnS-Ag/6LiF where studied in the 7-295 K temperature range to evaluate the suitability of the scintillator for neutron detection at very low temperature (<1 K). It is shown that decrease of temperature has little effect upon principal luminescence and scintillation characteristics of ZnS-Ag: the changes of emission intensity are small for photoexcitation and negligible for excitation with α-particles. The recombination kinetics of the scintillation decay exhibits modest shortening of the fast decay time constant, from 4.52 to 3.35 μs with cooling to 10 K. It is concluded that ZnS-Ag/6LiF is a promising scintillator for cryogenic application. © 2012 Elsevier B.V. All rights reserved.
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Optimization of light collection from crystal scintillators for cryogenic experiments

4th International Conference on Current Problems in Nuclear Physics and Atomic Energy, NPAE 2012 - Proceedings (2013) 400-403

Authors:

VM Mokina, FA Danevich, VV Kobychev, H Kraus, VB Mikhailik, LL Nagornaya

Abstract:

Cryogenic scintillation bolometers are a promising technique to search for dark matter and neutrinoless double β decay. Improvement of light collection and energy resolution are important requirements in such experiments. Energy resolutions and relative pulse amplitudes of scintillation detectors using ZnWO4 scintillation crystals of different shapes (cylinder Ø 20 × 20 mm and hexagonal prism with diagonal 20 mm and height 20 mm), reflector materials and shapes, optical contact and surface properties (polished and diffused) were measured. The crystal scintillator of hexagonal shape shows the better energy resolution and pulse amplitude. The best energy resolution (FWHM = 9.3 % for 662 keV γ quanta of 137Cs) was obtained with a hexagonal scintillator with all surfaces diffuse, in optical contact with a PMT and surrounded by a reflector (3M) of size Ø 26 × 25 mm. In the geometry "without optical contact" representing the conditions of light collection for a cryogenic scintillating bolometer the best energy resolution and relative pulse amplitude was obtained for a hexagonal shape scintillator with diffuse side and polished face surfaces, surrounded by a reflector with a gap between the scintillator and the reflector.

Axion searches with the EDELWEISS-II experiment

JOURNAL OF COSMOLOGY AND ASTROPARTICLE PHYSICS (2013) ARTN 067

Authors:

E Armengaud, Q Arnaud, C Augier, A Benoit, A Benoit, L Berge, T Bergmann, J Bluemer, A Broniatowski, V Brudanin, P Camus, A Cazes, B Censier, M Chapellier, F Charlieux, F Couedo, P Coulter, GA Cox, T de Boissiere, M De Jesus, Y Dolgorouky, AA Drillien, L Dumoulin, K Eitel, D Filosofov, N Fourches, J Gascon, G Gerbier, M Gros, L Hehn, S Henry, S Herve, G Heuermann, N Holtzer, V Humbert, A Juillard, C Kefelian, M Kleifges, H Kluck, V Kozlov, H Kraus, VA Kudryavtsev, H Le Sueur, M Mancuso, C Marrache-Kikuchi, S Marnieros, A Menshikov, X-F Navick, C Nones, E Olivieri, P Pari, B Paul, MC Piro, O Rigaut, M Robinson, S Rozov, V Sanglard, B Schmidt, B Siebenborn, D Tcherniakhovski, M Tenconi, L Vagneron, RJ Walker, M Weber, E Yakushev, X Zhang
More details from the publisher

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