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Synchrotron self absorption and the minimum energy of optically thick radio flares from stellar mass black holes

(2019)

Authors:

Rob Fender, Joe Bright

Methods for pixel domain correction of EB leakage

Physical Review D American Physical Society (APS) 100:2 (2019) 023538

Authors:

Hao Liu, James Creswell, Sebastian von Hausegger, Pavel Naselsky

Mass and spin measurements for the neutron star 4U1608−52 through the relativistic precession model

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 486:4 (2019) 4485-4497

Authors:

L du Buisson, S Motta, R Fender

The H i content of dark matter haloes at z ≈ 0 from ALFALFA

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 486:4 (2019) 5124-5138

Authors:

Andrej Obuljen, David Alonso, Francisco Villaescusa-Navarro, Ilsang Yoon, Michael Jones

A compact air cooling system for testing silicon detectors based on a vortex chiller

Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment Elsevier 940:1 October 2019 (2019) 405-409

Authors:

K Metodiev, L Vigani, R Plackett, K Arndt, D Wood, Dp Weatherill, M Mironova, D Bortoletto, I Shipsey

Abstract:

The testing of irradiated silicon detectors requires maintaining low ( -10 °C) temperatures, to simulate a realistic operating environment and prevent annealing effects from distorting the results of the measurement. Keeping a device cool and dry is challenging, particularly if the apparatus must be portable. This paper presents a solution for a providing a stable, cool and dry environment for testing an irradiated silicon detector, that is easy to transport and can be installed in charged particle beam areas and irradiation facilities.