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V. M. Gehman

Researcher at Lawrence Berkeley National Laboratory

Publications -  115
Citations -  9745

V. M. Gehman is an academic researcher from Lawrence Berkeley National Laboratory. The author has contributed to research in topics: Double beta decay & Xenon. The author has an hindex of 38, co-authored 112 publications receiving 8810 citations. Previous affiliations of V. M. Gehman include Virginia Tech & Los Alamos National Laboratory.

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Journal Article

The 2010 Interim Report of the Long-Baseline Neutrino Experiment Collaboration Physics Working Groups

T. Akiri, +148 more
TL;DR: The Long-Baseline Neutrino Experiment (LBNE) science collaboration initiated a study to investigate the physics potential of the experiment with a broad set of different beam, near-and far-detector configurations as discussed by the authors.
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First proof of topological signature in the high pressure xenon gas TPC with electroluminescence amplification for the NEXT experiment

TL;DR: In this article, the authors presented the first demonstration that the topology provided extra handles to reject background events using data obtained with the NEXT-DEMO prototype, which was used to develop algorithms for the reconstruction of tracks and the identification of the energy deposited at the end-points.
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NEXT-100 Technical Design Report (TDR). Executive summary

Víctor H. Alvarez, +86 more
TL;DR: The Next-100 detector as discussed by the authors was designed to search for neutrinoless double beta decay (ββ0ν) in 136XE at the Laboratorio Subterraneo de Canfranc (LSC) in Spain.
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The Majorana Demonstrator Radioassay Program

N. Abgrall, +107 more
TL;DR: The Majorana Demonstrator at the Homestake gold mine in South Dakota has been used to demonstrate the feasibility of a large-scale Ge detector experiment to search for neutrinoless double beta decay as mentioned in this paper.
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Fluorescence Efficiency and Visible Re-emission Spectrum of Tetraphenyl Butadiene Films at Extreme Ultraviolet Wavelengths

TL;DR: A large number of current and future experiments in neutrino and dark matter detection use the scintillation light from noble elements as a mechanism for measuring energy deposition as discussed by the authors, which is produced in the extreme ultraviolet (EUV) range, from 60{200 nm.