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Calibration, event reconstruction, data analysis and limits calculation for the LUX dark matter experiment

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arxiv 1712.05696 v1 pith:EANAOLAD submitted 2017-12-15 physics.ins-det

classification physics.ins-det
keywords calibrationdarklow-energymatteranalysisbackgroundelectron-experiment
verification ladder T0 review T1 audit T2 compute T3 formal
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abstract

The LUX experiment has performed searches for dark matter particles scattering elastically on xenon nuclei, leading to stringent upper limits on the nuclear scattering cross sections for dark matter. Here, for results derived from ${1.4}\times 10^{4}\;\mathrm{kg\,days}$ of target exposure in 2013, details of the calibration, event-reconstruction, modeling, and statistical tests that underlie the results are presented. Detector performance is characterized, including measured efficiencies, stability of response, position resolution, and discrimination between electron- and nuclear-recoil populations. Models are developed for the drift field, optical properties, background populations, the electron- and nuclear-recoil responses, and the absolute rate of low-energy background events. Innovations in the analysis include in situ measurement of the photomultipliers' response to xenon scintillation photons, verification of fiducial mass with a low-energy internal calibration source, and new empirical models for low-energy signal yield based on large-sample, in situ calibrations.

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Cited by 1 Pith paper

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  1. Flow-dependent tagging of $^{214}$Pb decays in the LZ dark matter detector

    physics.ins-det 2025-08 conditional novelty 6.0 of 10

    Flow-dependent tagging, built from paired radon-polonium decays, identifies 63% of 214Pb beta-decay backgrounds in LZ's fiducial volume at 9.0% exposure cost.

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