22–27 Jul 2018
MacMillian
US/Eastern timezone

Session

1.3 Direct Detection

1.3
23 Jul 2018, 14:00
117 (MacMillian)

117

MacMillian

Brown University Providence, Rhode Island, USA

Conveners

1.3 Direct Detection

  • Richard Gaitskell (Brown University)

Presentation materials

There are no materials yet.

  1. Hugh Lippincott (FNAL)
    23/07/2018, 14:00
    Direct Detection
    Talk

    Next generation liquid xenon TPCs are poised to increase our sensitivity to dark matter by more than an order of magnitude over a wide range of possible dark matter candidates. In this talk I will describe an idea to expand the reach and flexibility of such detectors even further, by adding helium to the xenon to enable searches for very light dark matter and combining high and low Z targets...

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  2. Tsuguo Aramaki (Columbia University), Tsuguo Aramaki (SLAC)
    23/07/2018, 14:20
    Directional Detection
    Talk

    The SuperCDMS SNOLAB experiment will search for low-mass dark matter particles at SNOLAB, the deep underground laboratory near Sudbury Ontario Canada. The new generation of SuperCDMS germanium and silicon detectors will be tested for functionality in facilities operated by the SuperCDMS collaboration in laboratories above ground. However, the background radiation in these facilities is very...

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  3. Daniel Baxter (Northwestern University)
    23/07/2018, 14:40
    Direct Detection
    Talk

    The primary advantage of the bubble chamber technology for dark matter detection, as used by the PICO collaboration, is its simultaneous sensitivity to nuclear recoils from dark matter interactions and insensitivity ($\sim 10^{-10}$) to electron recoil backgrounds. Previously published data in CF$_3$I indicated that the probability of nucleation for a single electron recoil scales with the...

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  4. Philippe Di Stefano (Queen's University)
    23/07/2018, 15:00
    Direct Detection
    Talk

    The nature of the dark matter thought to make up most of the matter in the universe is unknown. It may consist of new particles from beyond the standard model. For close to two decades, the DAMA experiment has claimed to have detected such particles. This claim is controversial, in particular because there is no accepted model for the background radioactivity in DAMA. One major unknown is the...

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  5. Mr Vetri Velan (University of California, Berkeley)
    23/07/2018, 15:20
    Direct Detection
    Talk

    Liquid xenon is one of the most promising targets for WIMP dark matter direct detection. Above 10GeV, the most stringent limits on WIMP-nucleus cross section have been established by the LUX, XENON1T, and PANDAX-II collaborations, by using the technology of the two-phase xenon time projection chamber. In addition, several experiments using the same technology are in development, in particular...

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  6. Thomas Edwards (University of Amsterdam)
    23/07/2018, 15:40
    Direct Detection
    Talk

    We systematically approach the topic of signal diversity and model discrimination for a variety of future dark matter (DM) direct detection experiments. Firstly I introduce the Euclideanized signal method which will allow for a "benchmark-model-free” discussion of optimal experimental design. Secondly, I will present an intuitive way to quantify the sensitivity of experiments in terms of the...

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  7. Mr Shaun Alsum (UW - Madison)
    Direct Detection
    Talk

    We analyze the WIMP search data from the Large Underground Xenon (LUX) experiment 2014-2016 WIMP search run (a 33,480 kg-day exposure) under a non-relativistic effective field theory (EFT) framework. The WIMP nucleon coupling is investigated for fifteen different effective operators individually. The analysis of several of these operators motivates an expansion of the WIMP search energy...

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