6–9 Sept 2022
Physics Department, University "La Sapienza", Roma, Italy
Europe/Rome timezone

Session

Direct DM searches

7 Sept 2022, 14:00
Aula Amaldi (Physics Department, University "La Sapienza", Roma, Italy)

Aula Amaldi

Physics Department, University "La Sapienza", Roma, Italy

Piazzale Aldo Moro 2 00185 Roma

Conveners

Direct DM searches: - 1

  • Ranny Budnik (Weizmann Institute of Science)
  • Elisabetta Baracchini (Istituto Nazionale di Fisica Nucleare)

Direct DM searches: - 2

  • Elisabetta Baracchini (Istituto Nazionale di Fisica Nucleare)
  • Ranny Budnik (Weizmann Institute of Science)

Presentation materials

There are no materials yet.

  1. Lutz Althüser (University of Münster)
    07/09/2022, 14:00

    XENONnT is the follow-up to the XENON1T experiment aming for the direct detection of dark matter using a liquid xenon (LXe) time projection chamber (TPC). The detector, operated at Laboratori Nazionali del Gran Sasso (LNGS) in Italy, features a total LXe mass of 8.5 tonnes of which about 6 tonnes are active. XENONnT has completed its first science run and is currently taking data for the...

    Go to contribution page
  2. Paolo Agnes (RHUL/TRIUMF)
    07/09/2022, 14:20

    DarkSide run since mid 2015 a 50-kg-active-mass dual phase Liquid Argon Time Projection Chamber (TPC), filled with low radioactivity argon from an underground source and produced world class results for both the low mass ($𝑀<20$ 𝐺𝑒𝑉/c$^2$) and high mass ($𝑀 >100 $ 𝐺𝑒𝑉/𝑐$^2$) direct detection search for dark matter.
    The next stage of the DarkSide program will be a new generation experiment...

    Go to contribution page
  3. Vanessa Zema (Gran Sasso Science Institute)
    07/09/2022, 14:40

    Unveiling the nature of dark matter is one of the main goals of modern particle physics. Dark matter direct detection experiments aim at solving the problem by measuring tiny energies deposited inside the detector by dark matter particles interacting with the target materials. Several techniques have been developed to explore the full parameter space of cross-sections and dark matter masses....

    Go to contribution page
  4. Dr Angelo Esposito (Princeton IAS)
    07/09/2022, 15:00

    I will discuss some possible ways of looking for sub-MeV dark matter using the emission of collective excitations in different media. In particular, I will discuss the possibility of probing spin-independent interactions using superfluid He-4, and spin-dependent ones using antiferromagnets (specifically, NiO and MnF2).
    In doing that, I will employ a new theoretical tool, very familiar to high...

    Go to contribution page
  5. Giorgio Dho (Istituto Nazionale di Fisica Nucleare)
    07/09/2022, 15:20

    In the last decades, the existance of Dark Matter (DM) has become well established, even though its nature is still elusive and unknown. The majority of the experiments searching for a direct signature of DM look at the energy of nuclear recoils induced by scattering with DM candidates. However, the motion of the Earth in the Galaxy produces an apparent wind of DM particles coming from the...

    Go to contribution page
  6. Noemi Pino
    07/09/2022, 15:40

    The Recoil Directionality project (ReD) within the Global Argon Dark Matter Collaboration aims to characterize the light and charge response of liquid argon (LAr) dual-phase Time Projection Chamber (TPC) to neutron-induced nuclear recoils. The main goal of the project is to probe for the possible directional dependence suggested by the SCENE experiment. Furthermore, ReD is also designed to...

    Go to contribution page
  7. Federico Virzi
    07/09/2022, 17:00

    The ANDROMeDa (Aligned Nanotube Detector for Research On MeV Darkmatter) project aims to develop a novel Dark Matter (DM) detector based on carbon nanotubes: the Dark-PMT. The detector is designed to be sensitive to DM particles with mass between 1 MeV and 1 GeV. The detection scheme is based on DM-electron scattering inside a target made of vertically-aligned carbon nanotubes. Carbon...

    Go to contribution page
  8. Roberta Calabrese (Istituto Nazionale di Fisica Nucleare)
    07/09/2022, 17:20

    Primordial Black Holes are hypothetical Black Holes formed in the very early universe and are potential Dark Matter Candidates. Focusing on the Primordial Black Holes mass range [$5\cdot10^{14}$−$1\cdot10^{17}$] g, we point out that their evaporation can produce detectable signals in existing experiments. First of all, we study neutrinos emitted by PBHs evaporation. They can interact through...

    Go to contribution page
Building timetable...