7–8 Nov 2024
Bayerische Akademie der Wissenschaften
Europe/Berlin timezone

Session

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Bayerische Akademie der Wissenschaften

Bayerische Akademie der Wissenschaften

Alfons-Goppel-Straße 11 80539 München

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  1. Berkin Ulukutlu (TUM)

    The ALICE experiment at CERN is in the process of upgrading its Inner Tracking System (ITS). This upgrade (ITS3), involves replacing the innermost tracking layers with wafer scale cylindrically bent MAPS (Monolithic Active Pixel Sensors) chips. The inner layers will be positioned closer to the collision points while significantly reducing the material budget, which will notably enhance the...

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  2. Matthias Meier (TUM/MPP)

    ComPol is using a Silicon Drift Detector, together with a CeBr3 scintillator read out by a SiPM matrix to capture the kinematics of Compton scattering events. Thanks to the intrinsic dependency of the scattering process, it is possible to reconstruct the initial polarization of the incoming X-rays in the analysis.
    The poster covers: astrophysical motivation, detector setup, position...

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  3. Susanne Mertens (Technical University of Munich)

    LEGEND - Large Enriched Germanium Experiment for Neutrinoless double beta Decay

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  4. Nadezda Rumyantseva (Technical University of Munich)

    Liquid Argon Instrumentation for background suppression in the LEGEND-200 experiment

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  5. Lena Kirchner (TUM)

    The ITS3 upgrade will introduce a new bent wafer-scale MAPS detector, which makes use of air-cooling instead of water-cooling. This reduces the material budget significantly, but cooling might become less homogeneous. In this project, the functionality and performance of the APTS, DPTS and BabyMOSS chips were investigated across various temperature ranges, offering the opportunity for...

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  6. Juan Pablo Ulloa Beteta (TU Munich)

    -Silicon drift detectors
    - All-semiconductor active-shield detector

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  7. Daniel Siegmann (TUM)

    From indirect observations of the universe, we know that at least 80 % of all matter is made of galactic dark matter. As a minimal extension to the standard model of particle physics, the so-called sterile neutrinos in the keV mass range pose a viable candidate for dark matter. One way to search for these sterile neutrinos in a laboratory-based experiment is via tritium beta decay. A sterile...

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