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research activity plan for 2023
WIMP Direct Detection:
SABRE South:
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• Construction and assembly of SABRE South in SUPL
• Phase 1 Commissioning of the experiment
• Technical design report and white paper theory experiments
R&D Cygnus:
• Augmentation of CYGNUS-1 prototype with intensified camera readout
• Indentification of translation applications and focus on fast neutron detection
• Development of CYGNUS-Oz underground directional detection program
• 8th CYGNUS workshop on Directional Recoil Detection to be hosted by UoS
Current and next generation liquid xenon TPCs:
• Contributions to simulations and detector monitoring sensors
• XLZD design and sensitivity studies
Axion and WISP Direct Detection:
• ORGAN Phase 1b and ORGAN-Q operations and data analysis
• R&D on novel quantum technologies and to produce cavity resonators for ORGAN Phase 2
• Investigate cryogenic implementation of UPLOAD
• Increase the range of axion masses covered by the ADMX and ORGAN experiments
• ADMX sensitivity studies for future dark matter high and low mass extensions
• Improve the sensitivity of Scalar DM detection experiments to extend their scope to search for WIMPs and gravitational waves
Precision metrology (nuclear):
• Continued development of an AMS capacity to measure 210Pb at ANSTO accelerator
• Commissioning of the integrated fast isotope switching / timeof-flight detection systems
• Commissioning a new low background germanium detector at the ANU
• Progress ICP-MS measurement sensitivity and capability for 40K and other relevant naturally occurring radionuclides
LHC:
• Complete searches for invisible Higgs decays and final states with jets and missing transverse momentum
• Extend analyses techniques for further novel searches for Dark Matter
• Production and QC of the silicon detectors for the ATLAS inner tracker upgrade for High luminosity LHC
Theory:
• Project the sensitivity of Migdal-effect constraints on light dark matter in new experimental configurations
• Study the thermalisation of dark matter in neutron stars
• Determine the effect of a dark photon on high energy scattering data
• Better understand and quantify the impact of nuclear structure on dark matter direct detection rates
• Perform global fits to dark matter direct detection data, incorporating nuclear, astrophysical and quenching uncertainties
• Determine constraints on and potential new signatures of wellmotivated dark matter models.