Light Dark Matter: New Directions for Theory and Detection
This project aims to explore theoretical frameworks and detection methods for light dark matter, laying the groundwork for future experimental discoveries in understanding its identity.
Projectdetails
Introduction
Dark matter is one of the biggest mysteries of the universe, yet its particle identity is unknown. This proposal focuses on light dark matter (LDM), with mass below a GeV.
Research Directions
In Light-Dark, I will pursue two intrinsically complementary directions:
- Theoretical Frameworks for LDM: I will explore novel theoretical frameworks for LDM.
- Direct Detection Concepts: I will develop new theoretical concepts to directly detect it in the laboratory.
This pioneering theory work will lay the foundation for future experimental realizations and is crucial in the quest to unearth the identity of dark matter. I will carry out a comprehensive research program designed to tackle these challenges, and I believe that I am uniquely positioned to do so.
Theoretical Frameworks
Regarding (I), the wealth of annihilation channels, scattering processes, self-interactions, decay modes, and mass splittings opens up a host of possible frameworks to set the LDM abundance, which I will explore.
I have already proposed a paradigm-shifting idea in the form of the Strongly Interacting Massive Particle (SIMP) mechanism, which, along with other new ideas for LDM, will be thoroughly studied.
Direct Detection
Regarding (II), the study of novel target materials for LDM, sensitive sensors, collective excitations, detection philosophies, and the interplay between them is crucially still in its infancy.
I will explore new theoretical concepts and synergies in these experimental aspects, including:
- The use of superconducting nanowires
- Microwave kinetic inductance devices
- 2D layered materials
- Ferroelectrics
- Directionality
These approaches have prospects to detect LDM orders of magnitude beyond current abilities, down to the meV scale.
Proof-of-Principle
Proof-of-principle has already been established for nanowires, where, using data from a tiny prototype device, I have already broken new ground in LDM parameter space.
Conclusion
The innovative theoretical approaches presented here open up an exciting and groundbreaking field of research. The proposed investigations are both timely and essential, paving the way towards a dark matter discovery.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.500.000 |
Totale projectbegroting | € 1.500.000 |
Tijdlijn
Startdatum | 1-5-2022 |
Einddatum | 30-4-2027 |
Subsidiejaar | 2022 |
Partners & Locaties
Projectpartners
- THE HEBREW UNIVERSITY OF JERUSALEMpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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---|---|---|---|---|
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New Light On Dark Matter
This project aims to enhance dark matter detection and understanding by developing theoretical frameworks for photon and electron production in DM interactions, improving experimental verification and astrophysical implications.
Quantum Technologies for Axion Dark Matter Search
The DarkQuantum project aims to detect axions as a solution to dark matter using innovative quantum sensing technologies in particle physics environments, potentially revolutionizing our understanding of the universe.
Search for Milli-lenses to discriminate between dark matter models
This project aims to investigate dark matter by using VLBI to search for gravitational lenses in active galaxies, potentially confirming new lens systems or refining constraints on compact object abundance.
Astro Dark Large & Small
The AstroDarkLS project aims to explore and test theories of light particles like axions and dark photons through astrophysical phenomena, bridging particle physics, astrophysics, and cosmology.
Dark matter and neutrino experiment with monolithic arrays of cryogenic detectors
DANAE aims to enhance the detection of low energy neutrinos and Dark Matter by using advanced superconducting detectors to measure nuclear recoils, potentially leading to groundbreaking discoveries.