Summary
DyMETEr aims at creating novel quantum platforms of enhanced capability by using ultracold Erbium and Dysprosium atoms as building-block to unprecedentedly access many-body phases of dipolar mixtures, dipolar-gas microscopy, and multi-valence-electron Rydberg quantum simulators.
By pushing the limits of interaction control using tailored optical potentials and Rydberg excitations, as well as state read-out through the application of quantum-gas-microscopy techniques, we will harness the multi-valance-electron nature of magnetic lanthanides to deepen our understanding of unconventional phases and phenomena of quantum matter -- in particular, those arising from the combined effects of short- and long-range interactions.
The main project objectives are:
•The bulk phases of matter in dipolar quantum mixtures: Accessing the unexplored miscibility-immiscibility phase diagram of dipolar quantum mixtures in the droplet and supersolid regime.
•Microscopy and lattice physics with quantum dipoles: Developing quantum-gas microscopy for magnetic atoms to access quantum simulation with long-range-interacting atomic systems.
•Tweezer arrays with multi-valence-electron Rydberg atoms: Realizing novel Rydberg quantum simulators exploiting the multi-electron nature of magnetic lanthanide atoms.
Our project is very ambitious, but, if successful, has clearly the potential to break new ground in dipolar quantum physics with ultracold atoms.
By pushing the limits of interaction control using tailored optical potentials and Rydberg excitations, as well as state read-out through the application of quantum-gas-microscopy techniques, we will harness the multi-valance-electron nature of magnetic lanthanides to deepen our understanding of unconventional phases and phenomena of quantum matter -- in particular, those arising from the combined effects of short- and long-range interactions.
The main project objectives are:
•The bulk phases of matter in dipolar quantum mixtures: Accessing the unexplored miscibility-immiscibility phase diagram of dipolar quantum mixtures in the droplet and supersolid regime.
•Microscopy and lattice physics with quantum dipoles: Developing quantum-gas microscopy for magnetic atoms to access quantum simulation with long-range-interacting atomic systems.
•Tweezer arrays with multi-valence-electron Rydberg atoms: Realizing novel Rydberg quantum simulators exploiting the multi-electron nature of magnetic lanthanide atoms.
Our project is very ambitious, but, if successful, has clearly the potential to break new ground in dipolar quantum physics with ultracold atoms.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/101054500 |
| Start date: | 01-10-2022 |
| End date: | 30-09-2027 |
| Total budget - Public funding: | 2 498 160,00 Euro - 2 498 160,00 Euro |
Cordis data
Original description
DyMETEr aims at creating novel quantum platforms of enhanced capability by using ultracold Erbium and Dysprosium atoms as building-block to unprecedentedly access many-body phases of dipolar mixtures, dipolar-gas microscopy, and multi-valence-electron Rydberg quantum simulators.By pushing the limits of interaction control using tailored optical potentials and Rydberg excitations, as well as state read-out through the application of quantum-gas-microscopy techniques, we will harness the multi-valance-electron nature of magnetic lanthanides to deepen our understanding of unconventional phases and phenomena of quantum matter -- in particular, those arising from the combined effects of short- and long-range interactions.
The main project objectives are:
•The bulk phases of matter in dipolar quantum mixtures: Accessing the unexplored miscibility-immiscibility phase diagram of dipolar quantum mixtures in the droplet and supersolid regime.
•Microscopy and lattice physics with quantum dipoles: Developing quantum-gas microscopy for magnetic atoms to access quantum simulation with long-range-interacting atomic systems.
•Tweezer arrays with multi-valence-electron Rydberg atoms: Realizing novel Rydberg quantum simulators exploiting the multi-electron nature of magnetic lanthanide atoms.
Our project is very ambitious, but, if successful, has clearly the potential to break new ground in dipolar quantum physics with ultracold atoms.
Status
SIGNEDCall topic
ERC-2021-ADGUpdate Date
09-02-2023
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