0000000000037983

AUTHOR

Peter Zoller

showing 3 related works from this author

Rydberg excitation of trapped cold ions: a detailed case study

2011

We provide a detailed theoretical and conceptual study of a planned experiment to excite Rydberg states of ions trapped in a Paul trap. The ultimate goal is to exploit the strong state dependent interactions between Rydberg ions to implement quantum information processing protocols and to simulate the dynamics of strongly interacting spin systems. We highlight the promises of this approach when combining the high degree of control and readout of quantum states in trapped ion crystals with the novel and fast gate schemes based on interacting giant Rydberg atomic dipole moments. We discuss anticipated theoretical and experimental challenges on the way towards its realization.

PhysicsQuantum PhysicsAtomic Physics (physics.atom-ph)FOS: Physical sciencesGeneral Physics and Astronomy01 natural sciencesPhysics - Atomic Physics010305 fluids & plasmasIonsymbols.namesakeDipoleQuantum state0103 physical sciencesRydberg formulasymbolsPhysics::Atomic PhysicsIon trapAtomic physicsQuantum Physics (quant-ph)010306 general physicsSpin (physics)Realization (systems)ExcitationNew Journal of Physics
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Coherent and incoherent phonon processes in artificial atoms

2003

Carrier-phonon interaction in semiconductor quantum dots leads to three classes of phenomena: coherent effects (spectrum reconstruction) due to the nearly-dispersionless LO phonons, incoherent effects (transitions) induced by acoustical phonons and dressing phenomena, related to non-adiabatic, sub-picosecond excitation. Polaron spectra, relaxation times and dressing-related decoherence rates are calculated, in accordance with experiment.

PhysicsQuantum decoherenceCondensed matter physicsPhononExcitonRelaxation (NMR)Optical physicsCondensed Matter::Mesoscopic Systems and Quantum Hall EffectPolaronAtomic and Molecular Physics and OpticsCondensed Matter::Materials ScienceNonlinear Sciences::Exactly Solvable and Integrable SystemsQuantum dotCondensed Matter::Strongly Correlated ElectronsExcitationThe European Physical Journal D
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Atomic lattice excitons: from condensates to crystals

2007

We discuss atomic lattice excitons (ALEs), bound particle-hole pairs formed by fermionic atoms in two bands of an optical lattice. Such a system provides a clean setup to study fundamental properties of excitons, ranging from condensation to exciton crystals (which appear for a large effective mass ratio between particles and holes). Using both mean-field treatments and 1D numerical computation, we discuss the properities of ALEs under varying conditions, and discuss in particular their preparation and measurement.

Condensed Matter::Quantum GasesOptical latticeMaterials scienceExcitonComputationFOS: Physical sciencesGeneral Physics and Astronomy01 natural sciencesMolecular physics010305 fluids & plasmasCondensed Matter - Other Condensed MatterEffective mass (solid-state physics)0103 physical sciencesAtomic lattice010306 general physicsOther Condensed Matter (cond-mat.other)New Journal of Physics
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