Abstract. We propose an approach for quantum simulation of electron-phonon interactions using Rydberg states of cold atoms and ions. We show how systems of cold atoms and ions can be mapped onto electron-phonon systems of the Su–Schrieffer– Heeger type. We discuss how properties of the simulated Hamiltonian can be tuned and how to read physically relevant properties from the simulator. In particular, use of painted spot potentials offers a high level of tunability, enabling all physically relevant regimes of the electron-phonon Hamiltonian to be accessed. PACS numbers: 37.10.Jk, 37.10.Ty, 73.20.Mf, 32.80.Ee, 32.80.Qk 1
Gauge theories are the cornerstone of our understanding of fundamental interactions among elementary...
We investigate the feasibility of simulating different model Hamiltonians used in high-temperature s...
We review Rydberg aggregates, assemblies of a few Rydberg atoms exhibiting energy transport through ...
We propose an approach for quantum simulation of electron–phonon interactions using Rydberg states o...
Quantum simulators could provide an alternative to numerical simulations for understanding minimal m...
In condensed matter, it is often difficult to untangle the effects of competing interactions, and th...
The interplay between many-body interactions and the kinetic energy gives rise to rich phase diagram...
We review a strategy to use an ion-based analog quantum simulator to study the many-body electron-el...
The main objective of quantum simulation is an in-depth understanding of many-body physics, which is...
Ultracold Rydberg atoms serve as good systems in which resonant dipole-dipole interactions can be ob...
Transport of excitations along proteins can be formulated in a quantum physics context, based on the...
Electron-phonon interactions play an important role in understanding the properties of many material...
The majority of quantum simulators treat simplified one-band strongly correlated models, whereas mul...
Summarization: We present a system for the simulation of Heisenberg models with spins s=12 and s=1 w...
Quantum simulation is the notion of experimentally controlling and manipulating physical quantum mec...
Gauge theories are the cornerstone of our understanding of fundamental interactions among elementary...
We investigate the feasibility of simulating different model Hamiltonians used in high-temperature s...
We review Rydberg aggregates, assemblies of a few Rydberg atoms exhibiting energy transport through ...
We propose an approach for quantum simulation of electron–phonon interactions using Rydberg states o...
Quantum simulators could provide an alternative to numerical simulations for understanding minimal m...
In condensed matter, it is often difficult to untangle the effects of competing interactions, and th...
The interplay between many-body interactions and the kinetic energy gives rise to rich phase diagram...
We review a strategy to use an ion-based analog quantum simulator to study the many-body electron-el...
The main objective of quantum simulation is an in-depth understanding of many-body physics, which is...
Ultracold Rydberg atoms serve as good systems in which resonant dipole-dipole interactions can be ob...
Transport of excitations along proteins can be formulated in a quantum physics context, based on the...
Electron-phonon interactions play an important role in understanding the properties of many material...
The majority of quantum simulators treat simplified one-band strongly correlated models, whereas mul...
Summarization: We present a system for the simulation of Heisenberg models with spins s=12 and s=1 w...
Quantum simulation is the notion of experimentally controlling and manipulating physical quantum mec...
Gauge theories are the cornerstone of our understanding of fundamental interactions among elementary...
We investigate the feasibility of simulating different model Hamiltonians used in high-temperature s...
We review Rydberg aggregates, assemblies of a few Rydberg atoms exhibiting energy transport through ...