Atomic vapor-based high efficiency optical detectors with photon number resolution
arXiv:quant-ph/0206049 · doi:10.1103/PhysRevLett.89.183601
Abstract
We propose a novel approach to the important fundamental problem of detecting weak optical fields at the few photon level. The ability to detect with high efficiency (>99%), and to distinguish the number of photons in a given time interval is a very challenging technical problem with enormous potential pay-offs in quantum communications and information processing. Our proposal diverges from standard solid-state photo-detector technology by employing an atomic vapor as the active medium, prepared in a specific quantum state using laser radiation. The absorption of a photon will be aided by a dressing laser, and the presence or absence of an excited atom will be detected using the ``cycling transition'' approach perfected for ion traps. By first incorporating an appropriate upconversion scheme, our method can be applied to a wide variety of optical wavelengths.
4 pages, 2 figures
Cited by in corpus (35)
- Review article: Linear optical quantum computing
- Quantum information with Rydberg atoms
- Strongly Interacting Polaritons in Coupled Arrays of Cavities
- Efficient all-optical switching using slow light within a hollow fiber
- Quantum Many-Body Phenomena in Coupled Cavity Arrays
- Photon number resolution using a time-multiplexed single-photon detector
- Prospective applications of optical quantum memories
- A high-efficiency quantum non-demolition single photon number resolving detector
- Robust creation of entanglement between remote memory qubits
- Photon number resolving detection using time-multiplexing
- Fault-tolerant quantum repeater with atomic ensembles and linear optics
- Strong photon non-linearities and photonic Mott insulators
- Experimental Bell Inequality Violation with an Atom and a Photon
- Entangling single and atom qubits for fast quantum state detection and transmission
- A Bootstrapping Approach for Generating Maximally Path-Entangled Photon States
- Quantum state engineering assisted by entanglement
- A polaritonic two-component Bose-Hubbard model
- Nonlinear quantum optical computing via measurement
- Towards deterministic optical quantum computation with coherently driven atomic ensembles
- High-efficiency cluster-state generation with atomic ensembles via the dipole-blockade mechanism
- Cluster state generation with atomic ensembles via the dipole blockade mechanism
- Ultrafast initialization and QND-readout of a spin qubit via control of nanodot-vacuum coupling
- Nondestructive photon counting in waveguide QED
- Fast Entanglement Distribution with Atomic Ensembles and Fluorescent Detection
- Analysis of a photon number resolving detector based on an ion Coulomb crystal inside an optical cavity
- Experimental studies of light propagation and storage
- A Physical Quantum Agent
- Continuous-variables entanglement purification with atomic systems
- Quantum Repeaters based on Deterministic Storage of a Single Photon in distant Atomic Ensembles
- Teleportation-based number state manipulation with number sum measurement
- Input states for quantum gates
- The Physics of Learning
- Analysis for practical realization of number-state manipulation by number-sum Bell measurement with linear optics
- Conditional displacement operator for traveling fields
- Quantum Information Processing with Continuous Variables and Atomic Ensembles