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      Trapped Atoms in One-Dimensional Photonic Crystals

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          Abstract

          We describe one-dimensional photonic crystals that support a guided mode suitable for atom trapping within a unit cell, as well as a second probe mode with strong atom-photon interactions. A new hybrid trap is analyzed that combines optical and Casimir-Polder forces to form stable traps for neutral atoms in dielectric nanostructures. By suitable design of the band structure, the atomic spontaneous emission rate into the probe mode can exceed the rate into all other modes by more than tenfold. The unprecedented single-atom reflectivity \(r_0 \gtrsim 0.9\) for the guided probe field should enable diverse investigations of photon-mediated interactions for 1D atom chains and cavity QED.

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          Most cited references12

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          The Quantum Internet

          H. Kimble (2008)
          Quantum networks offer a unifying set of opportunities and challenges across exciting intellectual and technical frontiers, including for quantum computation, communication, and metrology. The realization of quantum networks composed of many nodes and channels requires new scientific capabilities for the generation and characterization of quantum coherence and entanglement. Fundamental to this endeavor are quantum interconnects that convert quantum states from one physical system to those of another in a reversible fashion. Such quantum connectivity for networks can be achieved by optical interactions of single photons and atoms, thereby enabling entanglement distribution and quantum teleportation between nodes.
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            Quantum state transfer and entanglement distribution among distant nodes in a quantum network

            We propose a scheme to utilize photons for ideal quantum transmission between atoms located at spatially-separated nodes of a quantum network. The transmission protocol employs special laser pulses which excite an atom inside an optical cavity at the sending node so that its state is mapped into a time-symmetric photon wavepacket that will enter a cavity at the receiving node and be absorbed by an atom there with unit probability. Implementation of our scheme would enable reliable transfer or sharing of entanglement among spatially distant atoms.
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              Quantum State Engineering and Precision Metrology using State-Insensitive Light Traps

              Precision metrology and quantum measurement often demand matter be prepared in well defined quantum states for both internal and external degrees of freedom. Laser-cooled neutral atoms localized in a deeply confining optical potential satisfy this requirement. With an appropriate choice of wavelength and polarization for the optical trap, two electronic states of an atom can experience the same trapping potential, permitting coherent control of electronic transitions independent of the atomic center-of-mass motion. We review a number of recent experiments that use this approach to investigate precision quantum metrology for optical atomic clocks and coherent control of optical interactions of single atoms and photons within the context of cavity quantum electrodynamics. We also provide a brief survey of promising prospects for future work.
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                Author and article information

                Journal
                22 January 2013
                Article
                10.1088/1367-2630/15/8/083026
                1301.5252
                123130fb-4cab-447c-a46c-44541d0075bc

                http://arxiv.org/licenses/nonexclusive-distrib/1.0/

                History
                Custom metadata
                New Journal of Physics 15 (2013) 083026
                7 pages with 5 figures
                physics.optics physics.atom-ph quant-ph

                Quantum physics & Field theory,Optical materials & Optics,Atomic & Molecular physics

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