Quantum state transfer via Bloch oscillations
arXiv:1511.09235 · doi:10.1038/srep26054
Abstract
The realization of reliable quantum channels, able to transfer a quantum state with high fidelity, is a fundamental step in the construction of scalable quantum devices. In this paper we describe a transmission scheme based on the genuinely quantum effect known as Bloch oscillations. The proposed protocol makes it possible to carry quantum state over different distances with a minimal engineering of the transmission medium and can be implemented and verified on current quantum technology hardware.
7 pages, 4 figures
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- Quantum-classical distance as a tool to design optimal chiral quantum walk
- Feedback-assisted quantum search by continuous-time quantum walks
- Dirac quantum walks on triangular and honeycomb lattices
- Quantum transfer of interacting qubits
- Continuous-time quantum walks in the presence of a quadratic perturbation
- The walker speaks its graph: global and nearly-local probing of the tunnelling amplitude in continuous-time quantum walks
- Which-way interference within biomimetic unit-cells for efficient energy transfer
- Dephasing assisted transport on a biomimetic ring structure