Proposed optical realisation of a two photon, four-qubit entangled \(\chi\) state
The four-qubit states \(\lvert\chi^{ij}\rangle\), exhibiting genuinely multi-partite entanglement have been shown to have many interesting properties and have been suggested for novel applications in quantum information processing. In this work we propose a simple quantum circuit and its correspondi...
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description | The four-qubit states \(\lvert\chi^{ij}\rangle\), exhibiting genuinely multi-partite entanglement have been shown to have many interesting properties and have been suggested for novel applications in quantum information processing. In this work we propose a simple quantum circuit and its corresponding optical embodiment with which to prepare photon pairs in the \(\lvert\chi^{ij}\rangle\) states. Our approach uses hyper-entangled photon pairs, produced by the type-I spontaneous parametric down-conversion (SPDC) process in two contiguous nonlinear crystals, together with a set of simple linear-optical transformations. Our photon pairs are maximally hyper-entangled in both their polarisation and orbital angular momentum (OAM). After one of these daughter photons passes through our optical setup, we obtain photon pairs in the hyper-entangled state \(\lvert\chi^{00}\rangle\), and the \(\lvert\chi^{ij}\rangle\) states can be achieved by further simple transformations. |
doi_str_mv | 10.48550/arxiv.1703.01965 |
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In this work we propose a simple quantum circuit and its corresponding optical embodiment with which to prepare photon pairs in the \(\lvert\chi^{ij}\rangle\) states. Our approach uses hyper-entangled photon pairs, produced by the type-I spontaneous parametric down-conversion (SPDC) process in two contiguous nonlinear crystals, together with a set of simple linear-optical transformations. Our photon pairs are maximally hyper-entangled in both their polarisation and orbital angular momentum (OAM). 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subjects | Angular momentum Data processing Photons Quantum entanglement Quantum phenomena Quantum theory Qubits (quantum computing) Transformations |
title | Proposed optical realisation of a two photon, four-qubit entangled \(\chi\) state |
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