Tripartite entangled states, such as Greenberger-Horne-Zeilinger and W states, are typically generated by manipulating two pairs of polarization-entangled photons in bulk optics. Here we propose a scheme to generate W states that are entangled in the energy degree of freedom in an integrated optical circuit. Our approach employs photon pairs generated by spontaneous four-wave mixing in a microring resonator. We also present a feasible procedure for demonstrating the generation of such a state, and we compare polarization-entangled and energy-entangled schemes for the preparation of W states
We show that integrated optical frequency comb sources, based on on-chip microring resonators, can b...
We experimentally demonstrate the generation of high-order photon encoded W-states involving up to 1...
The quantum Zeno effect reveals that the continuous observation of a quantum system can result in si...
We experimentally demonstrate the generation of a three-photon discrete-energy-entangled W state usi...
We propose an optical scheme to prepare large-scale entangled networks of W states. The scheme works...
In large quantum systems, multipartite entanglement can be found in many inequivalent classes. Prepa...
In order to create polarization based entanglement networks of W-4 state, we propose an optical setu...
Multipartite entanglement plays a central role in optical quantum technologies. One way to entangle ...
We propose an alternative scheme to generate the W state via optical state truncation using quantum ...
Abstract: We present two schemes for generating four-photon states: one for direct GHZ state generat...
We show how to prepare four-photon polarization entangled states based on some Einstein-Po...
In order to create polarization based entanglement networks of W4 state, we propose an optical setup...
We experimentally demonstrate the generation of high-order photon encoded W-states involving up to 1...
We present a novel technique for generating two-photon polarization mixed states of any structure, w...
We propose a method to generate a narrowband triphoton W state entangled in time (or energy) via two...
We show that integrated optical frequency comb sources, based on on-chip microring resonators, can b...
We experimentally demonstrate the generation of high-order photon encoded W-states involving up to 1...
The quantum Zeno effect reveals that the continuous observation of a quantum system can result in si...
We experimentally demonstrate the generation of a three-photon discrete-energy-entangled W state usi...
We propose an optical scheme to prepare large-scale entangled networks of W states. The scheme works...
In large quantum systems, multipartite entanglement can be found in many inequivalent classes. Prepa...
In order to create polarization based entanglement networks of W-4 state, we propose an optical setu...
Multipartite entanglement plays a central role in optical quantum technologies. One way to entangle ...
We propose an alternative scheme to generate the W state via optical state truncation using quantum ...
Abstract: We present two schemes for generating four-photon states: one for direct GHZ state generat...
We show how to prepare four-photon polarization entangled states based on some Einstein-Po...
In order to create polarization based entanglement networks of W4 state, we propose an optical setup...
We experimentally demonstrate the generation of high-order photon encoded W-states involving up to 1...
We present a novel technique for generating two-photon polarization mixed states of any structure, w...
We propose a method to generate a narrowband triphoton W state entangled in time (or energy) via two...
We show that integrated optical frequency comb sources, based on on-chip microring resonators, can b...
We experimentally demonstrate the generation of high-order photon encoded W-states involving up to 1...
The quantum Zeno effect reveals that the continuous observation of a quantum system can result in si...