activity
20172021
most citedQuantum simulation of topologically protected states using directionally unbiased linear-optical multiports

12 citations · 36 across the 3 of their papers we have counts for

collaborators

8 papers

quant-ph202112 cited

Controllable entangled state distribution in a dual-rail reconfigurable optical network

Shuto Osawa, David S. Simon, Vladimir S. Malinovsky +1

Reconfigurable distribution of entangled states is essential for operation of quantum networks connecting multiple devices such as quantum memories and quantum computers. We introd…

quant-ph202012 cited

Higher-dimensional Hong-Ou-Mandel effect and state redistribution with linear-optical multiports

Shuto Osawa, David S. Simon, Alexander V. Sergienko

We expand the two-photon Hong-Ou-Mandel (HOM) effect onto a higher-dimensional set of spatial modes and introduce an effect that allows controllable redistribution of quantum state…

quant-ph2020

Quantum-Clustered Two-Photon Walks

David S. Simon, Shuto Osawa, Alexander V. Sergienko

We demonstrate a previously unknown two-photon effect in a discrete-time quantum walk. Two identical bosons with no mutual interactions nonetheless can remain clustered together as…

quant-ph2019

Directionally-Unbiased Unitary Optical Devices in Discrete-Time Quantum Walks

Shuto Osawa, David S. Simon, Alexander V. Sergienko

The optical beam splitter is a widely-used device in photonics-based quantum information processing. Specifically, linear optical networks demand large numbers of beam splitters fo…

quant-ph2018

Experimental demonstration of a directionally-unbiased linear-optical multiport

Shuto Osawa, David S. Simon, Alexander V. Sergienko

All existing optical quantum walk approaches are based on the use of beamsplitters and multiple paths to explore the multitude of unitary transformations of quantum amplitudes in a…

quant-ph2018

Joint Entanglement of Topology and Polarization Enables Error-Protected Quantum Registers

David S. Simon, Shuto Osawa, Alexander V. Sergienko

Linear-optical systems can implement photonic quantum walks that simulate systems with nontrivial topological properties. Here, such photonic walks are used to jointly entangle pol…