Polaritonic XY-Ising machine

Gain-dissipative systems of various physical origin have recently shown the ability to act as analogue minimisers of hard combinatorial optimisation problems. Whether or not these proposals will lead to any advantage in performance over the classical computations depends on the ability to establish...

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Main Authors: Kalinin Kirill P., Amo Alberto, Bloch Jacqueline, Berloff Natalia G.
Format: Article
Language:English
Published: De Gruyter 2020-06-01
Series:Nanophotonics
Subjects:
Online Access:https://doi.org/10.1515/nanoph-2020-0162
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spelling doaj-d506bad3f8924a91b7729282034855442021-09-06T19:20:35ZengDe GruyterNanophotonics2192-86062192-86142020-06-019134127413810.1515/nanoph-2020-0162nanoph-2020-0162Polaritonic XY-Ising machineKalinin Kirill P.0Amo Alberto1Bloch Jacqueline2Berloff Natalia G.3Department of Applied Mathematics and Theoretical Physics, University of Cambridge, Cambridge, CB3 0WA, UKUniv. Lille, CNRS, UMR 8523 – PhLAM – Physique des Lasers Atomes et Molécules, Lille, F-59000, FranceUniversité Paris-Saclay, CNRS, Centre de Nanosciences et de Nanotechnologies, Palaiseau, 91120, FranceDepartment of Applied Mathematics and Theoretical Physics, University of Cambridge, Cambridge, CB3 0WA, UKGain-dissipative systems of various physical origin have recently shown the ability to act as analogue minimisers of hard combinatorial optimisation problems. Whether or not these proposals will lead to any advantage in performance over the classical computations depends on the ability to establish controllable couplings for sufficiently dense short- and long-range interactions between the spins. Here, we propose a polaritonic XY-Ising machine based on a network of geometrically isolated polariton condensates capable of minimising discrete and continuous spin Hamiltonians. We elucidate the performance of the proposed computing platform for two types of couplings: relative and absolute. The interactions between the network nodes might be controlled by redirecting the emission between the condensates or by sending the phase information between nodes using resonant excitation. We discuss the conditions under which the proposed machine leads to a pure polariton simulator with pre-programmed couplings or results in a hybrid classical polariton simulator. We argue that the proposed architecture for the remote coupling control offers an improvement over geometrically coupled condensates in both accuracy and stability as well as increases versatility, range, and connectivity of spin Hamiltonians that can be simulated with polariton networks.https://doi.org/10.1515/nanoph-2020-0162analogue computing machineexciton-polaritonsising hamiltonianpolaritonic xy-ising machinexy hamiltonianunconventional computing
collection DOAJ
language English
format Article
sources DOAJ
author Kalinin Kirill P.
Amo Alberto
Bloch Jacqueline
Berloff Natalia G.
spellingShingle Kalinin Kirill P.
Amo Alberto
Bloch Jacqueline
Berloff Natalia G.
Polaritonic XY-Ising machine
Nanophotonics
analogue computing machine
exciton-polaritons
ising hamiltonian
polaritonic xy-ising machine
xy hamiltonian
unconventional computing
author_facet Kalinin Kirill P.
Amo Alberto
Bloch Jacqueline
Berloff Natalia G.
author_sort Kalinin Kirill P.
title Polaritonic XY-Ising machine
title_short Polaritonic XY-Ising machine
title_full Polaritonic XY-Ising machine
title_fullStr Polaritonic XY-Ising machine
title_full_unstemmed Polaritonic XY-Ising machine
title_sort polaritonic xy-ising machine
publisher De Gruyter
series Nanophotonics
issn 2192-8606
2192-8614
publishDate 2020-06-01
description Gain-dissipative systems of various physical origin have recently shown the ability to act as analogue minimisers of hard combinatorial optimisation problems. Whether or not these proposals will lead to any advantage in performance over the classical computations depends on the ability to establish controllable couplings for sufficiently dense short- and long-range interactions between the spins. Here, we propose a polaritonic XY-Ising machine based on a network of geometrically isolated polariton condensates capable of minimising discrete and continuous spin Hamiltonians. We elucidate the performance of the proposed computing platform for two types of couplings: relative and absolute. The interactions between the network nodes might be controlled by redirecting the emission between the condensates or by sending the phase information between nodes using resonant excitation. We discuss the conditions under which the proposed machine leads to a pure polariton simulator with pre-programmed couplings or results in a hybrid classical polariton simulator. We argue that the proposed architecture for the remote coupling control offers an improvement over geometrically coupled condensates in both accuracy and stability as well as increases versatility, range, and connectivity of spin Hamiltonians that can be simulated with polariton networks.
topic analogue computing machine
exciton-polaritons
ising hamiltonian
polaritonic xy-ising machine
xy hamiltonian
unconventional computing
url https://doi.org/10.1515/nanoph-2020-0162
work_keys_str_mv AT kalininkirillp polaritonicxyisingmachine
AT amoalberto polaritonicxyisingmachine
AT blochjacqueline polaritonicxyisingmachine
AT berloffnataliag polaritonicxyisingmachine
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