Stokes Parameters and Dual Classical-Quantum Signaling

Fuente: arXiv
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Bibliographic Details
Main Authors: Dhiman, Anjali, Wang, Ziqing, Ralph, Timothy C., Aguinaldo, Ryan, Malaney, Robert
Format: Preprint
Published: 2025
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author Dhiman, Anjali
Wang, Ziqing
Ralph, Timothy C.
Aguinaldo, Ryan
Malaney, Robert
author_facet Dhiman, Anjali
Wang, Ziqing
Ralph, Timothy C.
Aguinaldo, Ryan
Malaney, Robert
contents Catering to emerging satellite-based free-space optical (FSO) communication networks and exploiting polarization encoding via Stokes operators, we propose a novel simultaneous quantum-classical communications (SQCC) protocol. The protocol enables the coexistence of secure quantum communications and high-throughput classical communications with minimal alterations in both the infrastructure and the energy input. Compared to the conventional SQCC protocol, our new approach provides superior practicality in the real world, eliminates the need for a separate local oscillator, and allows for the simple readout of both quantum and classical information using direct detection. The protocol also minimizes the undesirable interplay between the quantum and the classical parts of communication. We provide a detailed mathematical formulation of the protocol, along with theoretical and numerical analysis of its performance, illustrating a promising path to practical and effective realization of combined classical-quantum communications
format Preprint
id arxiv_https___arxiv_org_abs_2508_08630
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Stokes Parameters and Dual Classical-Quantum Signaling
Dhiman, Anjali
Wang, Ziqing
Ralph, Timothy C.
Aguinaldo, Ryan
Malaney, Robert
Quantum Physics
Catering to emerging satellite-based free-space optical (FSO) communication networks and exploiting polarization encoding via Stokes operators, we propose a novel simultaneous quantum-classical communications (SQCC) protocol. The protocol enables the coexistence of secure quantum communications and high-throughput classical communications with minimal alterations in both the infrastructure and the energy input. Compared to the conventional SQCC protocol, our new approach provides superior practicality in the real world, eliminates the need for a separate local oscillator, and allows for the simple readout of both quantum and classical information using direct detection. The protocol also minimizes the undesirable interplay between the quantum and the classical parts of communication. We provide a detailed mathematical formulation of the protocol, along with theoretical and numerical analysis of its performance, illustrating a promising path to practical and effective realization of combined classical-quantum communications
title Stokes Parameters and Dual Classical-Quantum Signaling
topic Quantum Physics
url https://arxiv.org/abs/2508.08630