Statistical intrusion detection and eavesdropping in quantum channels with coupling: Multiple-preparation and single-preparation methods
Yannick Deville, Alain Deville, Ali Mansour, Razvan Scripcaru, Cornel, Ioana

TL;DR
This paper introduces novel quantum intrusion detection methods for asymmetric quantum channels using coupling models, focusing on single-preparation strategies to enhance security against eavesdropping.
Contribution
It develops new intrusion detection techniques for asymmetric quantum channels based on a general quantum information framework, emphasizing single-preparation methods.
Findings
New intrusion detection methods for quantum channels
Single-preparation approach enhances detection capabilities
Extension potential beyond analyzed channel classes
Abstract
Classical, i.e. non-quantum, communications include configurations with multiple-input multiple-output (MIMO) channels. Some associated signal processing tasks consider these channels in a symmetric way, i.e. by assigning the same role to all channel inputs, and similarly to all channel outputs. These tasks especially include channel identification/estimation and channel equalization, tightly connected with source separation. Their most challenging version is the blind one, i.e. when the receivers have (almost) no prior knowledge about the emitted signals. Other signal processing tasks consider classical communication channels in an asymmetric way. This especially includes the situation when data are sent by Emitter 1 to Receiver 1 through a main channel, and an "intruder" (including Receiver 2) interferes with that channel so as to extract information, thus performing so-called…
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Taxonomy
TopicsQuantum Information and Cryptography · Quantum-Dot Cellular Automata · Quantum Computing Algorithms and Architecture
