An Efficient Algorithm for Optimizing Adaptive Quantum Metrology Processes
Alexander Hentschel, Barry C. Sanders

TL;DR
This paper presents a novel self-learning swarm-intelligence algorithm that optimizes feedback-based quantum metrology processes, capable of handling real-world imperfections to surpass the standard quantum limit.
Contribution
It introduces an efficient, adaptable algorithm for designing quantum metrology feedback procedures, improving over previous methods in robustness and practicality.
Findings
Algorithm successfully surpasses the SQL in simulations
Handles experimental imperfections and decoherence effectively
Demonstrates adaptability to real-world quantum systems
Abstract
Quantum-enhanced metrology infers an unknown quantity with accuracy beyond the standard quantum limit (SQL). Feedback-based metrological techniques are promising for beating the SQL but devising the feedback procedures is difficult and inefficient. Here we introduce an efficient self-learning swarm-intelligence algorithm for devising feedback-based quantum metrological procedures. Our algorithm can be trained with simulated or real-world trials and accommodates experimental imperfections, losses, and decoherence.
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