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This review provides a rigorous framework for quantifying optical quantumness, distinguishing genuine quantum states from classical counterparts to enable practical realization of quantum advantage. By examining both theoretical and operational lenses, the paper establishes essential metrics for characterizing light in emerging quantum technologies. It serves as a foundational reference for researchers developing photonic quantum processors and communication systems.
How Quantum Is Light? Concepts, Measures, and Applications of Optical Quantumness
arXiv:2610.25894v1 Announce Type: new Abstract: Quantum states are ultimately responsible for numerous counterintuitive phenomena that defy classical intuition. As the development of quantum technologies accelerates, our ability to harness these quantum resources becomes essential. This review addresses a fundamental question. How do we quantify the quantumness of a state, and which specific traits distinguish it from its classical counterparts? We examine quantumness through both theoretical and operational lenses, providing a clear framework for state characterization. Ultimately, we demonstrate that certifying quantumness is not just a theoretical exercise. It is a practical necessity for identifying, and realizing quantum advantage in real-world applications.
Title:How Quantum Is Light? Concepts, Measures, and Applications of Optical Quantumness
Abstract:Quantum states are ultimately responsible for numerous counterintuitive phenomena that defy classical intuition. As the development of quantum technologies accelerates, our ability to harness these quantum resources becomes essential. This review addresses a fundamental question. How do we quantify the quantumness of a state, and which specific traits distinguish it from its classical counterparts? We examine quantumness through both theoretical and operational lenses, providing a clear framework for state characterization. Ultimately, we demonstrate that certifying quantumness is not just a theoretical exercise. It is a practical necessity for identifying, and realizing quantum advantage in real-world applications.
arXiv:2610.25894 [quant-ph]
(or arXiv:2610.25894v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2610.25894 Focus to learn more arXiv-issued DOI via DataCite
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