TL;DR
This paper reviews how modes influence Casimir physics, emphasizing their role in understanding quantum fluctuations at equilibrium and nonequilibrium, and how they shape the phenomena in this field.
Contribution
It provides a comprehensive review of recent studies illustrating the impact of modes on Casimir phenomena and their central role in the field's conceptual framework.
Findings
Modes link zero-point energy to quantum fluctuations at equilibrium.
Modes determine the behavior of fluctuation-induced phenomena out of equilibrium.
Recent studies highlight the pivotal role of modes in shaping Casimir physics.
Abstract
Modes have steadily influenced the understanding of physical systems through time. At least since the prediction of the Casimir effect, they also play a very important role in Casimir Physics and in the understanding of the different phenomena typical of this research field. At equilibrium modes provide a direct connection between the zero-point energy and the existence of irreducible fluctuations in a quantum system, offering an anatomic view into the physics of the interaction. In nonequilibrium systems, modes can be decisive to understand the behavior of quantum fluctuation-induced phenomena, highlighting key aspects which determine their strength and their functional dependence. In this article we review some recent studies and results that highlight how modes impact Casimir physics and the central role they play in shaping our understanding of this area of research.
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