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The Reality of Casimir Friction
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For more than 35 years theorists have studied quantum or Casimir friction, which occurs when two smooth bodies move transversely to each other, experiencing a frictional dissipative force due to quantum electromagnetic fluctuations, which break time-reversal symmetry. These forces are typically very small, unless the bodies are nearly touching, and consequently such effects have never been observed, although lateral Casimir forces have been seen for corrugated surfaces. Partly because of the lack of contact with phenomena, theoretical predictions for the frictional force between parallel plates, or between a polarizable atom and a metallic plate, have varied widely. Here we review the history of these calculations, show that theoretical consensus is emerging, and offer some hope that it might be possible to experimentally confirm this phenomenon of dissipative quantum electrodynamics.
Forward citations
Cited by 2 Pith papers
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Spontaneous Torque on an Inhomogeneous Chiral Body out of Thermal Equilibrium
A chiral, inhomogeneous body out of thermal equilibrium with its environment experiences a spontaneous second-order quantum vacuum torque, reaching small observable terminal angular velocities.
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Perspectives on Quantum Friction, Self-Propulsion, and Self-Torque
A small chiral object that is hotter or colder than the surrounding vacuum should experience a spontaneous quantum torque and spin with an observable terminal angular velocity.
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