Periodically reversing an impurity's coupling to a Bose gas produces a negative low-velocity drag above a critical frequency, making the polaron self-propel.
Title resolution pending
5 Pith papers cite this work. Polarity classification is still indexing.
years
2026 5representative citing papers
Chiral order in 2D nonreciprocal flocks is generically unstable and destroyed by defect proliferation, yielding spatiotemporally chaotic dynamics with a diverging correlation length as nonreciprocity vanishes.
Cellular Potts model simulations uncover multiscale orientational order, actin-driven flocking transitions, and phenotypic hysteresis in epithelial monolayers.
Active torques added to a turning flock model introduce non-reciprocity that enhances information transfer speed, which emerges as a function of angular velocity in the resulting non-reciprocal modified KdV equation with dissipation.
Reviews information-based approaches for measuring physical entropy in nonequilibrium steady and absorbing states, noting their distinction from general statistical entropy estimation and their application to diverse physical systems.
citing papers explorer
-
Self-propulsion of a polaron with an oscillating coupling to its quantum bath
Periodically reversing an impurity's coupling to a Bose gas produces a negative low-velocity drag above a critical frequency, making the polaron self-propel.
-
Breakdown of Emergent Chiral Order and Defect Chaos in Nonreciprocal Flocks
Chiral order in 2D nonreciprocal flocks is generically unstable and destroyed by defect proliferation, yielding spatiotemporally chaotic dynamics with a diverging correlation length as nonreciprocity vanishes.
-
Multiscale order, flocking and phenotypic hysteresis in the cellular Potts model of epithelia
Cellular Potts model simulations uncover multiscale orientational order, actin-driven flocking transitions, and phenotypic hysteresis in epithelial monolayers.
-
Information transfer enhanced by non-reciprocity in a model of turning flocks
Active torques added to a turning flock model introduce non-reciprocity that enhances information transfer speed, which emerges as a function of angular velocity in the resulting non-reciprocal modified KdV equation with dissipation.
-
Perspective: Measuring physical entropy out of equilibrium
Reviews information-based approaches for measuring physical entropy in nonequilibrium steady and absorbing states, noting their distinction from general statistical entropy estimation and their application to diverse physical systems.