Geometric stochastic resonance in a double cavity

Abstract

Geometric stochastic resonance of particles diffusing across a porous membrane subject to oscillating forces is characterized as a synchronization process. Noninteracting particle currents through a symmetric membrane pore are driven either perpendicular or parallel to the membrane, whereas harmonic-mixing spectral current components are generated by the combined action of perpendicular and parallel drives. In view of potential applications to the transport of colloids and biological molecules through narrow pores, we also consider the role of particle repulsion as a controlling factor.

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Cited by in corpus (6)

• Escape kinetics of self-propelled particles from a circular cavity
• Escape Kinetics of Self-Propelled Janus Particles from a Cavity: Numerical Simulations
• The Availability of Logical Operation Induced by Dichotomous Noise for a Nonlinear Bistable System
• First passage of a diffusing particle under stochastic resetting in bounded domains with spherical symmetry
• Escape Kinetics of an Underdamped Colloidal Particle from a Cavity through Narrow Pores
• Escape dynamics of a self-propelled nanorod from circular confinements with narrow openings