Droplets moving on a fluid surface: interference pattern from two slits

Abstract

The Feynman path integral approach for solving the motion of a droplet along a silicon oil surface is developed by replacing the Planck constant by a surrogate parameter. The latter is proportional to the surface tension of the silicon oil multiplied by the area of the thin air film, separating the droplet from the oil, and by the half-period of the Faraday oscillations. It is shown that the Navier-Stokes equation together with the mass conservation equation can be reduced to the Schrödinger equation when the surrogate parameter replaces the Planck constant. The Feynman path integral underlying the Schrödinger equation is used then to calculate a wave function that plays the role of the de Broglie pilot-wave.

8 pages, 6 figures

References in corpus (5)

• A trajectory-based understanding of quantum interference
• A causal look into the quantum Talbot effect
• Resonant and rolling droplet
• Bohmian trajectories and the Path Integral Paradigm. Complexified Lagrangian Mechanics
• Matter waves in the Talbot-Lau interferometry

Cited by in corpus (2)

• Physical vacuum is a special superfluid medium
• Why bouncing droplets are a pretty good model of quantum mechanics