Patterns on liquid surfaces: cnoidal waves, compactons and scaling
Andrei Ludu, Jerry P. Draayer
Abstract
Localized patterns and nonlinear oscillation formation on the bounded free surface of an ideal incompressible liquid are analytically investigated . Cnoidal modes, solitons and compactons, as traveling non-axially symmetric shapes are discused. A finite-difference differential generalized Korteweg-de Vries equation is shown to describe the three-dimensional motion of the fluid surface and the limit of long and shallow channels one reobtains the well known KdV equation. A tentative expansion formula for the representation of the general solution of a nonlinear equation, for given initial condition is introduced on a graphical-algebraic basis. The model is useful in multilayer fluid dynamics, cluster formation, and nuclear physics since, up to an overall scale, these systems display liquid free surface behavior.
Create a lesson
Related papers
Particle dynamics in a microfluidic T-junction vortex flow: the role of history force
Matteo Chiatto, Luigi de Luca, Howard A. Stone et al.
Predicting the Final Stationary State of Sheared 2D Euler Fluids
Renato Pakter, Yan Levin
Re-emergence of fingering in solidifying liquid-metal drops
Siyu Zhang, Feng Wang, Yuan Ma et al.
The binormal flow: a toy model for turbulence
Elena Danesi, Pablo Merino, Luis Vega
Non intrusive parametric Reduced Order Models based on physics for incompressible flow
Cyrille Allery, Claudine Beghein
Conjugate heat transfer in turbulent pipe flow with azimuthally non-uniform heating
Jonathan Neuhauser, Davide Gatti, Bettina Frohnapfel