Phase transition waves: Solitons versus shock waves
- 1 November 1980
- journal article
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 51 (11) , 5594-5600
- https://doi.org/10.1063/1.327572
Abstract
Multistable systems, extended in one spatial dimension, can make transitions from one state of local stability to another local state of stability, in a spatially uniform way, or by motion of an interface. The literature on Sine-Gordon and φ4 solitons, in nonlinear dipersive systems, emphasizes their role as phase boundaries of this sort. We emphasize that shock waves can also act as moving phase boundaries in multistable systems. Our analysis invokes ferroelectric transmission lines as the principal model, but also treats linear arrays of coupled bistable springs. The soliton causes a transition in a given local volume, passed by the disturbance, by directly controlling the multistable degree of freedom, whereas the shock wave controls the corresponding force.This publication has 18 references indexed in Scilit:
- Dynamic Compression of Earth MaterialsScience, 1980
- Nucleation Theory of Overdamped Soliton MotionPhysical Review Letters, 1979
- Dynamics of domain walls in ferrodistortive materials. I. TheoryPhysical Review B, 1979
- Brownian Motion of Coupled Nonlinear Oscillators: Thermalized Solitons and Nonlinear Response to External ForcesPhysical Review Letters, 1978
- Phase transitions under shock-wave loadingReviews of Modern Physics, 1977
- Shock wave structure in nonlinear dielectricsFerroelectrics, 1976
- Dynamics and statistical mechanics of a one-dimensional model Hamiltonian for structural phase transitionsPhysical Review B, 1975
- Calculation of mixed phases in continuum mechanicsJournal of Computational Physics, 1971
- Electromagnetic shock wavesRadiophysics and Quantum Electronics, 1971
- USE OF SHOCK WAVES IN HIGH-PRESSURE PHYSICSSoviet Physics Uspekhi, 1965