Wavelength selection by interrupted coarsening in reaction-diffusion systems
arXiv:2005.01495 · doi:10.1103/PhysRevLett.126.104101
Abstract
Wavelength selection in reaction--diffusion systems can be understood as a coarsening process that is interrupted by counteracting processes at certain wavelengths. We first show that coarsening in mass-conserving systems is driven by self-amplifying mass transport between neighboring high-density domains. We derive a general coarsening criterion and show that coarsening is generically uninterrupted in two-component systems that conserve mass. The theory is then generalized to study interrupted coarsening and anti-coarsening due to weakly-broken mass conservation, providing a general path to analyze wavelength selection in pattern formation far from equilibrium.
arXiv comment7 pages, 3 figures; v3: published version
References in corpus (22)
- Motility-Induced Phase Separation
- Growth and Division of Active Droplets: A Model for Protocells
- Scalar field theory for active-particle phase separation
- Arrested phase separation in reproducing bacteria: a generic route to pattern formation?
- From Phase to Micro-Phase Separation in Flocking Models: The Essential Role of Non-Equilibrium Fluctuations
- The Rotating Vicsek Model: Pattern Formation and Enhanced Flocking in Chiral Active Matter
- A mass conserved reaction-diffusion system captures properties of cell polarity
- Cluster phases and bubbly phase separation in active fluids: Reversal of the Ostwald process
- Motility-induced phase separation and coarsening in active matter
- A self-driven phase transition drives Myxococcus xanthus fruiting body formation
- Emergent spatial structures in flocking models: a dynamical system insight
- Phase-space geometry of mass-conserving reaction-diffusion dynamics
- Mesa-type patterns in the one-dimensional Brusselator and their stability
- When does coarsening occur in the dynamics of one-dimensional fronts ?
- On the transient and steady state of mass-conserved reaction diffusion systems
- Non-equilibrium phase separation with reactions: A canonical model and its behaviour
- Phase Separation and Coarsening in Electrostatically Driven Granular Media
- Nonlinear dynamics in one dimension: On a criterion for coarsening and its temporal law
- Self-Replication of Mesa Patterns in Reaction-Diffusion Systems
- Cross-diffusion induced patterns for a single-step enzymatic reaction
- Plectoneme dynamics and statistics in braided polymers
- Surface-tension-driven coarsening in mass-conserved reaction-diffusion systems
Cited by in corpus (20)
- Nonreciprocal pattern formation of conserved fields
- Suppression of coarsening and emergence of oscillatory behavior in a Cahn-Hilliard model with nonvariational coupling
- Enzyme-enriched condensates show self-propulsion, positioning, and coexistence
- Nonreciprocal Cahn-Hilliard model emerges as a universal amplitude equation
- Pattern formation by turbulent cascades
- Self-organization of primitive metabolic cycles due to non-reciprocal interactions
- Bridging scales in a multiscale pattern-forming system
- Coarsening and wavelength selection far from equilibrium: a unifying framework based on singular perturbation theory
- Diffusive coupling of two well-mixed compartments elucidates elementary principles of protein-based pattern formation
- Geometry-induced patterns through mechanochemical coupling
- Surface-tension-driven coarsening in mass-conserved reaction-diffusion systems
- Universal limiting behaviour of reaction-diffusion systems with conservation laws
- An amplitude equation for the conserved-Hopf bifurcation -- derivation, analysis and assessment
- Gradient dynamics approach to reactive thin-film hydrodynamics
- Numerical investigations of the bulk-surface wave pinning model
- Self-organisation of Protein Patterns
- Theory of Nonequilibrium Coexistence with Coupled Conserved and Nonconserved Order Parameters
- Catalysis-Induced Phase Separation and Autoregulation of Enzymatic Activity
- Enzyme-driven phase separation
- Cytosolic flow induced symmetry breaking in a conceptual polarity model