![](/images/blank-book/blank-book.1920.jpg)
Formation of Spatio-temporal Patterns in Stochastic Nonlinear Systems
A study of extended systems with reference to abstract biological mechanisms
Autoren
Mehr zum Buch
Exploring the complexities of nonlinear dynamics, this book delves into systems exhibiting excitable, oscillatory, and bistable behaviors. It examines how stochastic fluctuations lead to intricate patterns, including moving clusters and inverted waves. The study includes bifurcations and nucleation of spatial structures, alongside methods for determining front velocities in bounded systems. An abstract two-state model illustrates excitable dynamics, with insights into instantaneous and delayed responses. Additionally, it discusses the transport of Brownian particles in oscillating potentials, highlighting synchronization mechanisms for nearly dispersion-less transport.
Buchkauf
Formation of Spatio-temporal Patterns in Stochastic Nonlinear Systems, Felix Müller
- Sprache
- Erscheinungsdatum
- 2015
- product-detail.submit-box.info.binding
- (Paperback)
Lieferung
Zahlungsmethoden
Feedback senden
- Titel
- Formation of Spatio-temporal Patterns in Stochastic Nonlinear Systems
- Untertitel
- A study of extended systems with reference to abstract biological mechanisms
- Sprache
- Englisch
- Autor*innen
- Felix Müller
- Erscheinungsdatum
- 2015
- Einband
- Paperback
- Seitenzahl
- 164
- ISBN13
- 9783838134208
- Kategorie
- Naturwissenschaften
- Beschreibung
- Exploring the complexities of nonlinear dynamics, this book delves into systems exhibiting excitable, oscillatory, and bistable behaviors. It examines how stochastic fluctuations lead to intricate patterns, including moving clusters and inverted waves. The study includes bifurcations and nucleation of spatial structures, alongside methods for determining front velocities in bounded systems. An abstract two-state model illustrates excitable dynamics, with insights into instantaneous and delayed responses. Additionally, it discusses the transport of Brownian particles in oscillating potentials, highlighting synchronization mechanisms for nearly dispersion-less transport.