Geometric singular perturbation theory is a useful tool in the analysis of problems with a clear separation in time scales. It uses invariant manifolds in phase space in order to understand the global structure of the phase space or to construct orbits with desired properties. This paper explains and explores geometric singular perturbation theory and its use in (biological) practice. The three main theorems due to Fenichel are the fundamental tools in the analysis, so the strategy is to state these theorems and explain their significance and applications. The theory is illustrated by many examples
In this article we deal with singularly perturbed Filippov systems Zε: (1) ˙x = ( F(x, y, ε) if h(x,...
Geometric Singular Perturbation Theory (GSPT) and Conley Index Theory are two powerful techniques t...
This monograph presents the newly developed method of rigged Hilbert spaces as a modern approach in ...
This volume provides a comprehensive review of multiple-scale dynamical systems. Mathematical models...
Geometric singular perturbation theory for stochastic differential equations with applications to ne...
Abstract. The geometric approach to singular perturbation problems is based on powerful methods from...
Modern differential geometric techniques are used to unify the physical asymptotics underlying mecha...
This book is the testimony of a physical scientist whose language is singular perturbation analysis....
We present a novel method for computing slow manifolds and their fast fibre bundles in geometric sin...
Relaxation oscillations are highly non-linear oscillations, which appear to feature many important b...
Slow–fast systems: heuristics In fast time s: x ′ = f(x, y) x ∈ R n, fast variable y ′ = εg(x, y) ...
We study the pharmacological model of dimerisation where a receptor binds to two ligand molecules. T...
In this paper we present a generalization of a finite dimensional singular perturbation theorem to B...
We present a novel and global three-dimensional reduction of a non-dimensionalised version of the fo...
We study the pharmacological model of dimerisation where a receptor binds to two ligand molecules. T...
In this article we deal with singularly perturbed Filippov systems Zε: (1) ˙x = ( F(x, y, ε) if h(x,...
Geometric Singular Perturbation Theory (GSPT) and Conley Index Theory are two powerful techniques t...
This monograph presents the newly developed method of rigged Hilbert spaces as a modern approach in ...
This volume provides a comprehensive review of multiple-scale dynamical systems. Mathematical models...
Geometric singular perturbation theory for stochastic differential equations with applications to ne...
Abstract. The geometric approach to singular perturbation problems is based on powerful methods from...
Modern differential geometric techniques are used to unify the physical asymptotics underlying mecha...
This book is the testimony of a physical scientist whose language is singular perturbation analysis....
We present a novel method for computing slow manifolds and their fast fibre bundles in geometric sin...
Relaxation oscillations are highly non-linear oscillations, which appear to feature many important b...
Slow–fast systems: heuristics In fast time s: x ′ = f(x, y) x ∈ R n, fast variable y ′ = εg(x, y) ...
We study the pharmacological model of dimerisation where a receptor binds to two ligand molecules. T...
In this paper we present a generalization of a finite dimensional singular perturbation theorem to B...
We present a novel and global three-dimensional reduction of a non-dimensionalised version of the fo...
We study the pharmacological model of dimerisation where a receptor binds to two ligand molecules. T...
In this article we deal with singularly perturbed Filippov systems Zε: (1) ˙x = ( F(x, y, ε) if h(x,...
Geometric Singular Perturbation Theory (GSPT) and Conley Index Theory are two powerful techniques t...
This monograph presents the newly developed method of rigged Hilbert spaces as a modern approach in ...