Introduction to reaction-diffusion equations theory and applications to spatial ecology and evolutionary biology / [electronic resource] :
- 作者： Lam, King-Yeung.
- 其他作者：
- 其他題名：
- Lecture notes on mathematical modelling in the life sciences.
- 出版： Cham : Springer International Publishing :Imprint: Springer
- 叢書名： Lecture notes on mathematical modelling in the life sciences,
- 主題： Reaction-diffusion equations.
- ISBN： 9783031204227 (electronic bk.) 、 9783031204210 (paper)
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FIND@SFXID:
CGU
- 資料類型: 電子書
- 內容註: Part I Linear Theory -- 1. The Maximum Principle and the Principal Eigenvalues for Single Equations -- 2. The Principal Eigenvalue for Periodic-Parabolic Problems -- 3. The Maximum Principle and the Principal Eigenvalue for Systems -- 4. The Principal Floquet Bundle for Parabolic Equations -- Part II Ecological Dynamics -- 5. The Logistic Equation With Diffusion -- 6. Spreading in Homogeneous and Shifting Environments -- 7. The Lotka-Volterra Competition-Diffusion Systems for Two Species -- 8. Dynamics of Phytoplankton Populations -- Part III Evolutionary Dynamics -- 9. Elements of Adaptive Dynamics -- 10. Selection-Mutation Models -- Part IV Appendices -- A. The Fixed Point Index -- B. The Krein-Rutman Theorem -- C. Subhomogeneous Dynamics -- D. Existence of Connecting Orbits -- E. Abstract Competition Systems in Ordered Banach Spaces -- Index.
- 摘要註: This book introduces some basic mathematical tools in reaction-diffusion models, with applications to spatial ecology and evolutionary biology. It is divided into four parts. The first part is an introduction to the maximum principle, the theory of principal eigenvalues for elliptic and periodic-parabolic equations and systems, and the theory of principal Floquet bundles. The second part concerns the applications in spatial ecology. We discuss the dynamics of a single species and two competing species, as well as some recent progress on N competing species in bounded domains. Some related results on stream populations and phytoplankton populations are also included. We also discuss the spreading properties of a single species in an unbounded spatial domain, as modeled by the Fisher-KPP equation. The third part concerns the applications in evolutionary biology. We describe the basic notions of adaptive dynamics, such as evolutionarily stable strategies and evolutionary branching points, in the context of a competition model of stream populations. We also discuss a class of selection-mutation models describing a population structured along a continuous phenotypical trait. The fourth part consists of several appendices, which present a self-contained treatment of some basic abstract theories in functional analysis and dynamical systems. Topics include the Krein-Rutman theorem for linear and nonlinear operators, as well as some elements of monotone dynamical systems and abstract competition systems. Most of the book is self-contained and it is aimed at graduate students and researchers who are interested in the theory and applications of reaction-diffusion equations.
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讀者標籤：
- 系統號： 005508988 | 機讀編目格式
館藏資訊
This book introduces some basic mathematical tools in reaction-diffusion models, with applications to spatial ecology and evolutionary biology. It is divided into four parts. The first part is an introduction to the maximum principle, the theory of principal eigenvalues for elliptic and periodic-parabolic equations and systems, and the theory of principal Floquet bundles. The second part concerns the applications in spatial ecology. We discuss the dynamics of a single species and two competing species, as well as some recent progress on N competing species in bounded domains. Some related results on stream populations and phytoplankton populations are also included. We also discuss the spreading properties of a single species in an unbounded spatial domain, as modeled by the Fisher-KPP equation. The third part concerns the applications in evolutionary biology. We describe the basic notions of adaptive dynamics, such as evolutionarily stable strategies and evolutionary branching points, in the context of a competition model of stream populations. We also discuss a class of selection-mutation models describing a population structured along a continuous phenotypical trait. The fourth part consists of several appendices, which present a self-contained treatment of some basic abstract theories in functional analysis and dynamical systems. Topics include the Krein-Rutman theorem for linear and nonlinear operators, as well as some elements of monotone dynamical systems and abstract competition systems. Most of the book is self-contained and it is aimed at graduate students and researchers who are interested in the theory and applications of reaction-diffusion equations.