Classical Potential Theory
Par : ,Formats :
- Nombre de pages333
- PrésentationRelié
- Poids0.65 kg
- Dimensions16,0 cm × 23,9 cm × 2,7 cm
- ISBN1-85233-618-8
- EAN9781852336189
- Date de parution14/11/2000
- Collectionmonographs in mathematics
- ÉditeurSpringer
Résumé
From its origins in Newtonian physics, potential theory has developed into a major field of mathematical research, closely connected with several other areas of real and complex analysis. This book provides a comprehensive treatment of classical potential theory - an understanding of which is essential for work in many related areas.
Classical Potential Theory covers harmonic and subharmonic functions, maximum principles, polynomial expansions, Green functions, potentials and capacity, the Dirichlet problem and boundary integral representations. The first six chapters deal concretely with the basic theory, and include exercises. The final three chapters are more advanced and treat topological ideas specifically created for potential theory, such as the fine topology, the Martin boundary and minimal thinness.
The presentation is largely self-contained and is accessible to graduate students, with the only prerequisites being a reasonable grounding in analysis and several variables calculus, and a first course in measure theory. The book will prove an essential reference to all those with an interest in potential theory and its applications.
From its origins in Newtonian physics, potential theory has developed into a major field of mathematical research, closely connected with several other areas of real and complex analysis. This book provides a comprehensive treatment of classical potential theory - an understanding of which is essential for work in many related areas.
Classical Potential Theory covers harmonic and subharmonic functions, maximum principles, polynomial expansions, Green functions, potentials and capacity, the Dirichlet problem and boundary integral representations. The first six chapters deal concretely with the basic theory, and include exercises. The final three chapters are more advanced and treat topological ideas specifically created for potential theory, such as the fine topology, the Martin boundary and minimal thinness.
The presentation is largely self-contained and is accessible to graduate students, with the only prerequisites being a reasonable grounding in analysis and several variables calculus, and a first course in measure theory. The book will prove an essential reference to all those with an interest in potential theory and its applications.