About this book
In this monograph we present a review of a number of recent results on the motion of a classical body immersed in an infinitely extended medium and subjected to the action of an external force. We investigate this topic in the framework of mathematical physics by focusing mainly on the class of purely Hamiltonian systems, for which very few results are available. We discuss two cases: when the medium is a gas and when it is a fluid. In the first case, the aim is to obtain microscopic models of viscous friction. In the second, we seek to underline some non-trivial features of the motion.
Far from giving a general survey on the subject, which is very rich and complex from both a phenomenological and theoretical point of view, we focus on some fairly simple models that can be studied rigorously, thus providing a first step towards a mathematical description of viscous friction. In some cases, we restrict ourselves to studying the problem at a heuristic level, or we present the main ideas, discussing only some aspects of the proof if it is prohibitively technical.
This book is principally addressed to researchers or PhD students who are interested in this or related fields of mathematical physics.
- Book Title Mathematical Models of Viscous Friction
- Series Title Lecture Notes in Mathematics
- Series Abbreviated Title Lect.Notes Mathematics
- DOI https://doi.org/10.1007/978-3-319-14759-8
- Copyright Information Springer International Publishing Switzerland 2015
- Publisher Name Springer, Cham
- eBook Packages Mathematics and Statistics Mathematics and Statistics (R0)
- Softcover ISBN 978-3-319-14758-1
- eBook ISBN 978-3-319-14759-8
- Series ISSN 0075-8434
- Series E-ISSN 1617-9692
- Edition Number 1
- Number of Pages XIV, 134
- Number of Illustrations 5 b/w illustrations, 0 illustrations in colour
Ordinary Differential Equations
Partial Differential Equations
Fluid- and Aerodynamics
- Buy this book on publisher's site
“This book presents some results from the mathematical theory of viscous friction that describes the motion of a body immersed in an infinitely extended medium and subjected to the action of an external force. … Each chapter ends with its own list of references relevant to the topics covered in the respective chapter. These are helpful features that increase the accessibility of the book. The intended audience would be graduate students and other researchers in applied mathematics or mathematical physics.” (Lucy J. Campbell, Mathematical Reviews, October, 2015)