Partial Differential Equations Of Mathematical Physics
β Scribed by A. N. Tychonov; A. A. Samarski
- Publisher
- Holden-Day
- Year
- 1964
- Tongue
- English
- Leaves
- 401
- Category
- Library
No coin nor oath required. For personal study only.
β¦ Synopsis
This text reflects the authors' unique approach to the study of the basic types of partial differential equations of mathematical physics. The systemΒ atic presentation of the material offers the reader a natural entree to the subject. Each of the basic types of equations which are to be studied is motivated by its physical origins. The derivation of an equation from the physics to its final mathematical structure is very instructive to the student.
The authors have gone to great length to make clear the meaning of a solution to an initial value or boundary-value problem. Various methods of solving such problems are treated in great detail, as are the questions of existence and uniqueness of solutions. Thus, the student gains an appreciaΒ tion of the theoretical foundations of the subject and simultaneously acquires the manipulative skills for solving such problems.
The exercises which accompany each chapter have been selected to test the studentβs ability both to formulate the correct mathematical statement of the problem and to apply the appropriate method for its solution. The applications treated by the authors are non-trivial and are completely worked out in detail.
The present volume covers the two dimensional class of partial differential equations of mathematical physics and is well suited as a basic text for both the undergraduate and graduate level at the university. The second volume will cover the three dimensional counterparts of the present volume and contain an additional chapter on the special functions which arise in matheΒ matical physics.
π SIMILAR VOLUMES
The present volume covers the three-dimensional aspects of the material contained in the first volume. There is an additional chapter on the special functions that arise in the solution of the problems treated; the basic properΒ ties and representations of these functions are derived in a simple and
<p>The classical partial differential equations of mathematical physics, formulated by the great mathematicians of the 19th century, remain today the basis of investigation into waves, heat conduction, hydrodynamics, and other physical problems.<br> In this comprehensive treatment by a well-known So