TY  - GEN
TY  - GEN
T1  - Fourier Integral Operators
T2  - Modern Birkhäuser Classics,
A1  - Duistermaat, J.J.
LA  - English
PP  - Boston, MA
PB  - Birkhäuser Boston : Imprint: Birkhäuser
YR  - 2011
ED  - 1st ed. 2011.
UL  - http://discoverylib.upm.edu.my/discovery/Record/978-0-8176-8108-1
AB  - This volume is a useful introduction to the subject of Fourier integral operators and is based on the author's classic set of notes. Covering a range of topics from Hörmander’s exposition of the theory, Duistermaat approaches the subject from symplectic geometry and includes applications to hyperbolic equations (= equations of wave type) and oscillatory asymptotic solutions which may have caustics. This text is suitable for mathematicians and (theoretical) physicists with an interest in (linear) partial differential equations, especially in wave propagation, resp. WKB-methods. Familiarity with analysis (distributions and Fourier transformation) and differential geometry is useful. Additionally, this book is designed for a one-semester introductory course on Fourier integral operators aimed at a broad audience. This book remains a superb introduction to the theory of Fourier integral operators. While there are further advances discussed in other sources, this book can still be recommended as perhaps the very best place to start in the study of this subject. —SIAM Review This book is still interesting, giving a quick and elegant introduction to the field, more adapted to nonspecialists. —Zentralblatt MATH The book is completed with applications to the Cauchy problem for strictly hyperbolic equations and caustics in oscillatory integrals. The reader should have some background knowledge in analysis (distributions and Fourier transformations) and differential geometry.  —Acta Sci. Math.
OP  - 142
CN  - QA403.5-404.5
SN  - 9780817681081
KW  - Fourier analysis.
KW  - Integral equations.
KW  - Operator theory.
KW  - Partial differential equations.
KW  - Fourier Analysis.
KW  - Integral Equations.
KW  - Operator Theory.
KW  - Partial Differential Equations.
ER  -