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Hardcover ISBN:  9781470475253 
Product Code:  GSM/237 
List Price:  $135.00 
MAA Member Price:  $121.50 
AMS Member Price:  $108.00 
Softcover ISBN:  9781470475482 
Product Code:  GSM/237.S 
List Price:  $89.00 
MAA Member Price:  $80.10 
AMS Member Price:  $71.20 
eBook ISBN:  9781470475499 
Product Code:  GSM/237.E 
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MAA Member Price:  $76.50 
AMS Member Price:  $68.00 
Softcover ISBN:  9781470475482 
eBook ISBN:  9781470475499 
Product Code:  GSM/237.S.B 
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Book DetailsGraduate Studies in MathematicsVolume: 237; 2023; 325 ppMSC: Primary 35; Secondary 47; 58; 65
It is remarkable that various distinct physical phenomena, such as wave propagation, heat diffusion, electron movement in quantum mechanics, oscillations of fluid in a container, can be described using the same differential operator, the Laplacian. Spectral data (i.e., eigenvalues and eigenfunctions) of the Laplacian depend in a subtle way on the geometry of the underlying object, e.g., a Euclidean domain or a Riemannian manifold, on which the operator is defined. This dependence, or, rather, the interplay between the geometry and the spectrum, is the main subject of spectral geometry. Its roots can be traced to Ernst Chladni's experiments with vibrating plates, Lord Rayleigh's theory of sound, and Mark Kac's celebrated question “Can one hear the shape of a drum?” In the second half of the twentieth century spectral geometry emerged as a separate branch of geometric analysis. Nowadays it is a rapidly developing area of mathematics, with close connections to other fields, such as differential geometry, mathematical physics, partial differential equations, number theory, dynamical systems, and numerical analysis.
This book can be used for a graduate or an advanced undergraduate course on spectral geometry, starting from the basics but at the same time covering some of the exciting recent developments which can be explained without too many prerequisites.
ReadershipGraduate students and researchers interested in differential geometry and Laplace operators.

Table of Contents

Chapters

Strings, drums, and the Laplacian

The spectral theorems

Variational principles and applications

Nodal geometry of eigenfunctions

Eigenvalue inequalities

Heat equation, spectral invariants, and isospectrality

The Steklov problem and the DirichlettoNeumann map

A short tutorial on numerical spectral geometry

Background definitions and notation


Additional Material

Reviews

Modern spectral geometry is a rapidly developing area of mathematics, with close connections to other fields such as differential geometry, mathematical physics, number theory, dynamical systems, and numerical analysis. This book aims to be a textbook that can be used for a graduate or an advanced undergraduate course, starting from the basics but at the same time covering some of the scintillating recent developments in the area which can be explained without too many prerequisites.
Hirokazu Nishimura, zbMATH


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It is remarkable that various distinct physical phenomena, such as wave propagation, heat diffusion, electron movement in quantum mechanics, oscillations of fluid in a container, can be described using the same differential operator, the Laplacian. Spectral data (i.e., eigenvalues and eigenfunctions) of the Laplacian depend in a subtle way on the geometry of the underlying object, e.g., a Euclidean domain or a Riemannian manifold, on which the operator is defined. This dependence, or, rather, the interplay between the geometry and the spectrum, is the main subject of spectral geometry. Its roots can be traced to Ernst Chladni's experiments with vibrating plates, Lord Rayleigh's theory of sound, and Mark Kac's celebrated question “Can one hear the shape of a drum?” In the second half of the twentieth century spectral geometry emerged as a separate branch of geometric analysis. Nowadays it is a rapidly developing area of mathematics, with close connections to other fields, such as differential geometry, mathematical physics, partial differential equations, number theory, dynamical systems, and numerical analysis.
This book can be used for a graduate or an advanced undergraduate course on spectral geometry, starting from the basics but at the same time covering some of the exciting recent developments which can be explained without too many prerequisites.
Graduate students and researchers interested in differential geometry and Laplace operators.

Chapters

Strings, drums, and the Laplacian

The spectral theorems

Variational principles and applications

Nodal geometry of eigenfunctions

Eigenvalue inequalities

Heat equation, spectral invariants, and isospectrality

The Steklov problem and the DirichlettoNeumann map

A short tutorial on numerical spectral geometry

Background definitions and notation

Modern spectral geometry is a rapidly developing area of mathematics, with close connections to other fields such as differential geometry, mathematical physics, number theory, dynamical systems, and numerical analysis. This book aims to be a textbook that can be used for a graduate or an advanced undergraduate course, starting from the basics but at the same time covering some of the scintillating recent developments in the area which can be explained without too many prerequisites.
Hirokazu Nishimura, zbMATH