eBook ISBN:  9781470400866 
Product Code:  MEMO/106/509.E 
List Price:  $31.00 
MAA Member Price:  $27.90 
AMS Member Price:  $18.60 
eBook ISBN:  9781470400866 
Product Code:  MEMO/106/509.E 
List Price:  $31.00 
MAA Member Price:  $27.90 
AMS Member Price:  $18.60 

Book DetailsMemoirs of the American Mathematical SocietyVolume: 106; 1993; 69 ppMSC: Primary 53;
This book shows that much of classical integral geometry can be derived from the coarea formula by some elementary techniques. Howard generalizes much of classical integral geometry from spaces of constant sectional curvature to arbitrary Riemannian homogeneous spaces. To do so, he provides a general definition of an “integral invariant” of a submanifold of the space that is sufficiently general enough to cover most cases that arise in integral geometry. Working in this generality makes it clear that the type of integral geometric formulas that hold in a space does not depend on the full group of isometries, but only on the isotropy subgroup. As a special case, integral geometric formulas that hold in Euclidean space also hold in all the simply connected spaces of constant curvature. Detailed proofs of the results and many examples are included. Requiring background of a oneterm course in Riemannian geometry, this book may be used as a textbook in graduate courses on differential and integral geometry.
ReadershipGraduate students and mathematicians working in differential and integral geometry.

Table of Contents

Chapters

1. Introduction

2. The basic integral formula for submanifolds of a Lie group

3. Poincaré’s formula in homogeneous spaces

4. Integral invariants of submanifolds of homogeneous spaces, the kinematic formula, and the transfer principle

5. The second fundamental form of an intersection

6. Lemmas and definitions

7. Proof of the kinematic formula and the transfer principle

8. Spaces of constant curvature

9. An algebraic characterization of the polynomials in the Weyl tube formula

10. The Weyl tube formula and the ChernFederer kinematic formula


RequestsReview Copy – for publishers of book reviewsPermission – for use of book, eBook, or Journal contentAccessibility – to request an alternate format of an AMS title
 Book Details
 Table of Contents
 Requests
This book shows that much of classical integral geometry can be derived from the coarea formula by some elementary techniques. Howard generalizes much of classical integral geometry from spaces of constant sectional curvature to arbitrary Riemannian homogeneous spaces. To do so, he provides a general definition of an “integral invariant” of a submanifold of the space that is sufficiently general enough to cover most cases that arise in integral geometry. Working in this generality makes it clear that the type of integral geometric formulas that hold in a space does not depend on the full group of isometries, but only on the isotropy subgroup. As a special case, integral geometric formulas that hold in Euclidean space also hold in all the simply connected spaces of constant curvature. Detailed proofs of the results and many examples are included. Requiring background of a oneterm course in Riemannian geometry, this book may be used as a textbook in graduate courses on differential and integral geometry.
Graduate students and mathematicians working in differential and integral geometry.

Chapters

1. Introduction

2. The basic integral formula for submanifolds of a Lie group

3. Poincaré’s formula in homogeneous spaces

4. Integral invariants of submanifolds of homogeneous spaces, the kinematic formula, and the transfer principle

5. The second fundamental form of an intersection

6. Lemmas and definitions

7. Proof of the kinematic formula and the transfer principle

8. Spaces of constant curvature

9. An algebraic characterization of the polynomials in the Weyl tube formula

10. The Weyl tube formula and the ChernFederer kinematic formula