Softcover ISBN:  9780821834497 
Product Code:  ULECT/29 
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eBook ISBN:  9781470418373 
Product Code:  ULECT/29.E 
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AMS Member Price:  $52.00 
Softcover ISBN:  9780821834497 
eBook: ISBN:  9781470418373 
Product Code:  ULECT/29.B 
List Price:  $134.00 $101.50 
MAA Member Price:  $120.60 $91.35 
AMS Member Price:  $107.20 $81.20 
Softcover ISBN:  9780821834497 
Product Code:  ULECT/29 
List Price:  $69.00 
MAA Member Price:  $62.10 
AMS Member Price:  $55.20 
eBook ISBN:  9781470418373 
Product Code:  ULECT/29.E 
List Price:  $65.00 
MAA Member Price:  $58.50 
AMS Member Price:  $52.00 
Softcover ISBN:  9780821834497 
eBook ISBN:  9781470418373 
Product Code:  ULECT/29.B 
List Price:  $134.00 $101.50 
MAA Member Price:  $120.60 $91.35 
AMS Member Price:  $107.20 $81.20 

Book DetailsUniversity Lecture SeriesVolume: 29; 2003; 137 ppMSC: Primary 42; Secondary 28
“There were lots of young analysts who flocked to Chicago in those years, but virtually from the start it was clear that Tom had a special brilliance ... Eventually, the mathematical door would open a crack as Tom discovered a new technique, usually of astonishing originality. The end would now be in sight, as [he] unleashed his tremendous technical abilities ... Time after time, [Wolff] would pick a central problem in an area and solve it. After a few more results, the field would be changed forever ... In the mathematical community, the common and rapid response to these breakthroughs was that they were seen, not just as watershed events, but as lightning strikes that permanently altered the landscape.”
—Peter W. Jones, Yale University
“Tom Wolff was not only a deep thinker in mathematics but also a technical master.”
—Barry Simon, California Institute of Technology
Thomas H. Wolff was a leading analyst and winner of the Salem and Bôcher Prizes. He made significant contributions to several areas of harmonic analysis, in particular to geometrical and measuretheoretic questions related to the Kakeya needle problem. Wolff attacked the problem with awesome power and originality, using both geometric and combinatorial ideas. This book provides an inside look at the techniques used and developed by Wolff. It is based on a graduate course on Fourier analysis he taught at Caltech.
The selection of the material is somewhat unconventional in that it leads the reader, in Wolff's unique and straightforward way, through the basics directly to current research topics. The book demonstrates how harmonic analysis can provide penetrating insights into deep aspects of modern analysis. It is an introduction to the subject as a whole and an overview of those branches of harmonic analysis that are relevant to the Kakeya conjecture.
The first few chapters cover the usual background material: the Fourier transform, convolution, the inversion theorem, the uncertainty principle, and the method of stationary phase. However, the choice of topics is highly selective, with emphasis on those frequently used in research inspired by the problems discussed in later chapters. These include questions related to the restriction conjecture and the Kakeya conjecture, distance sets, and Fourier transforms of singular measures. These problems are diverse, but often interconnected; they all combine sophisticated Fourier analysis with intriguing links to other areas of mathematics, and they continue to stimulate firstrate work.
The book focuses on laying out a solid foundation for further reading and research. Technicalities are kept to a minimum, and simpler but more basic methods are often favored over the most recent methods. The clear style of the exposition and the quick progression from fundamentals to advanced topics ensure that both graduate students and research mathematicians will benefit from the book.
ReadershipGraduate students and research mathematicians interested in harmonic analysis.

Table of Contents

Chapters

Chapter 1. The $L^1$ Fourier transform

Chapter 2. The Schwartz space

Chapter 3. Fourier inversion and the Plancherel theorem

Chapter 4. Some specifics, and $L^p$ for $p<2$

Chapter 5. The uncertainty principle

Chapter 6. The stationary phase method

Chapter 7. The restriction problem

Chapter 8. Hausdorff measures

Chapter 9. Sets with maximal Fourier dimension and distance sets

Chapter 10. The Kakeya problem

Chapter 11. Recent work connected with the Kakeya problem

Historical notes


Additional Material

Reviews

Lovely little book ... deft and forceful writing ... considerable selectivity ... Proofs are tastefully either provided or sketched, so that the reader has a palpable sense of how the subject works ... a delightful and satisfying reading experience, leaving the reader with a strong desire to push on and learn more ... Both graduate students and experienced mathematicians will learn a great deal from this volume.
Mathematical Reviews


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“There were lots of young analysts who flocked to Chicago in those years, but virtually from the start it was clear that Tom had a special brilliance ... Eventually, the mathematical door would open a crack as Tom discovered a new technique, usually of astonishing originality. The end would now be in sight, as [he] unleashed his tremendous technical abilities ... Time after time, [Wolff] would pick a central problem in an area and solve it. After a few more results, the field would be changed forever ... In the mathematical community, the common and rapid response to these breakthroughs was that they were seen, not just as watershed events, but as lightning strikes that permanently altered the landscape.”
—Peter W. Jones, Yale University
“Tom Wolff was not only a deep thinker in mathematics but also a technical master.”
—Barry Simon, California Institute of Technology
Thomas H. Wolff was a leading analyst and winner of the Salem and Bôcher Prizes. He made significant contributions to several areas of harmonic analysis, in particular to geometrical and measuretheoretic questions related to the Kakeya needle problem. Wolff attacked the problem with awesome power and originality, using both geometric and combinatorial ideas. This book provides an inside look at the techniques used and developed by Wolff. It is based on a graduate course on Fourier analysis he taught at Caltech.
The selection of the material is somewhat unconventional in that it leads the reader, in Wolff's unique and straightforward way, through the basics directly to current research topics. The book demonstrates how harmonic analysis can provide penetrating insights into deep aspects of modern analysis. It is an introduction to the subject as a whole and an overview of those branches of harmonic analysis that are relevant to the Kakeya conjecture.
The first few chapters cover the usual background material: the Fourier transform, convolution, the inversion theorem, the uncertainty principle, and the method of stationary phase. However, the choice of topics is highly selective, with emphasis on those frequently used in research inspired by the problems discussed in later chapters. These include questions related to the restriction conjecture and the Kakeya conjecture, distance sets, and Fourier transforms of singular measures. These problems are diverse, but often interconnected; they all combine sophisticated Fourier analysis with intriguing links to other areas of mathematics, and they continue to stimulate firstrate work.
The book focuses on laying out a solid foundation for further reading and research. Technicalities are kept to a minimum, and simpler but more basic methods are often favored over the most recent methods. The clear style of the exposition and the quick progression from fundamentals to advanced topics ensure that both graduate students and research mathematicians will benefit from the book.
Graduate students and research mathematicians interested in harmonic analysis.

Chapters

Chapter 1. The $L^1$ Fourier transform

Chapter 2. The Schwartz space

Chapter 3. Fourier inversion and the Plancherel theorem

Chapter 4. Some specifics, and $L^p$ for $p<2$

Chapter 5. The uncertainty principle

Chapter 6. The stationary phase method

Chapter 7. The restriction problem

Chapter 8. Hausdorff measures

Chapter 9. Sets with maximal Fourier dimension and distance sets

Chapter 10. The Kakeya problem

Chapter 11. Recent work connected with the Kakeya problem

Historical notes

Lovely little book ... deft and forceful writing ... considerable selectivity ... Proofs are tastefully either provided or sketched, so that the reader has a palpable sense of how the subject works ... a delightful and satisfying reading experience, leaving the reader with a strong desire to push on and learn more ... Both graduate students and experienced mathematicians will learn a great deal from this volume.
Mathematical Reviews