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E-raamat: Lineability: The Search for Linearity in Mathematics

(UCM, Spain), (Kent State University, Ohio, USA), (Federal University of Paraiba, Joao Pessoa, Brazil), (University of Seville, Spain)
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Renewed interest in vector spaces and linear algebras has spurred the search for large algebraic structures composed of mathematical objects with special properties. Bringing together research that was otherwise scattered throughout the literature, Lineability: The Search for Linearity in Mathematics collects the main results on the conditions for the existence of large algebraic substructures. It investigates lineability issues in a variety of areas, including real and complex analysis.

After presenting basic concepts about the existence of linear structures, the book discusses lineability properties of families of functions defined on a subset of the real line as well as the lineability of special families of holomorphic (or analytic) functions defined on some domain of the complex plane. It next focuses on spaces of sequences and spaces of integrable functions before covering the phenomenon of universality from an algebraic point of view. The authors then describe the linear structure of the set of zeros of a polynomial defined on a real or complex Banach space and explore specialized topics, such as the lineability of various families of vectors. The book concludes with an account of general techniques for discovering lineability in its diverse degrees.

Arvustused

The American Mathematical Society introduced the term LINEABILITY its "Mathematical Subject Classification" for 2020

"This book is a compendium of the currently known results on the size of linear and algebraic substructures within different classes of real or complex valued functions, which, as a whole, do not have such structures. The classes of such functions always contain some examples that serve as counterexamples in different mathematical settings. The work presented in this text facilitates better understanding of such examples. In general, this is a very well-written book that will be great reading for anybody interested in a true understanding of the riches of the structures of real and complex valued functions." Krzysztof Chris Ciesielski, Professor of Mathematics, West Virginia University, and Adjunct Professor of Radiology, University of Pennsylvania, USA

"Hippasus of Metapontum shocked mathematicians of Pythagorass school claiming the irrationality of the root of 2. Cantor astonished the mathematical community with the proof of the uncountability of irrational numbers. Weierstrasss monster of a continuous everywhere but differentiable nowhere frightened mathematicians with this counterintuitive example. Every single mathematician remembers the first time in her life when she discovers one of these three results. Gurariy proved in the sixties that the set of Weierstrasss monsters in the interval contains a vector space of countably infinite dimension. This result resonated in the last years and motivated the study of the existence of large algebraic structures of shocking mathematical objects, attracting the interest of many mathematicians from analysis, algebra, and topology. This excellent book provides the first systematic treatment of the quest for linearity in nonlinear topics. I encourage other mathematicians to take part in this adventure. They will be astonished after reading it!" J. Alberto Conejero, IUMPA, Universitat Politècnica de València, Spain

"The late 2000s and early 2010s witnessed an explosion of papers on lineability/spaceability, which is the search for linearity on nonlinear problems. This trend in modern analysis investigates the existenceor notof a (infinite dimensional, closed, dense) subspace of a given topological vector space formed, up to the null vector, by elements enjoying a certain prescribed distinguished property. Problems of completely different natures are studied, and here comes the relevance of this book: this is the first time all these different problems and solutions are assembled in book form. The book is very well written and everyone interested in the field should have it as permanent companion." Geraldo Botelho, Universidade Federal de Uberlândia, Brazil

"Ever since the discovery of continuous and nowhere differentiable functions by Weierstrass, the study of exotic objects in analysis has fascinated mathematicians. While it has been known for some time that the sets of such exceptional objects are often topologically large, researchers have recently even uncovered large algebraic structures within these sets. This excellent book provides the first comprehensive treatment of the search for linearity in fundamentally nonlinear situations. It covers a wide variety of strange analytical objects and discusses their lineability properties. The few general techniques that are available are also presented. Each chapter contains a useful list of exercises and a notes-and-remarks section that directs the reader to the extensive literature in the field. The book is ideally suited for a one-semester course on lineability and related notions, and it is essential reading for anybody interested in the fascinating story of strange objects in analysis." Karl Grosse-Erdmann, Department of Mathematics, Université de Mons, Belgium

"Mathematical monsters (functions satisfying certain pathologies) are, despite the conventional wisdom, more common and ubiquitous than they may appear at first glance. This wonderful book helps you find large vector spaces or linear algebras of such specimens. The book is a delicious piece of art that introduces the elegant linearity inside of nonlinear problems." Domingo García, University of Valencia, Spain "This book is a compendium of the currently known results on the size of linear and algebraic substructures within different classes of real or complex valued functions, which, as a whole, do not have such structures. The classes of such functions always contain some examples that serve as counterexamples in different mathematical settings. The work presented in this text facilitates better understanding of such examples. In general, this is a very well-written book that will be great reading for anybody interested in a true understanding of the riches of the structures of real and complex valued functions."

- Krzysztof Chris Ciesielski, Professor of Mathematics, West Virginia University, and Adjunct Professor of Radiology, University of Pennsylvania, USA

"Hippasus of Metapontum shocked mathematicians of Pythagorass school claiming the irrationality of the root of 2. Cantor astonished the mathematical community with the proof of the uncountability of irrational numbers. Weierstrasss monster of a continuous everywhere but differentiable nowhere frightened mathematicians with this counterintuitive example. Every single mathematician remembers the first time in her life when she discovers one of these three results. Gurariy proved in the sixties that the set of Weierstrasss monsters in the interval contains a vector space of countably infinite dimension. This result resonated in the last years and motivated the study of the existence of large algebraic structures of shocking mathematical objects, attracting the interest of many mathematicians from analysis, algebra, and topology. This excellent book provides the first systematic treatment of the quest for linearity in nonlinear topics. I encourage other mathematicians to take part in this adventure. They will be astonished after reading it!"

- J. Alberto Conejero, IUMPA, Universitat Politècnica de València, Spain

"The late 2000s and early 2010s witnessed an explosion of papers on lineability/spaceability, which is the search for linearity on nonlinear problems. This trend in modern analysis investigates the existenceor notof a (infinite dimensional, closed, dense) subspace of a given topological vector space formed, up to the null vector, by elements enjoying a certain prescribed distinguished property. Problems of completely different natures are studied, and here comes the relevance of this book: this is the first time all these different problems and solutions are assembled in book form. The book is very well written and everyone interested in the field should have it as permanent companion."

- Geraldo Botelho, Universidade Federal de Uberlândia, Brazil

"Ever since the discovery of continuous and nowhere differentiable functions by Weierstrass, the study of exotic objects in analysis has fascinated mathematicians. While it has been known for some time that the sets of such exceptional objects are often topologically large, researchers have recently even uncovered large algebraic structures within these sets. This excellent book provides the first comprehensive treatment of the search for linearity in fundamentally nonlinear situations. It covers a wide variety of strange analytical objects and discusses their lineability properties. The few general techniques that are available are also presented. Each chapter contains a useful list of exercises and a notes-and-remarks section that directs the reader to the extensive literature in the field. The book is ideally suited for a one-semester course on lineability and related notions, and it is essential reading for anybody interested in the fascinating story of strange objects in analysis."

- Karl Grosse-Erdmann, Department of Mathematics, Université de Mons, Belgium

"Mathematical monsters (functions satisfying certain pathologies) are, despite the conventional wisdom, more common and ubiquitous than they may appear at first glance. This wonderful book helps you find large vector spaces or linear algebras of such specimens. The book is a delicious piece of art that introduces the elegant linearity inside of nonlinear problems."

- Domingo García, University of Valencia, Spain

"Lineability has evolved from a newly emerging topic in the early 2000's to a well-established field in modern mathematical analysis in the 2010's. The only missing point in this astonishingly rapid trajectory was the publication of a comprehensive monograph by well-known experts on the subject. [ This book] fills this gap in a masterful way. [ ] I am sure this book will serve as a valuable reference for all researchers working in the field as well as a source of inspiration for young mathematicians interested in the big area of mathematical analysis."

- Geraldo Botelho, Mathematical Reviews March 2017

Preface xi
Author Biographies xvii
List of Figures
xix
Preliminary Notions and Tools 1(22)
I Cardinal numbers
1(4)
II Cardinal arithmetic
5(5)
III Basic concepts and results of abstract and linear algebra
10(6)
IV Residual subsets
16(3)
V Lineability, spaceability, algebrability and their variants
19(1)
VI Notes and remarks
20(3)
1 Real Analysis
23(62)
1.1 What one needs to know
23(1)
1.2 Weierstrass' monsters
24(2)
1.3 Differentiable nowhere monotone functions
26(1)
1.4 Nowhere analytic functions and annulling functions
27(12)
1.5 Surjections, Darboux functions and related properties
39(6)
1.6 Other properties related to the lack of continuity
45(4)
1.7 Continuous functions that attain their maximum at only one point
49(17)
1.8 Peano maps and space-filling curves
66(13)
1.9 Exercises
79(1)
1.10 Notes and remarks
80(5)
2 Complex Analysis
85(34)
2.1 What one needs to know
85(3)
2.2 Nonextendable holomorphic functions: genericity
88(4)
2.3 Vector spaces of nonextendable functions
92(4)
2.4 Nonextendability in the unit disc
96(9)
2.5 Tamed entire functions
105(3)
2.6 Wild behavior near the boundary
108(3)
2.7 Nowhere Gevrey differentiability
111(3)
2.8 Exercises
114(2)
2.9 Notes and remarks
116(3)
3 Sequence Spaces, Measure Theory and Integration
119(34)
3.1 What one needs to know
120(4)
3.2 Lineability and spaceability in sequence spaces
124(6)
3.3 Non-contractive maps and spaceability in sequence spaces
130(3)
3.4 Lineability and spaceability in Lp[ 0, 1]
133(2)
3.5 Spaceability in Lebesgue spaces
135(6)
3.6 Lineability in sets of norm attaining operators in sequence spaces
141(3)
3.7 Riemann and Lebesgue integrable functions and spaceability
144(2)
3.8 Exercises
146(3)
3.9 Notes and remarks
149(4)
4 Universality, Hypercyclicity and Chaos
153(56)
4.1 What one needs to know
154(1)
4.2 Universal elements and hypercyclic vectors
155(5)
4.3 Lineability and dense-lineability of families of hypercyclic vectors
160(8)
4.4 Wild behavior near the boundary, universal series and lineability
168(5)
4.5 Hypercyclicity and spaceability
173(12)
4.6 Algebras of hypercyclic vectors
185(2)
4.7 Supercyclicity and lineability
187(4)
4.8 Frequent hypercyclicity and lineability
191(6)
4.9 Distributional chaos and lineability
197(2)
4.10 Exercises
199(3)
4.11 Notes and remarks
202(7)
5 Zeros of Polynomials in Banach Spaces
209(26)
5.1 What one needs to know
209(1)
5.2 Zeros of polynomials: the results
210(22)
5.3 Exercises
232(3)
6 Miscellaneous
235(22)
6.1 Series in classical Banach spaces
235(1)
6.2 Dirichlet series
236(1)
6.3 Non-convergent Fourier series
237(4)
6.4 Norm-attaining functionals
241(1)
6.5 Annulling functions and sequences with finitely many zeros
242(3)
6.6 Sierpinski-Zygmund functions
245(3)
6.7 Non-Lipschitz functions with bounded gradient
248(3)
6.8 The Denjoy-Clarkson property
251(2)
6.9 Exercises
253(4)
7 General Techniques
257(28)
7.1 What one needs to know
257(2)
7.2 The negative side
259(2)
7.3 When lineability implies dense-lineability
261(4)
7.4 General results about spaceability
265(5)
7.5 An algebrability criterion
270(4)
7.6 Additivity and cardinal invariants: a brief account
274(4)
7.7 Exercises
278(3)
7.8 Notes and remarks
281(4)
Bibliography 285(18)
Index 303
Richard M. Aron is a professor of mathematics at Kent State University. He is editor-in-chief of the Journal of Mathematical Analysis and Applications. He is also on the editorial boards of Revista de la Real Academia de Ciencias Exactas, Fisicas y Naturales. Serie A. Matematicas (RACSAM) and the Mathematical Proceedings of the Royal Irish Academy. His primary research interests include functional and nonlinear analysis. He received his PhD from the University of Rochester.

Luis Bernal González is a full professor at the University of Seville. His main research interests are complex analysis, operator theory, and the interdisciplinary subject of lineability. He is the author or coauthor of more than 80 papers in these areas, many of them concerning the structure of the sets of mathematical objects. He is also a reviewer for several journals. He received his PhD in mathematics from the University of Seville.

Daniel M. Pellegrino is an associate professor at the Federal University of Paraíba. He is also a researcher at the National Council for Scientific and Technological Development (CNPq) in Brazil. He is an elected affiliate member of the Brazilian Academy of Sciences and a young fellow of The World Academy of Sciences (TWAS). He received his PhD in mathematical analysis from Unicamp (State University of São Paulo).

Juan B. Seoane Sepúlveda is a professor at the Complutense University of Madrid. He is the coauthor of over 100 papers. His main research interests include real and complex analysis, operator theory, number theory, geometry of Banach spaces, and lineability. He received his first PhD from the University of Cádiz jointly with the University of Karlsruhe and his second PhD from Kent State University.