Karma Dajani (The Netherlands Utrecht University), Charlene Kalle (The Netherlands Leiden University)
A First Course in Ergodic Theory
Karma Dajani (The Netherlands Utrecht University), Charlene Kalle (The Netherlands Leiden University)
A First Course in Ergodic Theory
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This book provides readers with an introductory course in Ergodic Theory. This textbook has been developed from the authorsâ own notes on the subject, which they have been teaching since the 1990s. Over the years they have added topics, theorems, examples and explanations from various sources.
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This book provides readers with an introductory course in Ergodic Theory. This textbook has been developed from the authorsâ own notes on the subject, which they have been teaching since the 1990s. Over the years they have added topics, theorems, examples and explanations from various sources.
Produktdetails
- Produktdetails
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 254
- Erscheinungstermin: 24. Juli 2023
- Englisch
- Abmessung: 156mm x 235mm x 17mm
- Gewicht: 420g
- ISBN-13: 9781032021843
- ISBN-10: 1032021845
- Artikelnr.: 69119921
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 254
- Erscheinungstermin: 24. Juli 2023
- Englisch
- Abmessung: 156mm x 235mm x 17mm
- Gewicht: 420g
- ISBN-13: 9781032021843
- ISBN-10: 1032021845
- Artikelnr.: 69119921
Karma Dajani earned her PhD degree from the George Washington University in DC and is currently an Associate Professor in Mathematics at Utrecht University in the Netherlands. She has over 30 years of teaching experience, close to 60 publications and is the co-author of the book Ergodic Theory of Numbers. Her research interests are primarily in Ergodic Theory and its applications to other fields such as Number Theory, Probability Theory and Symbolic Dynamics. Although Mathematics is her career but it is also one of her three passions: math, dance and classical music. Charlene Kalle earned her PhD in mathematics from Utrecht University. After postdoctoral positions at Warwick University and the University of Vienna, she moved to Leiden University where she is now an Assistant Professor in Mathematics. Her research is in ergodic theory with applications to probability theory. She is also interested in relations to number theory and fractal geometry. She was awarded two prestigious research grants from the Dutch Research Council NWO. Besides twenty research articles, she has co-authored a book on extracurricular high school mathematics. She has accumulated twenty years of teaching experience ranging from teaching Italian language to adults to lecturing master courses in mathematics. She mostly devotes her time not spent on mathematics to her three children and playing bridge.
Preface. Author Bios. 1. Measure preservingness and basic examples. 1.1.
What is Ergodic Theory. 1.2. Measure Preserving Transformations. 1.3. Basic
Examples. 2. Recurrence and Ergodicity. 2.1. Recurrence. 2.2. Ergodicity.
2.3. Examples of Ergodic Transformations. 3. The Pointwise Ergodic Theorem
and its consequences. 3.2. Normal Numbers. 3.3. Characterization of
Irreducible Markov Chains. 3.4. Mixing. 4. More Ergodic Theorem. The mean
Ergodic Theorem. 4.2. The Hurewicz Erogdic Theorem. 5. Measure Preserving
Isomorphisms. 5.2. Factor Maps. 5.3. Natural Extensions. 6. The
Perron-Frobenius Operator. 6.1. Absolutely Continuous Invariants Measures.
6.2. Exactness. Densities for Piecewise Monotnoe Interval Maps. 7.
Invariant Measures for Continuous Transformations. 7.1. Existence. 7.2.
Unique Ergodicity and Inform Distributions. 7.3. Some Topological Dynamics.
8. Continued Fractions. 8.1. Basic Properties of Regular Continue
Fractions. 8.2. Ergodic Properties of Gauss Map. 8.3. Natural Extension and
the Doeblin-Lenstra Conjecture. 8.4. Other Continue Fraction
Transformation. 9. Entropy. 9.1. Randomness and Information. 9.2.
Definitions and Properties. Calculation of Entropy and Examples. 9.4. The
Shannon-McMillan-Breiman Theorem. 9.5. Lochs' Theorem. 10. The Variational
Principle. 10.1 Topological Entropy. 10.2. Main Theorem. 10.3. Measures of
Maximal Entropy. 11. Infinite Ergodic Theory. 11.1 Examples of Infinite
Measure Dynamical Systems. 11.2. Conservative and Dissipative Part. 11.3.
Induced Systems. 11.4. Jump Transformations. 11.5. Ergodic Theorem for
Infinite Measure Systems. 12. Appendix. 12.1. Topology. 12.2. Measure
Theory. 12.3 Lebesgue Spaces. 12.4. Lebesgue Integration and Convergence
Results. 12.5. Hilbert's Spaces. 12.6. Borel Measures on Compact Metric
Spaces. 12.7. Functions of Bounded Variation. Bibliography. Index.
What is Ergodic Theory. 1.2. Measure Preserving Transformations. 1.3. Basic
Examples. 2. Recurrence and Ergodicity. 2.1. Recurrence. 2.2. Ergodicity.
2.3. Examples of Ergodic Transformations. 3. The Pointwise Ergodic Theorem
and its consequences. 3.2. Normal Numbers. 3.3. Characterization of
Irreducible Markov Chains. 3.4. Mixing. 4. More Ergodic Theorem. The mean
Ergodic Theorem. 4.2. The Hurewicz Erogdic Theorem. 5. Measure Preserving
Isomorphisms. 5.2. Factor Maps. 5.3. Natural Extensions. 6. The
Perron-Frobenius Operator. 6.1. Absolutely Continuous Invariants Measures.
6.2. Exactness. Densities for Piecewise Monotnoe Interval Maps. 7.
Invariant Measures for Continuous Transformations. 7.1. Existence. 7.2.
Unique Ergodicity and Inform Distributions. 7.3. Some Topological Dynamics.
8. Continued Fractions. 8.1. Basic Properties of Regular Continue
Fractions. 8.2. Ergodic Properties of Gauss Map. 8.3. Natural Extension and
the Doeblin-Lenstra Conjecture. 8.4. Other Continue Fraction
Transformation. 9. Entropy. 9.1. Randomness and Information. 9.2.
Definitions and Properties. Calculation of Entropy and Examples. 9.4. The
Shannon-McMillan-Breiman Theorem. 9.5. Lochs' Theorem. 10. The Variational
Principle. 10.1 Topological Entropy. 10.2. Main Theorem. 10.3. Measures of
Maximal Entropy. 11. Infinite Ergodic Theory. 11.1 Examples of Infinite
Measure Dynamical Systems. 11.2. Conservative and Dissipative Part. 11.3.
Induced Systems. 11.4. Jump Transformations. 11.5. Ergodic Theorem for
Infinite Measure Systems. 12. Appendix. 12.1. Topology. 12.2. Measure
Theory. 12.3 Lebesgue Spaces. 12.4. Lebesgue Integration and Convergence
Results. 12.5. Hilbert's Spaces. 12.6. Borel Measures on Compact Metric
Spaces. 12.7. Functions of Bounded Variation. Bibliography. Index.
Preface. Author Bios. 1. Measure preservingness and basic examples. 1.1.
What is Ergodic Theory. 1.2. Measure Preserving Transformations. 1.3. Basic
Examples. 2. Recurrence and Ergodicity. 2.1. Recurrence. 2.2. Ergodicity.
2.3. Examples of Ergodic Transformations. 3. The Pointwise Ergodic Theorem
and its consequences. 3.2. Normal Numbers. 3.3. Characterization of
Irreducible Markov Chains. 3.4. Mixing. 4. More Ergodic Theorem. The mean
Ergodic Theorem. 4.2. The Hurewicz Erogdic Theorem. 5. Measure Preserving
Isomorphisms. 5.2. Factor Maps. 5.3. Natural Extensions. 6. The
Perron-Frobenius Operator. 6.1. Absolutely Continuous Invariants Measures.
6.2. Exactness. Densities for Piecewise Monotnoe Interval Maps. 7.
Invariant Measures for Continuous Transformations. 7.1. Existence. 7.2.
Unique Ergodicity and Inform Distributions. 7.3. Some Topological Dynamics.
8. Continued Fractions. 8.1. Basic Properties of Regular Continue
Fractions. 8.2. Ergodic Properties of Gauss Map. 8.3. Natural Extension and
the Doeblin-Lenstra Conjecture. 8.4. Other Continue Fraction
Transformation. 9. Entropy. 9.1. Randomness and Information. 9.2.
Definitions and Properties. Calculation of Entropy and Examples. 9.4. The
Shannon-McMillan-Breiman Theorem. 9.5. Lochs' Theorem. 10. The Variational
Principle. 10.1 Topological Entropy. 10.2. Main Theorem. 10.3. Measures of
Maximal Entropy. 11. Infinite Ergodic Theory. 11.1 Examples of Infinite
Measure Dynamical Systems. 11.2. Conservative and Dissipative Part. 11.3.
Induced Systems. 11.4. Jump Transformations. 11.5. Ergodic Theorem for
Infinite Measure Systems. 12. Appendix. 12.1. Topology. 12.2. Measure
Theory. 12.3 Lebesgue Spaces. 12.4. Lebesgue Integration and Convergence
Results. 12.5. Hilbert's Spaces. 12.6. Borel Measures on Compact Metric
Spaces. 12.7. Functions of Bounded Variation. Bibliography. Index.
What is Ergodic Theory. 1.2. Measure Preserving Transformations. 1.3. Basic
Examples. 2. Recurrence and Ergodicity. 2.1. Recurrence. 2.2. Ergodicity.
2.3. Examples of Ergodic Transformations. 3. The Pointwise Ergodic Theorem
and its consequences. 3.2. Normal Numbers. 3.3. Characterization of
Irreducible Markov Chains. 3.4. Mixing. 4. More Ergodic Theorem. The mean
Ergodic Theorem. 4.2. The Hurewicz Erogdic Theorem. 5. Measure Preserving
Isomorphisms. 5.2. Factor Maps. 5.3. Natural Extensions. 6. The
Perron-Frobenius Operator. 6.1. Absolutely Continuous Invariants Measures.
6.2. Exactness. Densities for Piecewise Monotnoe Interval Maps. 7.
Invariant Measures for Continuous Transformations. 7.1. Existence. 7.2.
Unique Ergodicity and Inform Distributions. 7.3. Some Topological Dynamics.
8. Continued Fractions. 8.1. Basic Properties of Regular Continue
Fractions. 8.2. Ergodic Properties of Gauss Map. 8.3. Natural Extension and
the Doeblin-Lenstra Conjecture. 8.4. Other Continue Fraction
Transformation. 9. Entropy. 9.1. Randomness and Information. 9.2.
Definitions and Properties. Calculation of Entropy and Examples. 9.4. The
Shannon-McMillan-Breiman Theorem. 9.5. Lochs' Theorem. 10. The Variational
Principle. 10.1 Topological Entropy. 10.2. Main Theorem. 10.3. Measures of
Maximal Entropy. 11. Infinite Ergodic Theory. 11.1 Examples of Infinite
Measure Dynamical Systems. 11.2. Conservative and Dissipative Part. 11.3.
Induced Systems. 11.4. Jump Transformations. 11.5. Ergodic Theorem for
Infinite Measure Systems. 12. Appendix. 12.1. Topology. 12.2. Measure
Theory. 12.3 Lebesgue Spaces. 12.4. Lebesgue Integration and Convergence
Results. 12.5. Hilbert's Spaces. 12.6. Borel Measures on Compact Metric
Spaces. 12.7. Functions of Bounded Variation. Bibliography. Index.