Farkas, Hershel M.
Generalizations of Thomae's Formula for Zn Curves [electronic resource] / by Hershel M. Farkas, Shaul Zemel. - XVII, 354 p. online resource. - Developments in Mathematics, Diophantine Approximation: Festschrift for Wolfgang Schmidt, 21 1389-2177 ; . - Developments in Mathematics, Diophantine Approximation: Festschrift for Wolfgang Schmidt, 21 .
Introduction.- 1. Riemann Surfaces -- 2. Zn Curves -- 3. Examples of Thomae Formulae -- 4. Thomae Formulae for Nonsingular Zn Curves -- 5. Thomae Formulae for Singular Zn Curves.-6. Some More Singular Zn Curves.-Appendix A. Constructions and Generalizations for the Nonsingular and Singular Cases.-Appendix B. The Construction and Basepoint Change Formulae for the Symmetric Equation Case.-References.-List of Symbols.-Index.
This book provides a comprehensive overview of the theory of theta functions, as applied to compact Riemann surfaces, as well as the necessary background for understanding and proving the Thomae formulae. The exposition examines the properties of a particular class of compact Riemann surfaces, i.e., the Zn curves, and thereafter focuses on how to prove the Thomae formulae, which give a relation between the algebraic parameters of the Zn curve, and the theta constants associated with the Zn curve. Graduate students in mathematics will benefit from the classical material, connecting Riemann surfaces, algebraic curves, and theta functions, while young researchers, whose interests are related to complex analysis, algebraic geometry, and number theory, will find new rich areas to explore. Mathematical physicists and physicists with interests also in conformal field theory will surely appreciate the beauty of this subject.
9781441978479
10.1007/978-1-4419-7847-9 doi
Mathematics.
Geometry, algebraic.
Functions of complex variables.
Differential equations, partial.
Functions, special.
Number theory.
Mathematics.
Algebraic Geometry.
Functions of a Complex Variable.
Several Complex Variables and Analytic Spaces.
Special Functions.
Number Theory.
QA564-609
516.35
Generalizations of Thomae's Formula for Zn Curves [electronic resource] / by Hershel M. Farkas, Shaul Zemel. - XVII, 354 p. online resource. - Developments in Mathematics, Diophantine Approximation: Festschrift for Wolfgang Schmidt, 21 1389-2177 ; . - Developments in Mathematics, Diophantine Approximation: Festschrift for Wolfgang Schmidt, 21 .
Introduction.- 1. Riemann Surfaces -- 2. Zn Curves -- 3. Examples of Thomae Formulae -- 4. Thomae Formulae for Nonsingular Zn Curves -- 5. Thomae Formulae for Singular Zn Curves.-6. Some More Singular Zn Curves.-Appendix A. Constructions and Generalizations for the Nonsingular and Singular Cases.-Appendix B. The Construction and Basepoint Change Formulae for the Symmetric Equation Case.-References.-List of Symbols.-Index.
This book provides a comprehensive overview of the theory of theta functions, as applied to compact Riemann surfaces, as well as the necessary background for understanding and proving the Thomae formulae. The exposition examines the properties of a particular class of compact Riemann surfaces, i.e., the Zn curves, and thereafter focuses on how to prove the Thomae formulae, which give a relation between the algebraic parameters of the Zn curve, and the theta constants associated with the Zn curve. Graduate students in mathematics will benefit from the classical material, connecting Riemann surfaces, algebraic curves, and theta functions, while young researchers, whose interests are related to complex analysis, algebraic geometry, and number theory, will find new rich areas to explore. Mathematical physicists and physicists with interests also in conformal field theory will surely appreciate the beauty of this subject.
9781441978479
10.1007/978-1-4419-7847-9 doi
Mathematics.
Geometry, algebraic.
Functions of complex variables.
Differential equations, partial.
Functions, special.
Number theory.
Mathematics.
Algebraic Geometry.
Functions of a Complex Variable.
Several Complex Variables and Analytic Spaces.
Special Functions.
Number Theory.
QA564-609
516.35