內容簡介
Felix Klein著名的Erlangen綱領使得群作用理論成為數學的核心部分。在此綱領的精神下,Felix Klein開始一個偉大的計劃,就是撰寫一係列著作將數學各領域包括數論、幾何、復分析、離散子群等統一起來。他的一本著作是《二十麵體和十五次方程的解》於1884年齣版,4年後翻譯成英文版,它將三個看似不同的領域——二十麵體的對稱性、十五次方程的解和超幾何函數的微分方程緊密地聯係起來。之後Felix Klein和Robert Fricke閤作撰寫瞭四捲著作,包括橢圓模函數兩捲本和自守函數兩捲本。弗裏剋、剋萊因著季理真主編迪普雷譯的《自守函數理論講義(第2捲)(英文版)(精)》是對一本著作的推廣,內容包含Poincare和Klein在自守形式的高度原創性的工作,它們奠定瞭Lie群的離散子群、代數群的算術子群及自守形式的現代理論的基礎,對數學的發展起著巨大的推動作用。
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目錄
Preface
Part I Narrower theory of the single-valued automorphic functions of one variable
Concept, existence and fundamental properties of the automorphic functions
1.1 Definition of the automorphic functions
1.2 Production of an elementary potential of the second kind belonging
to the fundamental domain
1.3 Production of automorphic functions of the group F
1.4 Mapping of the fundamental domain P onto a closed Riemann surface
1.5 The totality of all automorphic functions belonging to a group F and their principal properties
1.6 Classification and closer study of the elementary automorphic functions
1.7 Preparations for the classification of the higher automorphic functions
1.8 Classification and closer study of the higher automorphic functions ...
1.9 The integrals of the automorphic models
1.10 General single-valuedness theorem. Application to linear differential equations
1.11 as a linearly polymorphic function. The fundamental problem
1.12 Differential equations of the third order for the polymorphic functions.
1.13 Generalization of the concept of automorphic functions
Form-theoretic discussions for the automorphic models of genus zero
2.1 Shapes of the fundamental domains for the models of genus zero
2.2 Recapitulation of homogeneous variables, substitutions and groups...
2.3 General definition of the automorphic forms
2.4 The differentiation process and the principal forms of the models of genus zero
2.5 The family of prime forms and the ground forms for automorphic models with p = 0
2.6 Behavior of the automorphic forms q0d ((1,(2) with respect to the group generators
2.7 The ground forms for the groups of the circular-arc triangles
2.8 The single-valued automorphic forms and their multiplicator systems .
2.9 The number of all mtflfiplicator systems M for a given group F
2.10 Example for the determination of the number of the multiplicator systems M, the effect of secondary relations
2.11 Representation of all unbranched automorphic forms
2.12 Existence theorem for single-valued forms q0d((1,(2) for given multiplicator system M
2.13 Relations between multiplicator systems inverse to one another.
2.14 Integral forms and forms with prescribed poles
2.15 The (1, (2 as linearly-polymorphic forms of the zl, z2
2.16 Other forms of the polymorphic forms. History
2.17 Differential equations of second order for the polymorphic forms of zero dimension
2.18 Invariant form of the differential equation for the polymorphic forms (1, (2
2.19 Series representation of the polymorphic forms in the case n = 3
2.20 Representation of the polymorphic forms in the case n = 3 by definite integrals
Theory of Poincar6 series with special discussions for the models of genus zero
3.1 The approach to the Poincar6 series
3.2 First convergence study of the Poincar6 series
3.3 Behavior of the Poincar6 series at parabolic cusps
3.4 The Poincar6 series of (-2)nd dimension for groups F with boundary curves
3.5 The Poincar6 series of (-2)nd dimension for principal-circle groups With isolatedly situated boundary points
3.6 Convergence of the Poincar6 series of (-2)nd dimension for certain groups Without boundary curves and Without principal circle
3.7 Second convergence study in the principal-circle case. Continuous dependence of the Poincar6 series on the group moduli
3.8 Poles of the Poincar6 series and the possibility of its vanishing identically. Discussion for the case p = 0
3.9 Construction of one-pole Poincar6 series
3.10 One-poled series with poles at elliptic vertices
3.11 Introduction of the elementary forms ~ ((1, (2; ~ 1, ~2)
3.12 Behavior of the elementary form ~2((1,(2;(1,(2) at a parabolic cusp ( ..
3.13 Behavior of the elementary forms upon exercise of substitutions of the group F on (1, (2. Discussions for the models of genus p —— 0
3.14 Concerning the representability of arbitrary automorphic forms of genus zero by the elementary forms and the Poincar6 series
The automorphic forms and their analytic representations for models of arbitrary genus
4.1 Recapitulation concerning the groups of arbitrary genus p and their generation
4.2 Recapitulation and extension of the theory of the primeform for an arbitrary algebraic model
4.3 The polymorphic forms (1, (2 for a model of arbitrary genus p
4.4 Differential equations of the polymorphic functions and forms for models with p > 0
4.5 Representation of all unbranched automorphic forms of a group F of arbitrary genus by the prime-and groundforms
4.6 The single-valued automorphic forms and their multiplicator systems for a group of arbitrary genus
4.7 Existence of the single-valued forms for a given multiplicator system in the case of an arbitrary genus
4.8 More on single-valued automorphic forms for arbitrary p. The p forms z~-2((1,~'2)
4.9 Concept of conjugate forms. Extended Riemann-Roch theorem and applications of it
4.10 The Poincard series and the elementary forms for p. Unimultiplicative forms
4.11 Two-poled series of (——2)nd dimension and integrals of the 2nd kind for automorphic models of arbitrary genus p
4.12 The integrals of the first and third kinds. Product representation for the primeform ~
4.13 On the representability of the automorphic forms of arbitrary genus p by the elementary forms and the Poincard series
4.14 Closing remarks
Part II Fundamental theorems concerning the existence of polymorphic functions on Riemann surfaces
1 Continuity studies in the domain of the principal-circle groups
1.1 Recapitulation of the polygon theory of the principal-circle groups
1.2 The polygon continua of the character (0, 3)
1.3 The polygon continua of the character (0, 4)
1.4 The polygon continua of the character (0, n)
1.5 Another representation of the polygon continua of the character (0,4) .
1.6 The polygon continua of the character (1,1)
1.7 The polygon continua of the character (p, n)
1.8 Transition from the polygon continua to the group continua
1.9 The discontinuity of the modular group
1.10 The reduced polygons of the character (1,1)
1.11 The surface q)3 of third degree coming up for the character (1,1)
1.12 The discontinuity domain of the modular group and the character (1,1)
1.13 Connectivity and boundary of the individual group continuum of the character (1,1)
1.14 The reduced polygons of the character (0, 4)
1.15 The surfaces ~a of the third degree coming up for the character (0,4) ..
1.16 The discontinuity domain of the modular group and the group continua of the character (0, 4)
1.17 Boundary and connectivity of the individual group continuum of the character (0, 4)
1.18 The normal and the reduced polygons of the character (0, n)
1.19 The continua of the reduced polygons of the character (0, n) for given vertex invariants and fixed vertex arrangement
1.20 The discontinuity domain of the modular group and the group continua of the character (0, n)
1.21 The group continua of the character (p, n)
1.22 Report on the continua of the Riemann surfaces of the genus p
1.23 Report on the continua of the symmetric Riemann surfaces of the genus p
1.24 Continuity of the mapping between the continuum of groups and the continuum of Riemann surfaces
1.25 Single-valuedness of the mapping between the continuum of groups and the continuum of Riemann surfaces
1.26 Generalities on the continuity proof of the fundamental theorem in the domain of the principal-circle groups
1.27 Effectuation of the continuity proof for the signature (0, 3; ll, la)
1.28 Effectuation of the continuity proof for the signature (0, 3; ll)
1.29 Effectuation of the continuity proof for the signature (1,1; 11)
1.30 Effectuation of the continuity proof for the signature (0, 3)
1.31 Representation of the three-dimensional continua Bg and Bf for the signature (1,1)
1.32 Effectuation of the continuity proof for the signature (1,1)
Proof of the principal-circle and the boundary-circle theorem
2.1 Historical information concerning the direct methods of proof of the fundamental theorems
2.2 Theorems on logarithmic potentials and Green's functions
2.3 More on the solution of the boundary-value problem
2.4 The Green's function of a simply connected domain
2.5 Two theorems of Koebe
2.6 Production of the covering surface F~ in the boundary-circle case
2.7 Production of the covering surface in the principal-circle case
2.8 The Green's functions of the domain Fv and their convergence in the principal-circle case
2.9 Mapping of the covering surface onto a circular disc. Proof of the principal-circle theorem
2.10 Introduction of new series of functions in the boundary-circle case
2.11 Connection of the limit functions ur, u" with one another and with Green's functions u~
2.12 Mapping of the covering surface by means of the function
Proof of the boundary-circle theorem
Proof of the reentrant cut theorem
3.1 Theorems on schlicht infinite images of a circular surface
3.2 Theorems on schlicht finite models of a circular surface
3.3 The distortion theorem for circular domains
3.4 The distortion theorem for arbitrary domains
3.5 Consequences of the distortion theorem
3.6 Production of the covering surface Foo for a Riemann surface provided with p reentrant cuts
3.7 Mapping of the surface Fn onto a schlicht domain for special reentrant cuts
3.8 Mapping of the surface Fn onto a schlicht domain for arbitrary reentrant cuts
3.9 Introduction of a system of analytic transformations belonging to the domain Pn
3.10 Application of the distortion theorem to the domain Pn
3.11 Application of the consequences of the distortion theorem to the domain Pn
3.12 Effectuation of the convergence proof of the functions r/n (z)
3.13 Proof of the linearity theorem
3.14 Proof of the unicity theorem. Proof of the reentrant cut theorem
3.15 Koebe's proof of the general Kleinian fundamental theorem
An addition to the transformation theory of automorphic functions
A. 1 General approach to the transformation of single-valued automorphic functions
A.2 The arithmetic character of the group of the signature (0, 3; 2, 4, 5)
A.3 Introduction of the transformation of third degree
A.4 Setting up the transformation equation of tenth degree
A.5 The Galois group of the transformation equation and its cyclic subgroups
A.6 The non-cyclic subgroups of the Ga60 and the extended G720
A.7 The two resolvents of sixth degree of the transformation equation
A.8 The discontinuity domains of the F15 and F30 belonging to the octahedral and tetrahedral groups
A.9 The two resolvents of the 15th degree of the transformation equation ..
A.10 Note on the grups F20 belonging to the ten conjugate G18
A.11 The Riemann surface of the Galois resolvent of the transformation equation
A.12 The curve C6 in the octahedral coordinate system
A.13 The curve C6 in the icosahedral coordinate system
A.14 The curve C6 in the harmonic coordinate system
A.15 The real traces of the C6 and the character of the points a, b, c
A.16 Further geometrical theorems on the collineation group G360
A.17 The Galois resolvent of the transformation equation
A.18 The solution of the resolvents of 6th and 15th degree
A.19 Solution of the transformation equation of 10th degree
Commentaries
1 Commentary by Richard Borcherds on Elliptic Modular Functions
2 Commentary by leremy Gray
3 Commentary by William Harvey on Automorphic Functions
4 Commentary by Barry Mazur
5 Commentary by Series-Mumford-Wright
6 Commentary by Domingo Toledo
7 Commentaries by Other Mathematicians
好的,以下是根據您的要求,針對一本假設存在的、名為《自守函數理論講義 第二捲》的書籍,撰寫的詳細且不包含任何原主題內容的圖書簡介。 --- 《黎曼麯麵與模空間導論》 第一版 | 2024年 作者:[在此處填寫一位虛構的數學傢姓名] 齣版社:[在此處填寫一傢虛構的學術齣版社名稱] --- 內容簡介:跨越幾何與代數的橋梁 本書《黎曼麯麵與模空間導論》旨在為數學、理論物理及相關領域的研究生和高級本科生提供一個全麵且深入的框架,用以理解現代幾何分析中的兩大核心構件:黎曼麯麵(Riemann Surfaces)及其相關的模空間(Moduli Spaces)。全書共分為五個主要部分,結構嚴謹,邏輯清晰,旨在將抽象的拓撲概念與具體的分析工具相結閤,為讀者構建起一座從基礎到前沿的堅實橋梁。 本書的特色在於其獨特的敘事方式,它不滿足於僅介紹既有理論,更緻力於探究這些理論背後的幾何直覺和代數結構。我們從最基礎的拓撲概念齣發,逐步引入復分析的強大工具,最終導嚮對高維幾何對象的深刻洞察。 --- 第一部分:黎曼麯麵的拓撲基礎與復結構(The Topological and Complex Foundations of Riemann Surfaces) 本部分聚焦於黎曼麯麵的底層結構。我們首先迴顧緊緻流形的基本概念,特彆是二維實流形上的拓撲不變量,如歐拉示性數和基本群。重點將放在如何通過拓撲結構來分類所有可能的黎曼麯麵類型上。 隨後,我們將引入局部坐標和復結構的概念。詳細討論瞭哪些拓撲結構可以“承載”一個良定義的復解析結構。我們深入研究瞭完備性的概念,並闡述瞭橢圓麯綫(Genus 1的黎曼麯麵)作為最簡單非平凡案例的全麵分析。讀者將學習如何利用雙麯幾何的視角來理解單連通黎曼麯麵(如單位圓盤),並掌握狄利剋雷有限區域(Dirichlet Fundamental Domains)的概念,這是理解模空間結構的關鍵先驅。 第二部分:調和分析與微分形式(Harmonic Analysis and Differential Forms on Surfaces) 在建立瞭黎曼麯麵的框架之後,本部分將引入分析學的工具。我們詳盡闡述瞭德拉姆上同調(de Rham Cohomology)在麯麵上的應用,並展示瞭拓撲(奇異上同調群)與微分形式(閉微分形式)之間的深刻聯係。 核心內容聚焦於調和微分形式(Harmonic Differentials)。讀者將學習霍奇分解(Hodge Decomposition)在麯麵上的具體錶現形式,理解其對麯麵結構信息編碼的重要性。我們詳細討論瞭韋納-科斯塔斯定理(Weitzenböck’s formula)及其在計算麯麵幾何量(如麵積和黎曼度量)中的應用。通過對Green’s Functions在麯麵上的性質的分析,本部分為理解調和函數理論奠定瞭堅實的基礎。 第三部分:自伴隨算子與譜理論(Self-Adjoint Operators and Spectral Theory) 本部分將目光投嚮瞭麯麵上的微分算子,特彆是拉普拉斯-貝特拉米算子(Laplace-Beltrami Operator)。我們將分析該算子在不同邊界條件下的譜性質。 專題討論瞭黎曼麯麵的譜(The Spectrum of a Riemann Surface)及其與麯麵幾何的關聯。讀者將學習如何利用譜幾何的視角來理解麯麵的拓撲和度量信息,特彆是Weyl律和剋羅夫-拉特勒不等式。本部分詳盡分析瞭熱核展開(Heat Kernel Expansion)在麯麵上的性質,並探討瞭譜不變量如何決定麯麵的基本特徵,例如其體積和麵積。 第四部分:模空間的構造與幾何(Construction and Geometry of Moduli Spaces) 這是本書的理論高峰,將前三部分的內容融會貫通,引入模空間的概念。我們首先明確模空間的定義:它是對一族具有特定幾何結構的對象的集閤,並賦予其一個拓撲結構(通常是拓撲或復拓撲)。 本書主要關注虧格 $g$ 的黎曼麯麵模空間 $mathcal{M}_g$ 的構造。我們將采用Teichmüller空間作為起點,詳細介紹如何通過Fenchel-Nielsen坐標來參數化具有特定邊界長度和扭轉角的雙麯結構。隨後,通過對Weil–Petersson度量的介紹,我們探討瞭模空間的內蘊幾何,並分析瞭其奇異性結構,特彆是自交麯綫(non-separating geodesics)所導緻的邊界。 第五部分:模空間的緊化與應用(Compactification and Applications of Moduli Spaces) 為瞭在 $mathcal{M}_g$ 上進行分析,通常需要引入緊化(Compactification)的概念。本部分詳細討論瞭Deligne–Mumford 緊化 $overline{mathcal{M}}_g$ 的構造,它包含瞭帶尖點(nodal curves)的黎曼麯麵。讀者將深入理解尖點如何通過“收縮”一個短的測地綫來生成,並學習如何構造這些尖點處的局部坐標係。 最後,本書將簡要迴顧模空間理論在現代數學物理中的應用,包括其與弦理論中界麵幾何的聯係,以及在代數幾何中對麯綫模的刻畫。通過對黎曼麯麵及其模空間的全麵、細緻的解析,本書旨在使讀者不僅掌握理論工具,更能培養齣對高維復幾何結構深刻而直觀的理解。 --- 目標讀者: 具有紮實的復分析、微分幾何和基礎拓撲學背景的研究生、博士後及專業研究人員。 先決條件: 讀者應熟悉復變函數論、基礎拓撲學和經典微分幾何的基本概念。 ---