The main goal of this book is to present the so-called birational Arakelov geometry, which can be viewed as an arithmetic analog of the classical birational geometry, i.e., the study of big linear series on algebraic varieties. After explaining classical results about the geometry of numbers, the au
Arakelov Geometry
โ Scribed by Atsushi Moriwaki
- Publisher
- American Mathematical Society
- Year
- 2014
- Tongue
- English, Japanese
- Leaves
- 298
- Series
- Translations of mathematical monographs 244
- Edition
- English language edition
- Category
- Library
No coin nor oath required. For personal study only.
โฆ Synopsis
The main goal of this book is to present the so-called birational Arakelov geometry, which can be viewed as an arithmetic analog of the classical birational geometry, i.e., the study of big linear series on algebraic varieties. After explaining classical results about the geometry of numbers, the author starts with Arakelov geometry for arithmetic curves, and continues with Arakelov geometry of arithmetic surfaces and higher-dimensional varieties. The book includes such fundamental results as arithmetic Hilbert-Samuel formula, arithmetic Nakai-Moishezon criterion, arithmetic Bogomolov inequality, the existence of small sections, the continuity of arithmetic volume function, the Lang-Bogomolov conjecture and so on. In addition, the author presents, with full details, the proof of Faltings' Riemann-Roch theorem. Prerequisites for reading this book are the basic results of algebraic geometry and the language of schemes
โฆ Table of Contents
Content: Preliminaries --
Geometry of numbers --
Arakelov geometry on arithmetic curves --
Arakelov geometry on arithmetic surfaces --
Arakelov geometry on general arithmetic varieties --
Arithmetic volume function and its continuity --
Nakai-Moishezon criterion on an arithmetic variety --
Arithmetic Bogomolov inequality --
Lang-Bogomolov conjecture.
โฆ Subjects
Arakelov theory;Geometry, Algebraic
๐ SIMILAR VOLUMES
The main goal of this book is to present the so-called birational Arakelov geometry, which can be viewed as an arithmetic analog of the classical birational geometry, i.e., the study of big linear series on algebraic varieties. After explaining classical results about the geometry of numbers, the au
Arakelov theory is a new geometric approach to diophantine equations. It combines algebraic geometry, in the sense of Grothendieck, with refined analytic tools such as currents on complex manifolds and the spectrum of Laplace operators. It has been used by Faltings and Vojta in their proofs of outst
Arakelov theory is a new geometric approach to diophantine equations. It combines algebraic geometry, in the sense of Grothendieck, with refined analytic tools such as currents on complex manifolds and the spectrum of Laplace operators. It has been used by Faltings and Vojta in their proofs of outst
Arakelov theory is a new geometric approach to diophantine equations. It combines algebraic geometry, in the sense of Grothendieck, with refined analytic tools such as currents on complex manifolds and the spectrum of Laplace operators. It has been used by Faltings and Vojta in their proofs of outst