The Selberg Trace Formula for PSL (2,R)
Author : Dennis A. Hejhal
Publisher : Springer
Page : 815 pages
File Size : 37,2 MB
Release : 2006-11-15
Category : Mathematics
ISBN : 3540409149
Author : Dennis A. Hejhal
Publisher : Springer
Page : 815 pages
File Size : 37,2 MB
Release : 2006-11-15
Category : Mathematics
ISBN : 3540409149
Author : Dennis A. Hejhal
Publisher :
Page : 544 pages
File Size : 34,99 MB
Release : 1976
Category : Automorphic forms
ISBN :
Author : Dennis A. Hejhal
Publisher : Springer
Page : 742 pages
File Size : 23,70 MB
Release : 1976
Category : Mathematics
ISBN :
Author : Dennis A. Hejhal
Publisher :
Page : 806 pages
File Size : 11,43 MB
Release : 1983
Category : Selberg trace formula
ISBN :
Author : Dennis A. Hejhal
Publisher :
Page : 528 pages
File Size : 29,51 MB
Release : 2014-09-01
Category :
ISBN : 9783662195222
Author : Pia Bauer-Price
Publisher :
Page : 88 pages
File Size : 33,39 MB
Release : 1991
Category : Eisenstein series
ISBN :
Author : Jürgen Fischer
Publisher : Springer
Page : 188 pages
File Size : 22,50 MB
Release : 2006-11-15
Category : Mathematics
ISBN : 3540393315
The Notes give a direct approach to the Selberg zeta-function for cofinite discrete subgroups of SL (2,#3) acting on the upper half-plane. The basic idea is to compute the trace of the iterated resolvent kernel of the hyperbolic Laplacian in order to arrive at the logarithmic derivative of the Selberg zeta-function. Previous knowledge of the Selberg trace formula is not assumed. The theory is developed for arbitrary real weights and for arbitrary multiplier systems permitting an approach to known results on classical automorphic forms without the Riemann-Roch theorem. The author's discussion of the Selberg trace formula stresses the analogy with the Riemann zeta-function. For example, the canonical factorization theorem involves an analogue of the Euler constant. Finally the general Selberg trace formula is deduced easily from the properties of the Selberg zeta-function: this is similar to the procedure in analytic number theory where the explicit formulae are deduced from the properties of the Riemann zeta-function. Apart from the basic spectral theory of the Laplacian for cofinite groups the book is self-contained and will be useful as a quick approach to the Selberg zeta-function and the Selberg trace formula.
Author : Isaac Y. Efrat
Publisher : American Mathematical Soc.
Page : 121 pages
File Size : 40,73 MB
Release : 1987
Category : Mathematics
ISBN : 0821824244
We evaluate the Selberg trace formula for all discrete, irreducible, cofinite subgroups of PSL2 ([double-struck capital]R)[italic superscript]n. In particular, this involves studying the spectral theory of the fundamental domain, and the analysis of the appropriate Eisenstein series. A special role is played by the Hilbert modular groups, both because of their relation to the general case, stemming from a rigidity theorem, and their inherent algebraic number theoretic interest.
Author : Christian Grosche
Publisher : World Scientific
Page : 389 pages
File Size : 12,28 MB
Release : 2013
Category : Mathematics
ISBN : 9814460087
In this second edition, a comprehensive review is given for path integration in two- and three-dimensional (homogeneous) spaces of constant and non-constant curvature, including an enumeration of all the corresponding coordinate systems which allow separation of variables in the Hamiltonian and in the path integral. The corresponding path integral solutions are presented as a tabulation. Proposals concerning interbasis expansions for spheroidal coordinate systems are also given. In particular, the cases of non-constant curvature Darboux spaces are new in this edition. The volume also contains results on the numerical study of the properties of several integrable billiard systems in compact domains (i.e. rectangles, parallelepipeds, circles and spheres) in two- and three-dimensional flat and hyperbolic spaces. In particular, the discussions of integrable billiards in circles and spheres (flat and hyperbolic spaces) and in three dimensions are new in comparison to the first edition. In addition, an overview is presented on some recent achievements in the theory of the Selberg trace formula on Riemann surfaces, its super generalization, their use in mathematical physics and string theory, and some further results derived from the Selberg (super-) trace formula.
Author : Leonard C. Maximon
Publisher : Springer
Page : 166 pages
File Size : 35,88 MB
Release : 2016-04-18
Category : Science
ISBN : 3319297368
This book, intended for researchers and graduate students in physics, applied mathematics and engineering, presents a detailed comparison of the important methods of solution for linear differential and difference equations - variation of constants, reduction of order, Laplace transforms and generating functions - bringing out the similarities as well as the significant differences in the respective analyses. Equations of arbitrary order are studied, followed by a detailed analysis for equations of first and second order. Equations with polynomial coefficients are considered and explicit solutions for equations with linear coefficients are given, showing significant differences in the functional form of solutions of differential equations from those of difference equations. An alternative method of solution involving transformation of both the dependent and independent variables is given for both differential and difference equations. A comprehensive, detailed treatment of Green’s functions and the associated initial and boundary conditions is presented for differential and difference equations of both arbitrary and second order. A dictionary of difference equations with polynomial coefficients provides a unique compilation of second order difference equations obeyed by the special functions of mathematical physics. Appendices augmenting the text include, in particular, a proof of Cramer’s rule, a detailed consideration of the role of the superposition principal in the Green’s function, and a derivation of the inverse of Laplace transforms and generating functions of particular use in the solution of second order linear differential and difference equations with linear coefficients.