Numerical Evaluation of Elliptic Functions, Elliptic Integrals and Modular Forms

06/18/2018
by   Fredrik Johansson, et al.
0

We describe algorithms to compute elliptic functions and their relatives (Jacobi theta functions, modular forms, elliptic integrals, and the arithmetic-geometric mean) numerically to arbitrary precision with rigorous error bounds for arbitrary complex variables. Implementations in ball arithmetic are available in the open source Arb library. We discuss the algorithms from a concrete implementation point of view, with focus on performance at tens to thousands of digits of precision.

READ FULL TEXT

page 1

page 2

page 3

page 4

research
02/22/2018

Numerical integration in arbitrary-precision ball arithmetic

We present an implementation of arbitrary-precision numerical integratio...
research
06/26/2018

Elfun18 A collection of Matlab functions for the computation of Elliptical Integrals and Jacobian elliptic functions of real arguments

In the article we outline the set of Matlab functions that enable the co...
research
04/23/2022

Calculation of Integrals in MathPartner

We present the possibilities provided by the MathPartner service of calc...
research
04/30/2021

Towards Flying through Modular Forms

Modular forms are highly self-symmetric functions studied in number theo...
research
04/05/2018

Computing Stieltjes constants using complex integration

The Stieltjes constants γ_n are the coefficients appearing in the Lauren...
research
09/22/2021

Relative-error stability of numerical algorithms

We formalize the definition of a stable algorithm that is (i) adapted to...
research
08/08/2021

Improving MATLAB's isprime performance without arbitrary-precision arithmetic

MATLAB is a numerical computing platform used by scientists, engineers, ...

Please sign up or login with your details

Forgot password? Click here to reset