The aim of this volume is two-fold. First, to show how the resurgent methods introduced in volume 1 can be applied efficiently in a non-linear setting; to this end further properties of the resurgence theory must be developed. Second, to analyze the fundamental example of the First Painlevé equation. The resurgent analysis of singularities is pushed all the way up to the so-called “bridge equation”, which concentrates all information about the non-linear Stokes phenomenon at infinity of the First Painlevé equation.
The third in a series of three, entitled Divergent Series, Summability and Resurgence, this volume is aimed at graduate students, mathematicians and theoretical physicists who are interested in divergent power series and related problems, such as the Stokes phenomenon. The prerequisites are a working knowledge of complex analysis at the first-year graduate level and of the theory of resurgence, as presented in volume 1.
The aim of this volume is two-fold. First, to show how
the resurgent methods introduced in volume 1 can be applied efficiently in a
non-linear setting; to this end further properties of the resurgence theory
must be developed. Second, to analyze the fundamental example of the First
Painlevé equation. The resurgent analysis of singularities is pushed all the
way up to the so-called “bridge equation”, which concentrates all
information about the non-linear Stokes phenomenon at infinity of the First Painlevé
equation.
The third in a series of three, entitled Divergent Series, Summability and
Resurgence, this volume is aimed at graduate students, mathematicians and
theoretical physicists who are interested in divergent power series and related
problems, such as the Stokes phenomenon. The prerequisites are a working
knowledge of complex analysis at the first-year graduate level and of the
theory of resurgence, as presented in volume 1.
Features a thorough resurgent analysis of the celebrated non-linear differential equation Painlevé I Includes new specialized results in the theory of resurgence For the first time, higher order Stokes
phenomena of Painlevé I are made explicit by means of the so-called bridge
equation
Eric Delabaere
34Mxx,34M30,40Cxx,35Q15,34M50,30B40,30D05,37Fxx,37F99,34M55 Divergent Series Summability Resurgence First Painlevé Equation Riemann-Hilbert Problem ordinary differential equations