Weak Convergence (IIA) - Functional and Random Aspects of the Univariate Extreme Value Theory
Gane Samb Lo, Modou Ngom, Tchilabola Abozou Kpanzou, Mouminou Diallo

TL;DR
This paper provides a comprehensive mathematical and statistical analysis of weak convergence in univariate extreme value theory, focusing on foundational aspects and estimation problems.
Contribution
It offers an extensive synthesis of the mathematical foundations and statistical estimation methods in univariate extreme value theory, integrating new contributions and existing literature.
Findings
Mathematical foundation based on regular variation and weak convergence
Development of statistical estimation techniques for extreme values
Survey of research questions and unpublished results in the field
Abstract
The univariate extreme value theory deals with the convergence in type of powers of elements of sequences of cumulative distribution functions on the real line when the power index gets infinite. In terms of convergence of random variables, this amounts to the the weak convergence, in the sense of probability measures weak convergence, of the partial maximas of a sequence of independent and identically distributed random variables. In this monograph, this theory is comprehensively studied in the broad frame of weak convergence of random vectors as exposed in Lo et al.(2016). It has two main parts. The first is devoted to its nice mathematical foundation. Most of the materials of this part is taken from the most essential Lo\`eve(1936,177) and Haan (1970), based on the stunning theory of regular, pi or gamma variation. To prepare the statistical applications, a number contributions I…
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Taxonomy
TopicsFinancial Risk and Volatility Modeling · Mathematical Approximation and Integration · Probability and Risk Models
