An empirical central limit theorem in L^1 for stationary sequences
Sophie Dede (PMA)

TL;DR
This paper establishes an empirical central limit theorem in L^1 for stationary sequences, providing asymptotic results for the Wasserstein distance and applications to dynamical systems and linear processes.
Contribution
It introduces a new CLT in L^1 for ergodic stationary sequences using martingale approximations and projective conditions, with applications to dynamical systems.
Findings
Asymptotic normality of the L^1-Wasserstein distance for stationary sequences
Conditions for CLT expressed via projective-type criteria
Applications demonstrated in dynamical systems and linear processes
Abstract
In this paper, we derive asymptotic results for L^1-Wasserstein distance between the distribution function and the corresponding empirical distribution function of a stationary sequence. Next, we give some applications to dynamical systems and causal linear processes. To prove our main result, we give a Central Limit Theorem for ergodic stationary sequences of random variables with values in L^1. The conditions obtained are expressed in terms of projective-type conditions. The main tools are martingale approximations.
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Taxonomy
TopicsStochastic processes and financial applications · Financial Risk and Volatility Modeling · advanced mathematical theories
