Central limit theorems for associated possibly moving partial sums and application to the non-stationary invariance principle
Akim Adekpedjou, Aladji Babacar Niang, Ch\'erif Mamadou Moctar, Traor\'e, Gane samb Lo

TL;DR
This paper establishes central limit theorems with Gaussian limits for non-stationary, dependent, associated data, and applies these results to invariance principles, with implications for statistical modeling and actuarial sciences.
Contribution
It introduces new CLTs for non-stationary associated data and extends invariance principles to these complex dependent structures.
Findings
CLTs with Gaussian limits for non-stationary associated data
Application to finite-distributional invariance principles
Potential use in actuarial sciences and statistical modeling
Abstract
General Central limit theorem deals with weak limits (in type) of sums of row-elements of array random variables. In some situations as in the invariance principle problem, the sums may include only parts of the row-elements. For strictly stationary arrays (stationary for each row), there is no change to the asymptotic results. But for non-stationary data, especially for dependent data, asymptotic laws of partial sums moving in rows may require extra-conditions to exist. This paper deals with central limit theorems with Gaussian limits for non-stationary data. Our main focus is on dependent data, particularly on associated data. But the non-stationary independent data is also studied as a learning process. The results are applied to finite-distributional invariance principles for the types of data described above. In Moreover, results for associated sequences are interesting and…
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Taxonomy
TopicsProbability and Risk Models · Stochastic processes and statistical mechanics · Financial Risk and Volatility Modeling
