Cumulative Information Generating Function and Generalized Gini Functions
Marco Capaldo, Antonio Di Crescenzo, Alessandra Meoli

TL;DR
This paper introduces the cumulative information generating function, a versatile tool unifying classical and fractional entropies, extending variability measures like the Gini function, and exploring applications in reliability and multi-dimensional contexts.
Contribution
It presents the cumulative information generating function, extending entropy and variability measures, and explores its applications in reliability theory and higher-dimensional extensions.
Findings
The function unifies classical and fractional entropies.
It extends the Gini mean semi-difference as a variability measure.
Connections with reliability models and multi-component systems are established.
Abstract
We introduce and study the cumulative information generating function, which provides a unifying mathematical tool suitable to deal with classical and fractional entropies based on the cumulative distribution function and on the survival function. Specifically, after establishing its main properties and some bounds, we show that it is a variability measure itself that extends the Gini mean semi-difference. We also provide (i) an extension of such a measure, based on distortion functions, and (ii) a weighted version based on a mixture distribution. Furthermore, we explore some connections with the reliability of -out-of- systems and with stress-strength models for multi-component systems. Also, we address the problem of extending the cumulative information generating function to higher dimensions.
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Taxonomy
TopicsStatistical Distribution Estimation and Applications · Reliability and Maintenance Optimization · Probabilistic and Robust Engineering Design
