A novel algorithm for confidence sub-contour box estimation: an alternative to traditional confidence intervals
Daniel Rojas-Diaz, Alexandra Catano-Lopez, Carlos M., Velez-Sanchez

TL;DR
This paper introduces a new algorithm for estimating confidence sub-contour boxes (CSB) in non-linear models, providing a computationally efficient alternative to traditional confidence intervals with enhanced interpretability.
Contribution
The paper proposes two novel algorithms for CSB estimation, offering a new approach to confidence region estimation that addresses issues with existing methods as the number of factors increases.
Findings
Validated properties of CSB including uncertainty level and asymmetry
Demonstrated sensitivity assessment capability for each factor
Identified true-influential factors effectively
Abstract
The factor estimation process is a really challenging task for non-linear models. Even whether researchers manage to successfully estimate model factors, they still must estimate their confidence intervals, which could require a high computational cost to turn them into informative measures. Some methods in the literature attempt to estimate regions within the estimation search space where factors may jointly exist and fit the real data (confidence contours), however, its estimation process raises several issues as the number of factors increases. Hence, in this paper, we focus on the estimation of a subregion within the confidence contour that we called as Confidence Subcontour Box (CSB). We proposed two main algorithms for CSB estimation, as well as its interpretation and validation. Given the way we estimated CSB, we expected and validated some useful properties of this new kind of…
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Taxonomy
TopicsControl Systems and Identification · Probabilistic and Robust Engineering Design · Fault Detection and Control Systems
