Application of the representative measure approach to assess the reliability of decision trees in dealing with unseen vehicle collision data
- URL: http://arxiv.org/abs/2404.09541v1
- Date: Mon, 15 Apr 2024 08:06:54 GMT
- Title: Application of the representative measure approach to assess the reliability of decision trees in dealing with unseen vehicle collision data
- Authors: Javier Perera-Lago, Víctor Toscano-Durán, Eduardo Paluzo-Hidalgo, Sara Narteni, Matteo Rucco,
- Abstract summary: Representative datasets are a cornerstone in shaping the trajectory of artificial intelligence (AI) development.
We investigate the reliability of the $varepsilon$-representativeness method to assess the dataset similarity from a theoretical perspective for decision trees.
We extend the results experimentally in the context of unseen vehicle collision data for XGboost.
- Score: 0.6571063542099526
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: Machine learning algorithms are fundamental components of novel data-informed Artificial Intelligence architecture. In this domain, the imperative role of representative datasets is a cornerstone in shaping the trajectory of artificial intelligence (AI) development. Representative datasets are needed to train machine learning components properly. Proper training has multiple impacts: it reduces the final model's complexity, power, and uncertainties. In this paper, we investigate the reliability of the $\varepsilon$-representativeness method to assess the dataset similarity from a theoretical perspective for decision trees. We decided to focus on the family of decision trees because it includes a wide variety of models known to be explainable. Thus, in this paper, we provide a result guaranteeing that if two datasets are related by $\varepsilon$-representativeness, i.e., both of them have points closer than $\varepsilon$, then the predictions by the classic decision tree are similar. Experimentally, we have also tested that $\varepsilon$-representativeness presents a significant correlation with the ordering of the feature importance. Moreover, we extend the results experimentally in the context of unseen vehicle collision data for XGboost, a machine-learning component widely adopted for dealing with tabular data.
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