Inductive Inference in Supervised Classification
Ali Amiryousefi

TL;DR
This paper explores Bayesian inductive inference methods for supervised classification, comparing classifiers based on de Finetti and Kingman exchangeability, and analyzing their asymptotic behaviors with large training and test datasets.
Contribution
It provides a comparative analysis of classifiers derived from different exchangeability assumptions and investigates their asymptotic properties in supervised learning.
Findings
Classifiers based on de Finetti exchangeability handle test items independently with infinite training data.
Classifiers based on partition exchangeability benefit from joint labeling of test items.
Inductive learning saturates as test data size approaches infinity.
Abstract
Inductive inference in supervised classification context constitutes to methods and approaches to assign some objects or items into different predefined classes using a formal rule that is derived from training data and possibly some additional auxiliary information. The optimality of such an assignment varies under different conditions due to intrinsic attributes of the objects being considered for such a task. One of these cases is when all the objects' features are discrete variables with a priori known categories. As another example, one can consider a modification of this case with a priori unknown categories. These two cases are the main focus of this thesis and based on Bayesian inductive theories, de Finetti type exchangeability is a suitable assumption that facilitates the derivation of classifiers in the former scenario. On the contrary, this type of exchangeability is not…
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Taxonomy
TopicsMachine Learning and Algorithms · Neural Networks and Applications · Bayesian Modeling and Causal Inference
