A Study of Scaling Issues in Bayesian Belief Networks for Ship Classification
Scott A. Musman, L. W. Chang

TL;DR
This paper introduces a modular approach using Sequential Decomposition to address scaling challenges in Bayesian belief networks for ship classification, enabling efficient reasoning without exhaustive enumeration.
Contribution
The paper proposes a novel SD network structure that divides complex models into modules, maintaining explanatory power while improving scalability in ship classification tasks.
Findings
SD approach effectively manages feature-observation relations.
Achieves comparable explanatory power to exhaustive methods.
Enhances scalability for complex AI classification problems.
Abstract
The problems associated with scaling involve active and challenging research topics in the area of artificial intelligence. The purpose is to solve real world problems by means of AI technologies, in cases where the complexity of representation of the real world problem is potentially combinatorial. In this paper, we present a novel approach to cope with the scaling issues in Bayesian belief networks for ship classification. The proposed approach divides the conceptual model of a complex ship classification problem into a set of small modules that work together to solve the classification problem while preserving the functionality of the original model. The possible ways of explaining sensor returns (e.g., the evidence) for some features, such as portholes along the length of a ship, are sometimes combinatorial. Thus, using an exhaustive approach, which entails the enumeration of all…
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Taxonomy
TopicsBayesian Modeling and Causal Inference · Imbalanced Data Classification Techniques · Rough Sets and Fuzzy Logic
