Hiring in life sciences? Share your open positions with our professional community. Read more Close

Advertisement

Learning-Enhanced Belief Rule Base for Sensor-Based Bearing Health Condition Assessment.

Created on 27 Oct 2026

Authors

Xinrong Li, Yan Li, Shiming Li, Yuhe Wang

Published in

Sensors (Basel, Switzerland). Volume 26. Issue 20. Oct 12, 2026. Epub Oct 12, 2026.

Abstract

The Belief Rule Base (BRB) provides explainable reasoning and uncertainty modeling capabilities, offering significant advantages in complex system modeling. However, the scope of its knowledge base is constrained by expert prior knowledge, rendering it incapable of encompassing fault categories that appear in the training data but lack expert-defined rules, thereby preventing post-construction expansion in line with data evolution. To this end, this paper proposes a learning-enhanced BRB model (LE-BRB), achieving a verifiable extension of the rule conclusion space within the BRB framework. First, association rules are introduced to mine classes with missing expert rules and generate candidate rules; secondly, a quality verification module is constructed through Pareto-based filtering, and rule fusion is implemented based on antecedent similarity and conclusion conflict degree; Finally, evidential reasoning is employed to achieve traceable diagnosis. Experiments on the CWRU local bearing fault dataset show that, while preserving the original interpretability of the BRB, LE-BRB completes the missing rolling element fault (Ball) rules in the knowledge base, achieving an average accuracy of 91.02%. Experiments on the MAFAULDA bearing dataset show that, while preserving the original interpretability of the BRB, LE-BRB completes the missing rotor unbalance fault in the knowledge base. This fills the coverage gap of the original BRB for this fault category, improving the diagnostic accuracy from 43.69% to 94.17%. Compared with models such as neural networks and decision trees, it achieves comparable or superior accuracy while exhibiting relatively higher stability.

PMID:
42944309
Bibliographic data and abstract were imported from PubMed on 27 Oct 2026.

Read full publication at:
Please sign in to see all details.

Advertisement

Stats

  • Community rating n/a 0 votes
  • Reviewers' rating n/a 0 votes
  • Your rating

1-terrible, 9-excellent. How would you rate this publication? Sign in in to submit your rating.

  • Recommendations n/a n/a positive of 0 vote(s)
  • Views 4
  • Comments 0

Recommended by

  • No recommendations yet.

Post a comment

You need to be signed in to post comments. You can sign in here.

Comments

There are no comments yet.

Advertisement