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Updated: May 24, 2026

13:51
Cross-Modal Multivariate Pattern Analysis
Published on: November 9, 2011
Adapting the Right Measures for Pattern Discovery: A Unified View.
Summary
This study introduces the support-ascending conditional antimonotone property (SA-CAMP) for interestingness measures in pattern discovery. The novel GMiner algorithm efficiently finds interesting association patterns using this property, even with low support data.
Area of Science:
- Data Mining
- Pattern Recognition
- Machine Learning
Background:
- Interestingness measures are crucial for effective pattern discovery in large datasets.
- Existing measures often lack theoretical properties suitable for efficient pattern mining.
Purpose of the Study:
- To establish necessary conditions and desirable properties for interestingness measures.
- To introduce and validate a new property, SA-CAMP, for pattern discovery.
- To develop and evaluate an algorithm, GMiner, based on the proposed property.
Main Methods:
- Formal definition of three necessary conditions for interestingness measures.
- Introduction and theoretical proof of the support-ascending conditional antimonotone property (SA-CAMP).
- Development of the GMiner algorithm leveraging SA-CAMP and generalized mean (GM) measures.
- Experimental validation of GMiner's efficiency and effectiveness.
Main Results:
- Established three necessary conditions for interestingness measures in association pattern discovery.
- Identified SA-CAMP as a key desirable property for efficient pattern mining.
- Demonstrated that measures with SA-CAMP are suitable for specific itemset-traversal structures.
- The GMiner algorithm effectively identifies interesting patterns using SA-CAMP, even at very low support levels.
Conclusions:
- SA-CAMP provides a robust theoretical foundation for developing efficient pattern discovery algorithms.
- The GMiner algorithm offers a practical and efficient solution for finding interesting association patterns.
- The proposed framework unifies the view of interestingness measures, advancing the field of pattern discovery.
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