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RETRACTED: An improved DBSCAN algorithm based on cell-like P systems with promoters and inhibitors
Yuzhen Zhao1, Xiyu Liu1, Xiufeng Li1
1College of Business, Shandong Normal University, Jinan, 250014, China.
This study enhances the Density-based spatial clustering of applications with noise (DBSCAN) algorithm using membrane computing. The improved DBSCAN achieves O(n) time complexity for big cluster analysis, outperforming the conventional O(n2) approach.
Area of Science:
- Computer Science
- Bio-inspired Computing
- Artificial Intelligence
Background:
- Density-based spatial clustering of applications with noise (DBSCAN) is effective for finding arbitrary-shaped clusters and removing noise.
- Membrane computing, a bio-inspired field, develops computational models called P systems from biological cells, offering parallel and distributed computing capabilities.
Purpose of the Study:
- To improve the efficiency and performance of the DBSCAN algorithm for large-scale cluster analysis.
- To integrate membrane computing principles, specifically parallel evolution and hierarchical structures, into DBSCAN.
Main Methods:
- The DBSCAN algorithm was enhanced using cell-like P systems featuring a hierarchical membrane structure.
- Promoters and inhibitors were employed within the P systems to regulate the parallel evolution of objects.
- A parallel evolution mechanism was integrated into the DBSCAN framework.
Main Results:
- The enhanced DBSCAN algorithm demonstrated strong performance in analyzing large datasets and big clusters.
- The time complexity was significantly improved from O(n^2) for conventional DBSCAN to O(n).
- The integration of membrane computing concepts led to a more efficient clustering solution.
Conclusions:
- The proposed enhanced DBSCAN algorithm effectively handles big cluster analysis with improved time complexity.
- Membrane computing models, particularly hierarchical frameworks and parallel evolution mechanisms, offer a promising approach for enhancing conventional algorithms.
- This research highlights the potential of bio-inspired computing for advancing data analysis techniques.
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