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Mining and analysis of multiple association rules between the Xining loess collapsibility and physical parameters
Zhikun Li1,2, Xiaojun Li3,4, Yanyan Zhu5
1Xi'an University of Science and Technology, Xi'an, 710054, Shaanxi, China.
Scientific Reports
|January 13, 2021
Summary
This study uses data mining to identify key physical factors influencing loess collapsibility in Xining. Association rules help predict collapsibility, simplifying testing and improving construction safety.
Area of Science:
- Geotechnical Engineering
- Data Mining Applications
Background:
- Collapsibility assessment in loess areas is costly and labor-intensive.
- Predictive models are needed to streamline loess collapsibility determination.
Purpose of the Study:
- To establish association rules between loess physical parameters and collapsibility using data mining.
- To develop simplified evaluation criteria for loess collapsibility in Xining.
Main Methods:
- Grey Relational Analysis to identify key influencing factors from 13 potential parameters.
- Apriori algorithm to discover association rules between collapsibility coefficients (δs, δzs) and identified factors.
- Analysis of 1039 loess samples from Xining.
Main Results:
- Key factors influencing loess collapsibility were identified.
- Significant association rules were found between physical parameters and collapsibility.
- Proposed evaluation criteria simplify collapsibility assessment.
Conclusions:
- Data mining effectively predicts loess collapsibility, reducing experimental costs.
- The developed criteria offer a practical approach for engineering projects in loess regions.
- Recommendations enhance construction safety in collapsible loess areas.
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