An improved CS-SVM model for slope deformation forecasting under a BIM-based monitoring system

This study aims to develop an efficient slope monitoring and deformation prediction method to address the geological disaster problems caused by slope deformation in infrastructure construction. The slope monitoring system and deformation prediction model were studied and constructed based on the building information model, support vector machine, and cuckoo search algorithm. Experiments showed that the improved cuckoo search algorithm had the best convergence and the optimal solution quality. The hypervolume reached 0.977, the inverse substitution distance reached 0.108. Moreover, this method had the fastest solution time, and the highest coverage of inflection points in the solution set. The optimized deformation prediction model had a strong generalization ability and achieved the best prediction effect in practical applications. The deviation between the predicted value and the true value was the smallest. The prediction accuracy of the optimized model was the highest, and the sum of squared errors reached 0.121. The prediction effect and efficiency of this method were the best, and the prediction time reached 6.46 seconds. This research can promptly identify potential safety hazards, provide theoretical support for formulating scientific slope treatment plans, and reduce casualties and property losses.

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Publication Details

Journal
Journal of Computational Methods in Sciences and Engineering
Published
2025-08-04
DOI
https://doi.org/10.1177/14727978251364452
Primary Topic
Landslides and related hazards
Type
article
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article

An improved CS-SVM model for slope deformation forecasting under a BIM-based monitoring system

Jiaqi Wang, Yujuan Jin
Journal of Computational Methods in Sciences and Engineering
Landslides and related hazards
article

An improved CS-SVM model for slope deformation forecasting under a BIM-based monitoring system

Jiaqi Wang, Yujuan Jin
article en

Abstract

This study aims to develop an efficient slope monitoring and deformation prediction method to address the geological disaster problems caused by slope deformation in infrastructure construction. The slope monitoring system and deformation prediction model were studied and constructed based on the building information model, support vector machine, and cuckoo search algorithm. Experiments showed that the improved cuckoo search algorithm had the best convergence and the optimal solution quality. The hypervolume reached 0.977, the inverse substitution distance reached 0.108. Moreover, this method had the fastest solution time, and the highest coverage of inflection points in the solution set. The optimized deformation prediction model had a strong generalization ability and achieved the best prediction effect in practical applications. The deviation between the predicted value and the true value was the smallest. The prediction accuracy of the optimized model was the highest, and the sum of squared errors reached 0.121. The prediction effect and efficiency of this method were the best, and the prediction time reached 6.46 seconds. This research can promptly identify potential safety hazards, provide theoretical support for formulating scientific slope treatment plans, and reduce casualties and property losses.

Journal of Computational Methods in Sciences and Engineering
Yellow River Conservancy Technical Institute (CN)
Openalex Percentile: Top 73%
Landslides and related hazards
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