基于FIG-SVM的交叉通道地表沉降预测

Student Liang Peng, Zhenlei Chen, Yaohong Zhu
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Finally, the surface settlement trend in terms of Low, R, Up for the next construction stage can be predicted effectively based on the previous test data. Taking the surface settlement monitoring point D5-5 as an example, the error of the predicted range of surface settlement at D5-5 is 5.82%, 5.42%, and 8.0%, respectively Result: The error of other predicted points is also less than 10%, indicating the effectiveness of the prediction model. Compared with the numerical simulation results, the accuracy of the prediction model was further verified. Conclusion: Combined with the simulation method, the \"simulation - prediction\" patent scheme for monitoring the surface settlement of the Cross Passage is proposed in this paper. 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引用次数: 0

摘要

本文建立了一种基于模糊信息粒化(FIG)的优化支持向量机预测模型(SVM)进行地表预测。在实测数据的基础上,对地表沉降参数进行三次样条插值处理,并采用FIG方法将地表沉降参数划分为模糊粒子Low、R和Up,用模糊粒子表示实测数据的变化范围。方法:针对每个模糊粒子,采用粒子群算法(PSO)选择最佳惩罚参数和核函数参数,使K-fold交叉验证(K-CV)误差最小化。利用优化后的参数对预测模型进行训练,用于模糊粒子的非线性预测。最后,根据前期试验数据,可以有效预测下一施工阶段地表沉降在Low、R、Up方向的变化趋势。以地表沉降监测点D5-5为例,D5-5处地表沉降预测范围的误差分别为5.82%、5.42%和8.0%。结果:其他预测点的误差也小于10%,表明预测模型的有效性。通过与数值模拟结果的比较,进一步验证了预测模型的准确性。结论:结合模拟方法,提出了“模拟-预测”交叉通道地表沉降监测专利方案。研究结果表明,本文提出的模型能够方便、有效地预测地表沉降的变化范围和趋势,适合于实际工程应用。
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Prediction of Surface Settlement in the Cross-passage by FIG-SVM Approach
Introduction: An optimized support vector machine prediction model (SVM) with fuzzy information granulation (FIG) is established for surface prediction in this paper. Based on the measured data, cubic spline interpolation was processed and FIG approach was applied to granulate the surface settlement parameters into fuzzy particles Low, R and Up, and the particles are used to represent the range of the measured data variation. Method: For each fuzzy particle, particle swarm optimization (PSO) was used to select the best penalty and kernel function parameters to minimize the K-fold cross-validation (K-CV) error. With the optimized parameters, the prediction model was trained for the nonlinear prediction of fuzzy particles. Finally, the surface settlement trend in terms of Low, R, Up for the next construction stage can be predicted effectively based on the previous test data. Taking the surface settlement monitoring point D5-5 as an example, the error of the predicted range of surface settlement at D5-5 is 5.82%, 5.42%, and 8.0%, respectively Result: The error of other predicted points is also less than 10%, indicating the effectiveness of the prediction model. Compared with the numerical simulation results, the accuracy of the prediction model was further verified. Conclusion: Combined with the simulation method, the "simulation - prediction" patent scheme for monitoring the surface settlement of the Cross Passage is proposed in this paper. The research results indicate that the model proposed in this paper can easily and effectively predict the range and trend of changes in surface settlement, and is suitable for practical engineering applications.
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来源期刊
Recent Patents on Engineering
Recent Patents on Engineering Engineering-Engineering (all)
CiteScore
1.40
自引率
0.00%
发文量
100
期刊介绍: Recent Patents on Engineering publishes review articles by experts on recent patents in the major fields of engineering. A selection of important and recent patents on engineering is also included in the journal. The journal is essential reading for all researchers involved in engineering sciences.
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