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基于鲸鱼优化算法-长短期记忆网络的高地应力隧道围岩变形预测与施工参数优化研究

Research on prediction of surrounding rock deformation and optimization of construction parameters of high ground stress tunnel based on WOA-LSTM.

作者信息

Yao Jianquan, Nie Jiajia, Li Chaofeng

机构信息

China Communications First Highway Engineering Bureau 9th Engineering Co., Ltd, GuangZhou, China.

出版信息

Sci Rep. 2024 Nov 9;14(1):27396. doi: 10.1038/s41598-024-79059-x.

DOI:10.1038/s41598-024-79059-x
PMID:39521869
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11550318/
Abstract

To accurately understand the deformation behavior of surrounding rock in the jiugongshan No.2 high ground stress tunnel and optimize construction parameters for improved efficiency, on-site monitoring was used to gather data on rock deformation and initial support contact pressure. A WOA-LSTM regression prediction model was proposed, and excavation advance depth was optimized using numerical simulation. The WOA-LSTM regression prediction model demonstrated high accuracy in tunnel deformation monitoring. The absolute errors between predicted and actual values of tunnel settlement and convergence at various measurement points average 2.53 mm and 1.96 mm, with relative errors averaging 2.15% and 2.34%. These results meet the requirements for guiding construction. Additionally, based on the results of numerical simulation calculations, when the step length is 12 m during the construction of high-stress tunnels using the benching method, excavation advances of 2 m and 3 m result in settlement and convergence increases of 35.1% and 63.4%, and 25.5% and 55.2%, respectively, compared to an excavation advance of 1 m. However, no sudden jumps in these values were observed, indicating that with a 3 m excavation advance, the integrity of the surrounding rock remains in good condition, effectively guiding safe and rapid construction methods.

摘要

为准确了解九宫山二号高地应力隧道围岩的变形特性,优化施工参数以提高施工效率,采用现场监测获取围岩变形及初期支护接触压力数据。提出了WOA-LSTM回归预测模型,并利用数值模拟对开挖进尺进行了优化。WOA-LSTM回归预测模型在隧道变形监测中具有较高精度。各测点隧道沉降和收敛的预测值与实测值的绝对误差平均为2.53mm和1.96mm,相对误差平均为2.15%和2.34%。这些结果满足指导施工的要求。此外,基于数值模拟计算结果,采用台阶法施工高地应力隧道时,当步长为12m时,开挖进尺2m和3m时的沉降和收敛增幅分别比开挖进尺1m时增加35.1%和63.4%,以及25.5%和55.2%。然而,这些值并未出现突然跃升,表明开挖进尺3m时,围岩完整性仍保持良好状态,有效指导了安全快速的施工方法。

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