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MODERN TUNNELLING TECHNOLOGY 2022, Vol. 59 Issue (6) :154-161    DOI:
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Field Test Study on the Compaction Effect of Waterstops for Long-section and Large-tonnage Urban Utility Tunnels
(1. China Xiongan Group, Xiong′an 071000; 2. No.6 Engineering Co., Ltd., CCCC Second Highway Engineering, Xi′an 710075;3. Key Laboratory of Geotechnical and Subsurface Engineering of the Ministry of Education, College of Transportation Engineering, Tongji University, Shanghai 200092; 4. School of Civil Engineering, North China University of Technology, Beijing 100144;5. Sichuan Just Rubber Co., Ltd., Suining 629399)
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Abstract In order to further improve the waterproof performance of urban utility tunnels, two water stop test schemes were proposed on the premise of ensuring that the boundary conditions conform to the actual project, and the field test study on the compaction effect of waterstop for long-section, full-scale and large-tonnage urban utility tunnel were carried out based on the actual project. The results show that when the tunnel is fully compacted, the tension of the steel strand in test scheme 1 (static splicing + Class I waterstop) is about 90.5% higher than that in test scheme 2 (suspended splicing + Class II waterstop), which has higher requirements for the steel strand tension system; the average width deviation of the tunnel crown and bottom joint in test scheme 2 is only 0.73 mm, which is much smaller than that in test scheme 1, thus contributing to the uniform distribution of the interfacial stress of the waterstop; and the effective interfacial stresses in test scheme 1 and test scheme 2 finally reach 1.61 MPa and 1.56 MPa respectively, and the average joint widths are 7.80 mm and 4.41 mm respectively. It is recommended that test scheme 2 be adopted in the waterproof construction for this utility tunnel project.
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YANG Zhong1 MA Huabing2 YU Haitao3 XU Hailiang4 YUE Qing5
KeywordsUrban utility tunnel   Long section   Waterstop   Compaction effect   Field test     
Abstract: In order to further improve the waterproof performance of urban utility tunnels, two water stop test schemes were proposed on the premise of ensuring that the boundary conditions conform to the actual project, and the field test study on the compaction effect of waterstop for long-section, full-scale and large-tonnage urban utility tunnel were carried out based on the actual project. The results show that when the tunnel is fully compacted, the tension of the steel strand in test scheme 1 (static splicing + Class I waterstop) is about 90.5% higher than that in test scheme 2 (suspended splicing + Class II waterstop), which has higher requirements for the steel strand tension system; the average width deviation of the tunnel crown and bottom joint in test scheme 2 is only 0.73 mm, which is much smaller than that in test scheme 1, thus contributing to the uniform distribution of the interfacial stress of the waterstop; and the effective interfacial stresses in test scheme 1 and test scheme 2 finally reach 1.61 MPa and 1.56 MPa respectively, and the average joint widths are 7.80 mm and 4.41 mm respectively. It is recommended that test scheme 2 be adopted in the waterproof construction for this utility tunnel project.
KeywordsUrban utility tunnel,   Long section,   Waterstop,   Compaction effect,   Field test     
Cite this article:   
YANG Zhong1 MA Huabing2 YU Haitao3 XU Hailiang4 YUE Qing5 .Field Test Study on the Compaction Effect of Waterstops for Long-section and Large-tonnage Urban Utility Tunnels[J]  MODERN TUNNELLING TECHNOLOGY, 2022,V59(6): 154-161
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