Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake

As a common water conveyance structure, aqueduct is widely used in cross-regional water conveyance and diversion projects. However, large double-trough aqueduct structures are prone to damage under earthquake, resulting in water leakage and even interruption, endangering the safety of people’s lives...

Full description

Saved in:
Bibliographic Details
Main Authors: Chong Wu, Jinpeng Zhang, Jianguo Xu, Chunyu Zhang, Yupeng Geng
Format: Article
Language:English
Published: Wiley 2022-01-01
Series:Advances in Civil Engineering
Online Access:http://dx.doi.org/10.1155/2022/5457453
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1849410048496762880
author Chong Wu
Jinpeng Zhang
Jianguo Xu
Chunyu Zhang
Yupeng Geng
author_facet Chong Wu
Jinpeng Zhang
Jianguo Xu
Chunyu Zhang
Yupeng Geng
author_sort Chong Wu
collection DOAJ
description As a common water conveyance structure, aqueduct is widely used in cross-regional water conveyance and diversion projects. However, large double-trough aqueduct structures are prone to damage under earthquake, resulting in water leakage and even interruption, endangering the safety of people’s lives and property in surrounding areas. In this paper, the nonlinear reinforced-concrete material program is compiled based on the FORTRAN language. Taking the Shuangji River aqueduct project as an example, the numerical model of the fiber beam element of the double-trough aqueduct structure is established, and the nonlinear dynamic time-history response analysis of different ground motion inputs is carried out. Based on the midspan displacement and acceleration time history, pier bottom bending moment and shear force time history, the nonlinear response law of large aqueduct structure is studied. A criterion for determining the overall collapse of aqueduct structure based on effective energy is proposed. The correctness and feasibility of the nonlinear numerical model of the aqueduct structure and the dynamic catastrophe analysis method are verified by focusing on the overall seismic response of the aqueduct structure and the material yield status of key parts, and comparing with the collapse criterion based on the limit value of pier top displacement angle. The conclusions will provide a basis for seismic analysis, optimization design, and operation and maintenance safety assessment of large aqueduct structures and have important theoretical significance and engineering application value.
format Article
id doaj-art-7d7d4563d90f4fdcaec22a345fc9c0dc
institution Kabale University
issn 1687-8094
language English
publishDate 2022-01-01
publisher Wiley
record_format Article
series Advances in Civil Engineering
spelling doaj-art-7d7d4563d90f4fdcaec22a345fc9c0dc2025-08-20T03:35:18ZengWileyAdvances in Civil Engineering1687-80942022-01-01202210.1155/2022/5457453Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong EarthquakeChong Wu0Jinpeng Zhang1Jianguo Xu2Chunyu Zhang3Yupeng Geng4School of Water Conservancy EngineeringHenan Puze Expressway Co. Ltd.School of Water Conservancy EngineeringSchool of Water Conservancy EngineeringHenan Puze Expressway Co. Ltd.As a common water conveyance structure, aqueduct is widely used in cross-regional water conveyance and diversion projects. However, large double-trough aqueduct structures are prone to damage under earthquake, resulting in water leakage and even interruption, endangering the safety of people’s lives and property in surrounding areas. In this paper, the nonlinear reinforced-concrete material program is compiled based on the FORTRAN language. Taking the Shuangji River aqueduct project as an example, the numerical model of the fiber beam element of the double-trough aqueduct structure is established, and the nonlinear dynamic time-history response analysis of different ground motion inputs is carried out. Based on the midspan displacement and acceleration time history, pier bottom bending moment and shear force time history, the nonlinear response law of large aqueduct structure is studied. A criterion for determining the overall collapse of aqueduct structure based on effective energy is proposed. The correctness and feasibility of the nonlinear numerical model of the aqueduct structure and the dynamic catastrophe analysis method are verified by focusing on the overall seismic response of the aqueduct structure and the material yield status of key parts, and comparing with the collapse criterion based on the limit value of pier top displacement angle. The conclusions will provide a basis for seismic analysis, optimization design, and operation and maintenance safety assessment of large aqueduct structures and have important theoretical significance and engineering application value.http://dx.doi.org/10.1155/2022/5457453
spellingShingle Chong Wu
Jinpeng Zhang
Jianguo Xu
Chunyu Zhang
Yupeng Geng
Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
Advances in Civil Engineering
title Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
title_full Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
title_fullStr Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
title_full_unstemmed Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
title_short Nonlinear Response and Collapse Analysis of Double-Channel Aqueduct under Strong Earthquake
title_sort nonlinear response and collapse analysis of double channel aqueduct under strong earthquake
url http://dx.doi.org/10.1155/2022/5457453
work_keys_str_mv AT chongwu nonlinearresponseandcollapseanalysisofdoublechannelaqueductunderstrongearthquake
AT jinpengzhang nonlinearresponseandcollapseanalysisofdoublechannelaqueductunderstrongearthquake
AT jianguoxu nonlinearresponseandcollapseanalysisofdoublechannelaqueductunderstrongearthquake
AT chunyuzhang nonlinearresponseandcollapseanalysisofdoublechannelaqueductunderstrongearthquake
AT yupenggeng nonlinearresponseandcollapseanalysisofdoublechannelaqueductunderstrongearthquake