2024Geomatics Natural Hazards and RiskOpen access

Experimental study of seepage in levee with transverse structure and water barrier

Woochul Kang, Du Han Lee

Open full text 3 citations

Abstract

A quasi-real-scale experiment was conducted to understand seepage in levees with internal transverse structures.The experiment involved fabricating levees with transverse structures in the same location and using the same method as that in sand levee experiments previously conducted to examine the feasibility of the optical-fiber-distributed temperature system.Levees with internal structures are susceptible to internal erosion and piping risks, which necessitates the installation of water barriers to mitigate these issues.However, conventional concrete water barriers require curing time, leading to potential secondary damage from flooding during construction.As a countermeasure, a compounded polypropylene (PP) water barrier was developed, which is easy to construct and cost-effective.The performances of both concrete and compounded PP water barriers were verified and compared.Water pressure changes inside the levees were tracked, and to monitor temperature changes inside the levees and gain a deeper understanding of seepage, distributed optical fiber cables were employed.The experimental results revealed that levees with transverse structures had a higher risk of internal erosion and piping due to seepage compared to those without such structures, and such levees require continuous monitoring.Furthermore, internal temperature measurements demonstrated the effectiveness of water barriers in mitigating seepage and backward erosion piping.

Open-access reader

About this research paper

What this paper is about

A quasi-real-scale experiment was conducted to understand seepage in levees with internal transverse structures.The experiment involved fabricating levees with transverse structures in the same location and using the same method as that in sand levee experiments previously conducted to examine the feasibility of the optical-fiber-distributed temperature system.Levees with internal structures are susceptible to internal erosion and piping risks, which necessitates the installation of water barriers to mitigate these issues.However, conventional concrete water barriers require curing time, leading to potential secondary damage from flooding during construction.As a countermeasure, a compounded polypropylene (PP) water barrier was developed, which is easy to construct and cost-effective.The performances of both concrete and compounded PP water barriers were verified and compared.Water pressure changes inside the levees were tracked, and to monitor temperature changes inside the levees and gain a deeper understanding of seepage, distributed optical fiber cables were employed.The experimental results revealed that levees with transverse structures had a higher risk of internal erosion and piping due to seepage compared to those without such structures, and such levees require continuous monitoring.Furthermore, internal temperature measurements demonstrated the effectiveness of water barriers in mitigating seepage and backward erosion piping.

Why it matters

OpenAlex reports 3 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

A quasi-real-scale experiment was conducted to understand seepage in levees with internal transverse structures.The experiment involved fabricating levees with transverse structures in the same location and using the same method as that in sand levee experiments previously conducted to examine the feasibility of the optical-fiber-distributed temperature system.Levees with internal structures are susceptible to internal erosion and piping risks, which necessitates the installation of water barriers to mitigate these issues.However, conventional concrete water barriers require curing time, leading to potential secondary damage from flooding during construction.As a countermeasure, a compounded polypropylene (PP) water barrier was developed, which is easy to construct and cost-effective.The performances of both concrete and compounded PP water barriers were verified and compared.Water pressure changes inside the levees were tracked, and to monitor temperature changes inside the levees and gain a deeper understanding of seepage, distributed optical fiber cables were employed.The experimental results revealed that levees with transverse structures had a higher risk of internal erosion and piping due to seepage compared to those without such structures, and such levees require continuous monitoring.Furthermore, internal temperature measurements demonstrated the effectiveness of water barriers in mitigating seepage and backward erosion piping.

Key concepts: Levee, Piping, Internal erosion, Geotechnical engineering, Transverse plane, Water pressure, Environmental science, Geology

Related papers

Back to paper searchBrowse research topicsOriginal source
Experimental study of seepage in levee with transverse structure and water barrier — Research Paper | ScholarLens