Development and application of an integrated methodology for post‐disaster field investigation of debris floods

Debris floods commonly occur in steep channels with an abundant sediment supply, and they can cause significant damage, primarily due to their higher sediment concentrations and negative impacts upon bank erosion, deep scouring and aggradation. These key hazards pose challenges for traditional asses...

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Veröffentlicht in:Earth surface processes and landforms 2024-08, Vol.49 (10), p.2914-2935
Hauptverfasser: Po, Yang, Xiekang, Wang, Dongya, Sun, Zexing, Xu, Weizhen, Lu
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container_issue 10
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creator Po, Yang
Xiekang, Wang
Dongya, Sun
Zexing, Xu
Weizhen, Lu
description Debris floods commonly occur in steep channels with an abundant sediment supply, and they can cause significant damage, primarily due to their higher sediment concentrations and negative impacts upon bank erosion, deep scouring and aggradation. These key hazards pose challenges for traditional assessment methods, making quantification difficult. This became obvious during a recent catastrophic debris flood that occurred on July 12, 2022, in the Heishuigou catchment (102 km2), northern Sichuan Province, China. In this case study, we developed an integrated methodology for assessing this debris flood event by incorporating field surveys, hydrological and hydraulic modelling and sediment transport calculations. Detailed information such as topographic maps, photographs, deposits, grain size distributions and inundation depths was collected to analyse the material sources, validate the parameters and conduct model calculations. The peak debris flood discharge and the supra‐critical bed shear stress ratios, estimated from hydrological and dynamic models, were incorporated to analyse the debris flood's typology and characterize its destructive mechanisms. The regional frequency–volume relationship established through bedload transport calculations was calibrated using the volume of the deposits determined via field investigation. These methods not only contribute to a comprehensive understanding of debris floods but also provide valuable support for future risk assessments and mitigation designs. Flowchart representing the flow type changes from a pure water flow to a stream flood with high bedload transport (debris flood), then to a damaging debris flood, and finally a catastrophic debris flood.
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source Wiley Online Library Journals Frontfile Complete
subjects Accretion
Bank erosion
Bed load
Bottom stress
Catchment area
Debris
debris flood
destructive mechanism
Detritus
Dynamic models
field investigation
Field investigations
Flood discharge
Flooding
Floods
Grain size distribution
Hazard assessment
Hydrologic models
Hydrologic surveys
Hydrology
Mitigation
Risk assessment
Sediment
Sediment concentration
Sediment deposits
Sediment transport
Sediments
Shear stress
Topographic mapping
Topographic maps
Typology
title Development and application of an integrated methodology for post‐disaster field investigation of debris floods
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