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Analysis of the Sanchung inundation during Typhoon Aere, 2004

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Abstract

Typhoon Aere swept over Taiwan with heavy rain, which induced huge discharge in the Danshuei River in August 2004. The flood in the Danshuei River intruded Sanchung through a culvert that was under construction. The deluge inundated thousands of premises and resulted in severe damage. This study reconstructs the event scenario using hydrologic and hydraulic methods to analyse the causes of the disaster. We integrated the radar rainfall estimations and rain gauge observations to recreate the temporal and spatial varied precipitation inputs; estimated the influent volume from the culvert using hydrologic equations; and simulated the flood dynamic within the study area during the event with a coupled overland and sewer flow model. The evidence showed that both the rainfall and the culvert flow contributed similar flood volume to the study area, but culvert discharge concentrated at single location within short time period such that the local drainage system could not cope with and notable damage was incurred.

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Abbreviations

CWB:

Central Weather Bureau, Taiwan

EOC:

Emergency Operation Centre

NCDR:

National Center for Disaster Reduction, Taiwan

QPESUMS:

Quantitative Precipitation Estimation and Segregation Using Multiple Sensors

SWMM:

Storm Water Management Model

TACE:

Taiwan Association of Civil Engineer

TAHE:

Taiwan Association of Hydraulic Engineer

TIS:

Tongan Interception Station

TPS:

Tongan Pumping Station

UIM:

Urban Inundation Model

WRA:

Water Resource Agency, Taiwan

Z–R:

Reflectivity–Rainfall Relationship

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Acknowledgments

The authors sincerely appreciate Taipei City Government, Taipei County Government, Sanchung City Council, Central Weather Bureau and the Water Resource Agency, for providing the precious information and help.

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Correspondence to Ming-Hsi Hsu.

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Chen, A.S., Hsu, MH., Huang, CJ. et al. Analysis of the Sanchung inundation during Typhoon Aere, 2004. Nat Hazards 56, 59–79 (2011). https://doi.org/10.1007/s11069-010-9549-y

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