Improving the Accuracy of Flood Damage Assessments to Residential Structures via the Use of Experimental Data

ABSTRACT The current practice of flood loss prediction presents limitations in accurately predicting building flood losses at multiple scales. While whole‐building estimates can more accurately predict high‐level losses (i.e., large groups of buildings), a significant analysis error is revealed with small‐scale (i.e., individual, or small groups of buildings) investigation. This research presents a more robust, data driven, small‐scale, flood damage estimation approach for residential buildings. The approach is based on component‐level, depth–damage curves derived from experimental analysis. Structures with standard residential construction materials typical to the south‐eastern United States were built and incrementally flooded for short durations. The materials were assessed to determine the level of damage inflicted. This experimentally derived damage data were then translated into a set of flood depth–damage functions (DDFs). The DDFs were tailored for analysis at smaller scales and incorporated the ability to apply damage uncertainty in damage analysis. To demonstrate the applicability of the experimentally derived DDFs to damage estimation at smaller scales, the functions are applied to a hypothetical building design typical of the south‐eastern United States.

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Publication Details

Journal
Journal of Flood Risk Management
Published
2025-01-16
DOI
https://doi.org/10.1111/jfr3.70003
Primary Topic
Flood Risk Assessment and Management
Type
article
Field-Weighted Citation Impact
0.00

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article

Improving the Accuracy of Flood Damage Assessments to Residential Structures via the Use of Experimental Data

Elizabeth Matthews, Anna Katya Opel
Journal of Flood Risk Management
Flood Risk Assessment and Management
article

Improving the Accuracy of Flood Damage Assessments to Residential Structures via the Use of Experimental Data

Elizabeth Matthews, Anna Katya Opel
article en

Abstract

ABSTRACT The current practice of flood loss prediction presents limitations in accurately predicting building flood losses at multiple scales. While whole‐building estimates can more accurately predict high‐level losses (i.e., large groups of buildings), a significant analysis error is revealed with small‐scale (i.e., individual, or small groups of buildings) investigation. This research presents a more robust, data driven, small‐scale, flood damage estimation approach for residential buildings. The approach is based on component‐level, depth–damage curves derived from experimental analysis. Structures with standard residential construction materials typical to the south‐eastern United States were built and incrementally flooded for short durations. The materials were assessed to determine the level of damage inflicted. This experimentally derived damage data were then translated into a set of flood depth–damage functions (DDFs). The DDFs were tailored for analysis at smaller scales and incorporated the ability to apply damage uncertainty in damage analysis. To demonstrate the applicability of the experimentally derived DDFs to damage estimation at smaller scales, the functions are applied to a hypothetical building design typical of the south‐eastern United States.

Journal of Flood Risk ManagementVol. 18(1)
Louisiana Tech University (US)
Louisiana Tech University
Openalex Percentile: Top 99%
Flood Risk Assessment and Management
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