Regionalization of Short-Duration Storm Temporal Patterns Using Huff Curves in a Coastal Tropical Region

Tropical coastal regions exhibit pronounced spatial and temporal variability in rainfall driven by seasonal atmospheric circulation and coastal–orographic interactions. Accurate representation of the temporal distribution of rainfall is essential for hydrologic modeling and infrastructure design. This study develops regionalized Huff curves for the Department of Magdalena, Colombia, addressing a critical gap in the characterization of rainfall temporal patterns in tropical coastal regions. A total of 270 short-duration (5–6 h) rainfall events from automatic stations were converted into normalized cumulative mass curves. The resulting curves were grouped into homogeneous temporal patterns using clustering algorithms. Three dominant storm types were identified: early-peak (Curve 1), intermediate (Curve 2), and uniform (Curve 3), reflecting the region’s coastal, lowland, and orographic influences. Probability envelopes and representative design hyetographs were derived to quantify intra-event variability. Rainfall–runoff simulations for a 100-km2 watershed showed peak-flow differences of up to 132% between storm types, highlighting the sensitivity of hydrologic response to rainfall temporal distributions. The resulting regionalized Huff curves provide a practical and transferable framework for hydrologic modeling, flood-risk assessment, and infrastructure planning in tropical regions with limited high-resolution rainfall data.

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Journal
Hydrology
Published
2026-05-08
DOI
https://doi.org/10.3390/hydrology13050127
Primary Topic
Climate variability and models
Type
article
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article

Regionalization of Short-Duration Storm Temporal Patterns Using Huff Curves in a Coastal Tropical Region

John J. Ramirez-Avila, Andres Hatum Pontón, Luis Simancas Martínez, Valeria Hernández Zambrano
Hydrology
Climate variability and models
article

Regionalization of Short-Duration Storm Temporal Patterns Using Huff Curves in a Coastal Tropical Region

John J. Ramirez-Avila, Andres Hatum Pontón, Luis Simancas Martínez, Valeria Hernández Zambrano
article en

Abstract

Tropical coastal regions exhibit pronounced spatial and temporal variability in rainfall driven by seasonal atmospheric circulation and coastal–orographic interactions. Accurate representation of the temporal distribution of rainfall is essential for hydrologic modeling and infrastructure design. This study develops regionalized Huff curves for the Department of Magdalena, Colombia, addressing a critical gap in the characterization of rainfall temporal patterns in tropical coastal regions. A total of 270 short-duration (5–6 h) rainfall events from automatic stations were converted into normalized cumulative mass curves. The resulting curves were grouped into homogeneous temporal patterns using clustering algorithms. Three dominant storm types were identified: early-peak (Curve 1), intermediate (Curve 2), and uniform (Curve 3), reflecting the region’s coastal, lowland, and orographic influences. Probability envelopes and representative design hyetographs were derived to quantify intra-event variability. Rainfall–runoff simulations for a 100-km2 watershed showed peak-flow differences of up to 132% between storm types, highlighting the sensitivity of hydrologic response to rainfall temporal distributions. The resulting regionalized Huff curves provide a practical and transferable framework for hydrologic modeling, flood-risk assessment, and infrastructure planning in tropical regions with limited high-resolution rainfall data.

HydrologyVol. 13(5)
Universidade Federal de Mato Grosso do Sul (BR), University of Magdalena (CO), Quality Research (US), Mississippi State University (US)
Openalex Percentile: Top 5%
Climate variability and models
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