Barrier island geomorphic complexity drives storm and post-storm response

Abstract Barrier islands are at the forefront of climate-driven changes, with their resiliency threatened by rapid fluctuations in the physical drivers that shape them. Quantifying magnitudes and directions of storm-driven sediment fluxes and rates and modes of sediment recovery is essential for predicting barrier island trajectories. Yet scarce shoreface observations have limited such efforts. Here, shoreface-inclusive measurements of barrier sediment fluxes over five years following an extreme storm reveal distinct sediment redistribution patterns that vary with island geomorphology. Overwash fluxes were low compared with seaward fluxes, inlet-related landward transport, and previously modeled estimates. Without these observations, models may overestimate island elevation-building capacity that is key to sea-level adaptability. Post-storm recovery was incomplete despite human intervention, altering barrier sediment distribution from pre-storm conditions. This may increase vulnerability to future storms and rising water levels and suggests management approaches tailored to island geometry may better compete with climate change effects.

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Publication Details

Journal
Nature Communications
Published
2026-09-24
DOI
https://doi.org/10.1038/s41467-026-77143-6
Primary Topic
Coastal and Marine Dynamics
Type
article
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article

Barrier island geomorphic complexity drives storm and post-storm response

Noreen A. Buster, Rose V. Palermo, Jennifer L. Miselis, Daniel J. Ciarletta et al.
Nature Communications
Coastal and Marine Dynamics
article

Barrier island geomorphic complexity drives storm and post-storm response

Noreen A. Buster, Rose V. Palermo, Jennifer L. Miselis, Daniel J. Ciarletta, Julie C. Bernier, Emily A. Wei
article en

Abstract

Abstract Barrier islands are at the forefront of climate-driven changes, with their resiliency threatened by rapid fluctuations in the physical drivers that shape them. Quantifying magnitudes and directions of storm-driven sediment fluxes and rates and modes of sediment recovery is essential for predicting barrier island trajectories. Yet scarce shoreface observations have limited such efforts. Here, shoreface-inclusive measurements of barrier sediment fluxes over five years following an extreme storm reveal distinct sediment redistribution patterns that vary with island geomorphology. Overwash fluxes were low compared with seaward fluxes, inlet-related landward transport, and previously modeled estimates. Without these observations, models may overestimate island elevation-building capacity that is key to sea-level adaptability. Post-storm recovery was incomplete despite human intervention, altering barrier sediment distribution from pre-storm conditions. This may increase vulnerability to future storms and rising water levels and suggests management approaches tailored to island geometry may better compete with climate change effects.

Nature CommunicationsVol. 17(1)
Louisiana State University (US), United States Geological Survey (US)
Climate action
Openalex Percentile: Top 13%
Coastal and Marine Dynamics
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Barrier island geomorphic complexity drives storm and post-storm response — Noreen A. Buster, Rose V. Palermo, et al. · Nature Communications (2026) | TGRS Research Map | TGRS