Wetland hydrodynamics and their typhoon efforts at biodiversity conservation and sediment movement

Intertidal Wetlands (IW) are generally seen as susceptible to storm effects. Although considerable focus has been directed towards the impact of hurricane or typhoon landfall on regional deposition and soil erosion in tidal wetland areas there is limited understanding regarding the influence of distant storms or typhoons on these ecosystems, as well as the overall effects of such storms on hydrodynamics, transport of sediments, and seabed security. This study examines the potential impact of thirteen typhoons that struck the western part of the Pacific in the summer-autumn of 2018 on an IW in the River. The research observed the effect of eight hurricanes for half of their lifespan when they were between 460 and 2500 km distant, the closest distance recorded for each typhoon relative to the valley. These distant typhoons resulted in 2-6 5-fold maximum rises in fluid dynamics and suspended debris concentration. Significant net erosion of mudflats and deposition of marshes were recorded. The research ascertained that hurricanes can significantly impact intertidal marshes, even those occurring hundreds of kilometers distant. These results enhance comprehension of the extent to which storms and typhoons impact intertidal ecosystems and augment the understanding essential for managing the coast.

Authors

Publication Details

Journal
International Journal of Aquatic Research and Environmental Studies
Published
2025-05-20
DOI
https://doi.org/10.70102/ijares/v5i1/5-1-45
Primary Topic
Coastal wetland ecosystem dynamics
Type
article
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article

Wetland hydrodynamics and their typhoon efforts at biodiversity conservation and sediment movement

Muhammad Mannan Afzal, Abhijeet Madhukar Haval, Komal Khatter
International Journal of Aquatic Research and Environmental Studies
Coastal wetland ecosystem dynamics
article

Wetland hydrodynamics and their typhoon efforts at biodiversity conservation and sediment movement

Muhammad Mannan Afzal, Abhijeet Madhukar Haval, Komal Khatter
article en

Abstract

Intertidal Wetlands (IW) are generally seen as susceptible to storm effects. Although considerable focus has been directed towards the impact of hurricane or typhoon landfall on regional deposition and soil erosion in tidal wetland areas there is limited understanding regarding the influence of distant storms or typhoons on these ecosystems, as well as the overall effects of such storms on hydrodynamics, transport of sediments, and seabed security. This study examines the potential impact of thirteen typhoons that struck the western part of the Pacific in the summer-autumn of 2018 on an IW in the River. The research observed the effect of eight hurricanes for half of their lifespan when they were between 460 and 2500 km distant, the closest distance recorded for each typhoon relative to the valley. These distant typhoons resulted in 2-6 5-fold maximum rises in fluid dynamics and suspended debris concentration. Significant net erosion of mudflats and deposition of marshes were recorded. The research ascertained that hurricanes can significantly impact intertidal marshes, even those occurring hundreds of kilometers distant. These results enhance comprehension of the extent to which storms and typhoons impact intertidal ecosystems and augment the understanding essential for managing the coast.

International Journal of Aquatic Research and Environmental StudiesVol. 5(1)
Openalex Percentile: Top 89%
Coastal wetland ecosystem dynamics
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