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Modelling Water Depth, Turbidity and Chlorophyll Using Airborne Hyperspectral Remote Sensing in a Restored Pond Complex of Doñana National Park (Spain)

Restored wetlands should be closely monitored to fully evaluate the effectiveness of restoration efforts. However, regular post-restoration monitoring can be time-consuming and expensive, and is often absent or inadequate. Satellite and airborne remote sensing systems have proven to be cost-effectiv...

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Published in:Remote sensing (Basel, Switzerland) Switzerland), 2024-08, Vol.16 (16), p.2996
Main Authors: Coccia, Cristina, Pintado, Eva, Paredes, Álvaro L, Aragonés, David, Daniela C O’Ryan, Green, Andy J, Bustamante, Javier, Díaz-Delgado, Ricardo
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container_title Remote sensing (Basel, Switzerland)
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creator Coccia, Cristina
Pintado, Eva
Paredes, Álvaro L
Aragonés, David
Daniela C O’Ryan
Green, Andy J
Bustamante, Javier
Díaz-Delgado, Ricardo
description Restored wetlands should be closely monitored to fully evaluate the effectiveness of restoration efforts. However, regular post-restoration monitoring can be time-consuming and expensive, and is often absent or inadequate. Satellite and airborne remote sensing systems have proven to be cost-effective tools in many fields, but they have not been widely used to monitor ecological restoration. This study assessed the potential of airborne hyperspectral remote sensing to monitor water mass characteristics of experimental temporary ponds in the Mediterranean region. These ponds were created during marsh restoration in Doñana National Park (south-west Spain). We used hyperspectral images acquired by the CASI-1500 hyperspectral airborne sensor to estimate and map water depth, turbidity and chlorophyll a in a subset of the 96 new ponds. The high spatial and spectral resolution of the CASI sensor allowed us to detect differences between ponds in water depth, turbidity and chlorophyll a, providing accurate mapping of these three variables, and a useful method to assess restoration success. High levels of spatial variation were recorded between different ponds, which likely generates high diversity in the animal and plant species that they contain. These results highlight the great potential of hyperspectral sensors for the long-term monitoring of wetland complexes in the Mediterranean region and elsewhere.
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subjects Airborne sensing
Animal species
CASI
Chlorophyll
Ecological monitoring
Effectiveness
Environmental restoration
hyperspectral images
Hyperspectral imaging
Image acquisition
Intermittent lakes
long term monitoring
mapping
National parks
Plant species
Ponds
Remote monitoring
Remote sensing
Remote sensors
Restoration
Sensors
Spatial variations
Spectral resolution
Turbidity
Water depth
Water masses
Water monitoring
Water quality
wetland restoration
Wetlands
title Modelling Water Depth, Turbidity and Chlorophyll Using Airborne Hyperspectral Remote Sensing in a Restored Pond Complex of Doñana National Park (Spain)
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