Climate Change Projected Effects on Coastal Foundation Communities of the Greater Everglades Using a 2060 Scenario: Need for a New Management Paradigm

Rising sea levels and temperature will be dominant drivers of coastal Everglades’ foundation communities (i.e., mangrove forests, seagrass/macroalgae, and coral reefs) by 2060 based on a climate change scenario of +1.5 °C temperature, +1.5 foot (46 cm) in sea level, ±10 % in precipitation and 490 pp...

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Veröffentlicht in:Environmental management (New York) 2015-04, Vol.55 (4), p.857-875
Hauptverfasser: Koch, M. S, Coronado, C, Miller, M. W, Rudnick, D. T, Stabenau, E, Halley, R. B, Sklar, F. H
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container_issue 4
container_start_page 857
container_title Environmental management (New York)
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creator Koch, M. S
Coronado, C
Miller, M. W
Rudnick, D. T
Stabenau, E
Halley, R. B
Sklar, F. H
description Rising sea levels and temperature will be dominant drivers of coastal Everglades’ foundation communities (i.e., mangrove forests, seagrass/macroalgae, and coral reefs) by 2060 based on a climate change scenario of +1.5 °C temperature, +1.5 foot (46 cm) in sea level, ±10 % in precipitation and 490 ppm CO₂. Current mangrove forest soil elevation change in South Florida ranges from 0.9 to 2.5 mm year⁻¹and would have to increase twofold to fourfold in order to accommodate a 2060 sea level rise rate. No evidence is available to indicate that coastal mangroves from South Florida and the wider Caribbean can keep pace with a rapid rate of sea level rise. Thus, particles and nutrients from destabilized coastlines could be mobilized and impact benthic habitats of southern Florida. Uncertainties in regional geomorphology and coastal current changes under higher sea levels make this prediction tentative without further research. The 2060 higher temperature scenario would compromise Florida’s coral reefs that are already degraded. We suggest that a new paradigm is needed for resource management under climate change that manages coastlines for resilience to marine transgression and promotes active ecosystem management. In the case of the Everglades, greater freshwater flows could maximize mangrove peat accumulation, stabilize coastlines, and limit saltwater intrusion, while specific coral species may require propagation. Further, we suggest that regional climate drivers and oceanographic processes be incorporated into Everglades and South Florida management plans, as they are likely to impact coastal ecosystems, interior freshwater wetlands and urban coastlines over the next few decades.
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identifier ISSN: 0364-152X
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source MEDLINE; Springer Nature - Complete Springer Journals
subjects Algae
Aquatic ecosystems
Aquatic Pollution
Atmospheric Protection/Air Quality Control/Air Pollution
Carbon dioxide
climate
Climate Change
Climate prediction
Coastal
Coastal currents
Coastal ecosystems
Coastlines
Coasts
Communities
Conservation of Natural Resources - methods
Coral Reefs
corals
Earth and Environmental Science
Ecology
Ecosystem
Ecosystem management
Ecosystems
Environment
Environmental Management
Florida
Forest soils
Forestry Management
Forests
Foundations
freshwater
Freshwater ecosystems
Geomorphology
High temperature
macroalgae
mangrove forests
Mangrove swamps
Mangroves
Marine ecosystems
Nature Conservation
nutrients
Peat
Planning
Precipitation
prediction
Resource management
Saline water
Saline water intrusion
saltwater intrusion
Sea level
Sea level rise
seagrasses
Soil temperature
temperature
Temperature requirements
transgressive segregation
Waste Water Technology
water currents
Water Management
Water Movements
Water Pollution Control
Wetlands
title Climate Change Projected Effects on Coastal Foundation Communities of the Greater Everglades Using a 2060 Scenario: Need for a New Management Paradigm
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