Drivers of zooplankton community composition in a novel ecosystem: Hawai'i mangroves as a case study

Management of established non‐native plants is challenging because removal is expensive and can produce negative consequences, yet establishment can create novel ecosystems. Red mangrove propagules were introduced to Moloka'i, Hawai'i, in 1902 to mitigate the effects of soil erosion and ha...

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Veröffentlicht in:The Journal of applied ecology 2021-12, Vol.58 (12), p.3023-3035
Hauptverfasser: Lewis, Casey L., Granek, Elise F.
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Granek, Elise F.
description Management of established non‐native plants is challenging because removal is expensive and can produce negative consequences, yet establishment can create novel ecosystems. Red mangrove propagules were introduced to Moloka'i, Hawai'i, in 1902 to mitigate the effects of soil erosion and have since spread along the coast and to adjacent islands creating novel habitat. We compared zooplankton communities between novel mangrove and historical non‐mangrove habitat both within fishponds and along open coastline to examine environmental factors, including mangrove presence, affecting zooplankton community composition. Community composition patterns were driven by lunar cycle and site characteristics, including fishpond structure, mangrove and open‐coast shoreline length, percent of mangrove shoreline length, total percent mangrove leaf carbon and upstream watershed disturbance. Our findings indicate that during the tropical summer reproductive season, non‐native mangroves support diversity, richness and community composition similar to non‐mangrove areas, though some widespread taxa have lower abundance, and some rare taxa are more abundant in mangroves. Additionally, fishpond zooplankton community structure is significantly different from open‐coast areas, indicating fishponds, themselves, create novel habitat. Synthesis and application. In the face of declining fisheries, threatened reef habitat and changing climatic conditions, non‐native mangroves may provide, rather than impede, zooplankton habitat availability in novel locations. In the face of declining fisheries, threatened reef habitat and changing climatic conditions, non‐native mangroves may provide, rather than impede, zooplankton habitat availability in novel locations.
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Red mangrove propagules were introduced to Moloka'i, Hawai'i, in 1902 to mitigate the effects of soil erosion and have since spread along the coast and to adjacent islands creating novel habitat. We compared zooplankton communities between novel mangrove and historical non‐mangrove habitat both within fishponds and along open coastline to examine environmental factors, including mangrove presence, affecting zooplankton community composition. Community composition patterns were driven by lunar cycle and site characteristics, including fishpond structure, mangrove and open‐coast shoreline length, percent of mangrove shoreline length, total percent mangrove leaf carbon and upstream watershed disturbance. Our findings indicate that during the tropical summer reproductive season, non‐native mangroves support diversity, richness and community composition similar to non‐mangrove areas, though some widespread taxa have lower abundance, and some rare taxa are more abundant in mangroves. Additionally, fishpond zooplankton community structure is significantly different from open‐coast areas, indicating fishponds, themselves, create novel habitat. Synthesis and application. In the face of declining fisheries, threatened reef habitat and changing climatic conditions, non‐native mangroves may provide, rather than impede, zooplankton habitat availability in novel locations. 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subjects Climate change
Climatic conditions
Community composition
Community structure
Composition
disturbance
Environmental factors
Fisheries
Fishponds
Habitat availability
Habitats
Indigenous plants
invasive
light trap
Lunar rhythm
management
Mangroves
non‐native
Plankton
plankton tow
Propagules
red mangrove
Rhizophora mangle
Shorelines
Soil erosion
Zooplankton
title Drivers of zooplankton community composition in a novel ecosystem: Hawai'i mangroves as a case study
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