Red fluorescence in coral larvae is associated with a diapause‐like state

Effective dispersal across environmental gradients is the key to species resilience to environmental perturbation, including climate change. Coral reefs are among the most sensitive ecosystems to global warming, but factors predicting coral dispersal potential remain unknown. In a reef‐building cora...

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Veröffentlicht in:Molecular ecology 2016, Vol.25 (2), p.559-569
Hauptverfasser: Strader, Marie E, Aglyamova, Galina V, Matz, Mikhail V
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creator Strader, Marie E
Aglyamova, Galina V
Matz, Mikhail V
description Effective dispersal across environmental gradients is the key to species resilience to environmental perturbation, including climate change. Coral reefs are among the most sensitive ecosystems to global warming, but factors predicting coral dispersal potential remain unknown. In a reef‐building coral Acropora millepora, larval fluorescence emerged as a possible indicator of dispersal potential since it correlates with responsiveness to a settlement cue. Here, we show that gene expression in red fluorescent larvae of A. millepora is correlated with diapause‐like characteristics highly likely to be associated with extended dispersal. We compared gene expression among three larval fluorescent morphs under three coloured light treatments. While colour morphs did not differ in their gene expression responses to light colour, red larvae demonstrated gene expression signatures of cell cycle arrest and decreased transcription accompanied by elevated ribosome production and heightened defenses against oxidative stress. A meta‐analysis revealed that this profile was highly similar to the signatures of elevated thermal tolerance in the same coral species, and moreover, functionally resembled diapause states in an insect and a nematode. Our results support a connection between red fluorescence and long‐range dispersal, which offers a new perspective on the molecular underpinnings of coral larval dispersal and the biological function of GFP‐like fluorescent proteins.
doi_str_mv 10.1111/mec.13488
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Coral reefs are among the most sensitive ecosystems to global warming, but factors predicting coral dispersal potential remain unknown. In a reef‐building coral Acropora millepora, larval fluorescence emerged as a possible indicator of dispersal potential since it correlates with responsiveness to a settlement cue. Here, we show that gene expression in red fluorescent larvae of A. millepora is correlated with diapause‐like characteristics highly likely to be associated with extended dispersal. We compared gene expression among three larval fluorescent morphs under three coloured light treatments. While colour morphs did not differ in their gene expression responses to light colour, red larvae demonstrated gene expression signatures of cell cycle arrest and decreased transcription accompanied by elevated ribosome production and heightened defenses against oxidative stress. 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subjects Acropora millepora
Animal Distribution
Animals
Anthozoa - genetics
Anthozoa - physiology
cell cycle checkpoints
Climate Change
Color
coral
coral reefs
corals
diapause
dispersal
ecosystems
Fluorescence
fluorescent proteins
gene expression
Genetics, Population
global warming
heat tolerance
insects
Larva - genetics
Larva - physiology
larvae
meta-analysis
Metamorphosis, Biological
Millepora
morphs
Nematoda
oxidative stress
Phenotype
prediction
ribosomes
Sequence Analysis, RNA
species dispersal
Transcriptome
Western Australia
title Red fluorescence in coral larvae is associated with a diapause‐like state
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