Vibrio coralliilyticus infection triggers a behavioural response and perturbs nutritional exchange and tissue integrity in a symbiotic coral

Under homoeostatic conditions, the relationship between the coral Pocillopora damicornis and Vibrio coralliilyticus is commensal. An increase in temperature, or in the abundance of V. coralliilyticus , can turn this association pathogenic, causing tissue lysis, expulsion of the corals’ symbiotic alg...

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Veröffentlicht in:The ISME Journal 2019-04, Vol.13 (4), p.989-1003
Hauptverfasser: Gibbin, E., Gavish, A., Krueger, T., Kramarsky-Winter, E., Shapiro, O., Guiet, R., Jensen, L., Vardi, A., Meibom, A.
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container_end_page 1003
container_issue 4
container_start_page 989
container_title The ISME Journal
container_volume 13
creator Gibbin, E.
Gavish, A.
Krueger, T.
Kramarsky-Winter, E.
Shapiro, O.
Guiet, R.
Jensen, L.
Vardi, A.
Meibom, A.
description Under homoeostatic conditions, the relationship between the coral Pocillopora damicornis and Vibrio coralliilyticus is commensal. An increase in temperature, or in the abundance of V. coralliilyticus , can turn this association pathogenic, causing tissue lysis, expulsion of the corals’ symbiotic algae (genus Symbiodinium ), and eventually coral death. Using a combination of microfluidics, fluorescence microscopy, stable isotopes, electron microscopy and NanoSIMS isotopic imaging, we provide insights into the onset and progression of V . coralliilyticus infection in the daytime and at night, at the tissue and (sub-)cellular level. The objective of our study was to connect the macro-scale behavioural response of the coral to the micro-scale nutritional interactions that occur between the host and its symbiont. In the daytime, polyps enhanced their mucus production, and actively spewed pathogens. Vibrio infection primarily resulted in the formation of tissue lesions in the coenosarc. NanoSIMS analysis revealed infection reduced 13 C-assimilation in Symbiodinium , but increased 13 C-assimilation in the host. In the night incubations, no mucus spewing was observed, and a mucus film was formed on the coral surface. Vibrio inoculation and infection at night showed reduced 13 C-turnover in Symbiodinium , but did not impact host 13 C-turnover. Our results show that both the nutritional interactions that occur between the two symbiotic partners and the behavioural response of the host organism play key roles in determining the progression and severity of host-pathogen interactions. More generally, our approach provides a new means of studying interactions (ranging from behavioural to metabolic scales) between partners involved in complex holobiont systems, under both homoeostatic and pathogenic conditions.
doi_str_mv 10.1038/s41396-018-0327-2
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An increase in temperature, or in the abundance of V. coralliilyticus , can turn this association pathogenic, causing tissue lysis, expulsion of the corals’ symbiotic algae (genus Symbiodinium ), and eventually coral death. Using a combination of microfluidics, fluorescence microscopy, stable isotopes, electron microscopy and NanoSIMS isotopic imaging, we provide insights into the onset and progression of V . coralliilyticus infection in the daytime and at night, at the tissue and (sub-)cellular level. The objective of our study was to connect the macro-scale behavioural response of the coral to the micro-scale nutritional interactions that occur between the host and its symbiont. In the daytime, polyps enhanced their mucus production, and actively spewed pathogens. Vibrio infection primarily resulted in the formation of tissue lesions in the coenosarc. NanoSIMS analysis revealed infection reduced 13 C-assimilation in Symbiodinium , but increased 13 C-assimilation in the host. 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An increase in temperature, or in the abundance of V. coralliilyticus , can turn this association pathogenic, causing tissue lysis, expulsion of the corals’ symbiotic algae (genus Symbiodinium ), and eventually coral death. Using a combination of microfluidics, fluorescence microscopy, stable isotopes, electron microscopy and NanoSIMS isotopic imaging, we provide insights into the onset and progression of V . coralliilyticus infection in the daytime and at night, at the tissue and (sub-)cellular level. The objective of our study was to connect the macro-scale behavioural response of the coral to the micro-scale nutritional interactions that occur between the host and its symbiont. In the daytime, polyps enhanced their mucus production, and actively spewed pathogens. Vibrio infection primarily resulted in the formation of tissue lesions in the coenosarc. NanoSIMS analysis revealed infection reduced 13 C-assimilation in Symbiodinium , but increased 13 C-assimilation in the host. In the night incubations, no mucus spewing was observed, and a mucus film was formed on the coral surface. Vibrio inoculation and infection at night showed reduced 13 C-turnover in Symbiodinium , but did not impact host 13 C-turnover. Our results show that both the nutritional interactions that occur between the two symbiotic partners and the behavioural response of the host organism play key roles in determining the progression and severity of host-pathogen interactions. 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source Oxford Journals Open Access Collection; MEDLINE; EZB-FREE-00999 freely available EZB journals; PubMed Central
subjects 13/31
13/62
14/19
631/158/855
631/326/171/1878
631/443/319
Algae
Animals
Anthozoa - anatomy & histology
Anthozoa - metabolism
Anthozoa - microbiology
Anthozoa - physiology
Assimilation
Behavior, Animal
Biomedical and Life Sciences
Carbon 13
Corals
Daytime
Dinoflagellida - metabolism
Ecology
Electron microscopy
Evolutionary Biology
Expulsion
Fluorescence
Fluorescence microscopy
Host-Pathogen Interactions
Infections
Inoculation
Isotopes
Lesions
Life Sciences
Lysis
Microbial Ecology
Microbial Genetics and Genomics
Microbiology
Microfluidics
Microscopy
Mucus
Night
Nutrients
Pathogens
Polyps (organisms)
Stable isotopes
Symbiodinium
Symbiosis
Temperature
Vibrio
Vibrio - physiology
Vibrio coralliilyticus
Waterborne diseases
title Vibrio coralliilyticus infection triggers a behavioural response and perturbs nutritional exchange and tissue integrity in a symbiotic coral
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