Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment

Highly managed and built environments such as zoos and aquaria provide a rich source of standardized environmental monitoring data over periods of years to decades. A fifty percent water change in an 11.4-million-liter indoor artificial sea water system housing three species of marine mammals was co...

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Main Authors: William Van Bonn, Francis Oliaro, Lee Pinnell
Format: Article
Language:English
Published: MDPI AG 2022-07-01
Series:Oceans
Subjects:
Online Access:https://www.mdpi.com/2673-1924/3/3/20
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author William Van Bonn
Francis Oliaro
Lee Pinnell
author_facet William Van Bonn
Francis Oliaro
Lee Pinnell
author_sort William Van Bonn
collection DOAJ
description Highly managed and built environments such as zoos and aquaria provide a rich source of standardized environmental monitoring data over periods of years to decades. A fifty percent water change in an 11.4-million-liter indoor artificial sea water system housing three species of marine mammals was conducted over a two-month period. Using 16S rRNA gene sequencing, the microbial community structure of the system water and three host sites (feces, skin, and exhaled breath “chuff”) of whales housed in the system were characterized. Diversity measures confirmed massive disruption to the water community structure as an expected result of the water change. Host site-associated communities remained remarkably stable. Improved understanding of host microbial community dynamics in response to environmental system perturbations allows for sound management decisions toward optimizing conditions for resident animals.
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spelling doaj.art-72fc28a3fb894f3b928ff178146699e32023-11-23T18:13:58ZengMDPI AGOceans2673-19242022-07-013328930210.3390/oceans3030020Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine EnvironmentWilliam Van Bonn0Francis Oliaro1Lee Pinnell2Animal Care and Science Division, John G. Shedd Aquarium, Chicago, IL 60605, USAAnimal Care and Science Division, John G. Shedd Aquarium, Chicago, IL 60605, USAVeterinary Education, Research, and Outreach Program, Texas A & M University, Canyon, TX 79015, USAHighly managed and built environments such as zoos and aquaria provide a rich source of standardized environmental monitoring data over periods of years to decades. A fifty percent water change in an 11.4-million-liter indoor artificial sea water system housing three species of marine mammals was conducted over a two-month period. Using 16S rRNA gene sequencing, the microbial community structure of the system water and three host sites (feces, skin, and exhaled breath “chuff”) of whales housed in the system were characterized. Diversity measures confirmed massive disruption to the water community structure as an expected result of the water change. Host site-associated communities remained remarkably stable. Improved understanding of host microbial community dynamics in response to environmental system perturbations allows for sound management decisions toward optimizing conditions for resident animals.https://www.mdpi.com/2673-1924/3/3/20aquatic microbial ecologycetaceanaquariummicrobiome
spellingShingle William Van Bonn
Francis Oliaro
Lee Pinnell
Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
Oceans
aquatic microbial ecology
cetacean
aquarium
microbiome
title Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
title_full Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
title_fullStr Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
title_full_unstemmed Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
title_short Whale-Associated Microbial Communities Remain Remarkably Stable despite Massive Water Community Disruption in a Managed Artificial Marine Environment
title_sort whale associated microbial communities remain remarkably stable despite massive water community disruption in a managed artificial marine environment
topic aquatic microbial ecology
cetacean
aquarium
microbiome
url https://www.mdpi.com/2673-1924/3/3/20
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AT francisoliaro whaleassociatedmicrobialcommunitiesremainremarkablystabledespitemassivewatercommunitydisruptioninamanagedartificialmarineenvironment
AT leepinnell whaleassociatedmicrobialcommunitiesremainremarkablystabledespitemassivewatercommunitydisruptioninamanagedartificialmarineenvironment