Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf

Microbes associated with sinking marine particles play key roles in carbon sequestration in the ocean. The sampling of particle-attached microorganisms is often done with sediment traps or by filtration of water collected with oceanographic bottles, both involving a certain time lapse between collec...

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Main Authors: Viena Puigcorbé, Clara Ruiz-González, Pere Masqué, Josep M. Gasol
Format: Still Image
Language:unknown
Published: 2020
Subjects:
Online Access:https://doi.org/10.3389/fmicb.2020.01645.s001
https://figshare.com/articles/figure/Image_1_Sampling_Device-Dependence_of_Prokaryotic_Community_Structure_on_Marine_Particles_Higher_Diversity_Recovered_by_in_situ_Pumps_Than_by_Oceanographic_Bottles_pdf/12654791
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spelling ftfrontimediafig:oai:figshare.com:article/12654791 2023-05-15T14:04:47+02:00 Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf Viena Puigcorbé Clara Ruiz-González Pere Masqué Josep M. Gasol 2020-07-15T04:12:22Z https://doi.org/10.3389/fmicb.2020.01645.s001 https://figshare.com/articles/figure/Image_1_Sampling_Device-Dependence_of_Prokaryotic_Community_Structure_on_Marine_Particles_Higher_Diversity_Recovered_by_in_situ_Pumps_Than_by_Oceanographic_Bottles_pdf/12654791 unknown doi:10.3389/fmicb.2020.01645.s001 https://figshare.com/articles/figure/Image_1_Sampling_Device-Dependence_of_Prokaryotic_Community_Structure_on_Marine_Particles_Higher_Diversity_Recovered_by_in_situ_Pumps_Than_by_Oceanographic_Bottles_pdf/12654791 CC BY 4.0 CC-BY Microbiology Microbial Genetics Microbial Ecology Mycology prokaryotic communities marine particles size-fractionation in situ pumps oceanographic bottles polynyas Image Figure 2020 ftfrontimediafig https://doi.org/10.3389/fmicb.2020.01645.s001 2020-07-15T22:53:49Z Microbes associated with sinking marine particles play key roles in carbon sequestration in the ocean. The sampling of particle-attached microorganisms is often done with sediment traps or by filtration of water collected with oceanographic bottles, both involving a certain time lapse between collection and processing of samples that may result in changes in particle-attached microbial communities. Conversely, in situ water filtration through submersible pumps allows a faster storage of sampled particles, but it has rarely been used to study the associated microbial communities and has never been compared to other particle-sampling methods in terms of the recovery of particle microbial diversity. Here we compared the prokaryotic communities attached to small (1–53 μm) and large (>53 μm) particles collected from the mesopelagic zone (100–300 m) of two Antarctic polynyas using in situ pumps (ISP) and oceanographic bottles (BTL). Each sampling method retrieved largely different particle-attached communities, suggesting that they capture different kinds of particles. These device-driven differences were greater for large particles than for small particles. Overall, the ISP recovered 1.5- to 3-fold more particle-attached bacterial taxa than the BTL, and different taxonomic groups were preferentially recovered by each method. In particular, typical particle-attached groups such as Planctomycetes and Deltaproteobacteria recovered with ISP were nearly absent from BTL samples. Our results suggest that the method used to sample marine particles has a strong influence in our view of their associated microbial communities. Still Image Antarc* Antarctic Frontiers: Figshare Antarctic
institution Open Polar
collection Frontiers: Figshare
op_collection_id ftfrontimediafig
language unknown
topic Microbiology
Microbial Genetics
Microbial Ecology
Mycology
prokaryotic communities
marine particles
size-fractionation
in situ pumps
oceanographic bottles
polynyas
spellingShingle Microbiology
Microbial Genetics
Microbial Ecology
Mycology
prokaryotic communities
marine particles
size-fractionation
in situ pumps
oceanographic bottles
polynyas
Viena Puigcorbé
Clara Ruiz-González
Pere Masqué
Josep M. Gasol
Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
topic_facet Microbiology
Microbial Genetics
Microbial Ecology
Mycology
prokaryotic communities
marine particles
size-fractionation
in situ pumps
oceanographic bottles
polynyas
description Microbes associated with sinking marine particles play key roles in carbon sequestration in the ocean. The sampling of particle-attached microorganisms is often done with sediment traps or by filtration of water collected with oceanographic bottles, both involving a certain time lapse between collection and processing of samples that may result in changes in particle-attached microbial communities. Conversely, in situ water filtration through submersible pumps allows a faster storage of sampled particles, but it has rarely been used to study the associated microbial communities and has never been compared to other particle-sampling methods in terms of the recovery of particle microbial diversity. Here we compared the prokaryotic communities attached to small (1–53 μm) and large (>53 μm) particles collected from the mesopelagic zone (100–300 m) of two Antarctic polynyas using in situ pumps (ISP) and oceanographic bottles (BTL). Each sampling method retrieved largely different particle-attached communities, suggesting that they capture different kinds of particles. These device-driven differences were greater for large particles than for small particles. Overall, the ISP recovered 1.5- to 3-fold more particle-attached bacterial taxa than the BTL, and different taxonomic groups were preferentially recovered by each method. In particular, typical particle-attached groups such as Planctomycetes and Deltaproteobacteria recovered with ISP were nearly absent from BTL samples. Our results suggest that the method used to sample marine particles has a strong influence in our view of their associated microbial communities.
format Still Image
author Viena Puigcorbé
Clara Ruiz-González
Pere Masqué
Josep M. Gasol
author_facet Viena Puigcorbé
Clara Ruiz-González
Pere Masqué
Josep M. Gasol
author_sort Viena Puigcorbé
title Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
title_short Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
title_full Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
title_fullStr Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
title_full_unstemmed Image_1_Sampling Device-Dependence of Prokaryotic Community Structure on Marine Particles: Higher Diversity Recovered by in situ Pumps Than by Oceanographic Bottles.pdf
title_sort image_1_sampling device-dependence of prokaryotic community structure on marine particles: higher diversity recovered by in situ pumps than by oceanographic bottles.pdf
publishDate 2020
url https://doi.org/10.3389/fmicb.2020.01645.s001
https://figshare.com/articles/figure/Image_1_Sampling_Device-Dependence_of_Prokaryotic_Community_Structure_on_Marine_Particles_Higher_Diversity_Recovered_by_in_situ_Pumps_Than_by_Oceanographic_Bottles_pdf/12654791
geographic Antarctic
geographic_facet Antarctic
genre Antarc*
Antarctic
genre_facet Antarc*
Antarctic
op_relation doi:10.3389/fmicb.2020.01645.s001
https://figshare.com/articles/figure/Image_1_Sampling_Device-Dependence_of_Prokaryotic_Community_Structure_on_Marine_Particles_Higher_Diversity_Recovered_by_in_situ_Pumps_Than_by_Oceanographic_Bottles_pdf/12654791
op_rights CC BY 4.0
op_rightsnorm CC-BY
op_doi https://doi.org/10.3389/fmicb.2020.01645.s001
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