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Main Authors: Gilbert, Naomi E, Muratore, Daniel, Gochev, Camelia Shopen, LeCleir, Gary R, Cagle, Shelby M, Pound, Helena L, Sun, Christine L, Carrillo, Alfonso, Ndlovu, Kimberley S, Maidanik, Ilia, Coenen, Ashley R, Chittick, Lauren, DeBruyn, Jennifer M, Buchan, Alison, Lindell, Debbie, Sullivan, Matthew B, Weitz, Joshua S, Wilhelm, Steven W
Format: Artículo científico
Language:en
Published: Nature communications 2025
Subjects:
Online Access:https://pubmed.ncbi.nlm.nih.gov/41353448/
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author Gilbert, Naomi E
Muratore, Daniel
Gochev, Camelia Shopen
LeCleir, Gary R
Cagle, Shelby M
Pound, Helena L
Sun, Christine L
Carrillo, Alfonso
Ndlovu, Kimberley S
Maidanik, Ilia
Coenen, Ashley R
Chittick, Lauren
DeBruyn, Jennifer M
Buchan, Alison
Lindell, Debbie
Sullivan, Matthew B
Weitz, Joshua S
Wilhelm, Steven W
author_facet Gilbert, Naomi E
Muratore, Daniel
Gochev, Camelia Shopen
LeCleir, Gary R
Cagle, Shelby M
Pound, Helena L
Sun, Christine L
Carrillo, Alfonso
Ndlovu, Kimberley S
Maidanik, Ilia
Coenen, Ashley R
Chittick, Lauren
DeBruyn, Jennifer M
Buchan, Alison
Lindell, Debbie
Sullivan, Matthew B
Weitz, Joshua S
Wilhelm, Steven W
Gilbert, Naomi E
Muratore, Daniel
Gochev, Camelia Shopen
LeCleir, Gary R
Cagle, Shelby M
Pound, Helena L
Sun, Christine L
Carrillo, Alfonso
Ndlovu, Kimberley S
Maidanik, Ilia
Coenen, Ashley R
Chittick, Lauren
DeBruyn, Jennifer M
Buchan, Alison
Lindell, Debbie
Sullivan, Matthew B
Weitz, Joshua S
Wilhelm, Steven W
collection PubMed - marine biology
contents Seasonal enhancement of the viral shunt catalyzes a subsurface oxygen maximum in the Sargasso Sea. Gilbert, Naomi E Muratore, Daniel Gochev, Camelia Shopen LeCleir, Gary R Cagle, Shelby M Pound, Helena L Sun, Christine L Carrillo, Alfonso Ndlovu, Kimberley S Maidanik, Ilia Coenen, Ashley R Chittick, Lauren DeBruyn, Jennifer M Buchan, Alison Lindell, Debbie Sullivan, Matthew B Weitz, Joshua S Wilhelm, Steven W Seawater Oxygen Phytoplankton Seasons Prochlorococcus Atlantic Ocean Oceans and Seas Bacteriophages Subsurface oxygen maxima (SOMs) occur directly beneath the mixed layer of stratified water columns across oligotrophic open ocean basins and have been associated with physical transport processes and localized increases in phytoplankton net primary productivity (NPP). We explore the hypothesis that viral lysis (i.e., the 'viral shunt') increases nutrient recycling and enhances NPP, supporting SOM formation in stratified water columns, focusing on a recurring SOM at the Bermuda Atlantic Time Series (BATS) in the Sargasso Sea. Reanalysis of historical BATS data showed enhanced Prochlorococcus and virus-like particle abundances associated with SOMs. Instances of high rates of primary and secondary production observed with oxygen supersaturation further implicate a biological mechanism for SOM formation. Leveraging metatranscriptomes, metaviromes, and polony-based data collected during a Lagrangian cruise (October 2019), we link the viral shunt to SOMs, including evidence of elevated cyanophage abundance and infection of Prochlorococcus, and transcriptomic evidence of increased organic matter uptake (i.e., catabolic activity) by copiotrophic bacteria. Cruise data also showed Prochlorococcus nitrogen metabolism transcripts consistent with increased responsiveness to bacterial remineralization. These findings illustrate the biogeochemical impacts of enhanced viral lysis in marine systems, including the potential role of the viral shunt in facilitating SOM formation in the oligotrophic oceans.
format Artículo científico
id pubmed_41353448
institution PubMed
language en
publishDate 2025
publisher Nature communications
record_format pubmed
spellingShingle Seasonal enhancement of the viral shunt catalyzes a subsurface oxygen maximum in the Sargasso Sea.
Gilbert, Naomi E
Muratore, Daniel
Gochev, Camelia Shopen
LeCleir, Gary R
Cagle, Shelby M
Pound, Helena L
Sun, Christine L
Carrillo, Alfonso
Ndlovu, Kimberley S
Maidanik, Ilia
Coenen, Ashley R
Chittick, Lauren
DeBruyn, Jennifer M
Buchan, Alison
Lindell, Debbie
Sullivan, Matthew B
Weitz, Joshua S
Wilhelm, Steven W
Seawater
Oxygen
Phytoplankton
Seasons
Prochlorococcus
Atlantic Ocean
Oceans and Seas
Bacteriophages
Seasonal enhancement of the viral shunt catalyzes a subsurface oxygen maximum in the Sargasso Sea. Gilbert, Naomi E Muratore, Daniel Gochev, Camelia Shopen LeCleir, Gary R Cagle, Shelby M Pound, Helena L Sun, Christine L Carrillo, Alfonso Ndlovu, Kimberley S Maidanik, Ilia Coenen, Ashley R Chittick, Lauren DeBruyn, Jennifer M Buchan, Alison Lindell, Debbie Sullivan, Matthew B Weitz, Joshua S Wilhelm, Steven W Seawater Oxygen Phytoplankton Seasons Prochlorococcus Atlantic Ocean Oceans and Seas Bacteriophages Subsurface oxygen maxima (SOMs) occur directly beneath the mixed layer of stratified water columns across oligotrophic open ocean basins and have been associated with physical transport processes and localized increases in phytoplankton net primary productivity (NPP). We explore the hypothesis that viral lysis (i.e., the 'viral shunt') increases nutrient recycling and enhances NPP, supporting SOM formation in stratified water columns, focusing on a recurring SOM at the Bermuda Atlantic Time Series (BATS) in the Sargasso Sea. Reanalysis of historical BATS data showed enhanced Prochlorococcus and virus-like particle abundances associated with SOMs. Instances of high rates of primary and secondary production observed with oxygen supersaturation further implicate a biological mechanism for SOM formation. Leveraging metatranscriptomes, metaviromes, and polony-based data collected during a Lagrangian cruise (October 2019), we link the viral shunt to SOMs, including evidence of elevated cyanophage abundance and infection of Prochlorococcus, and transcriptomic evidence of increased organic matter uptake (i.e., catabolic activity) by copiotrophic bacteria. Cruise data also showed Prochlorococcus nitrogen metabolism transcripts consistent with increased responsiveness to bacterial remineralization. These findings illustrate the biogeochemical impacts of enhanced viral lysis in marine systems, including the potential role of the viral shunt in facilitating SOM formation in the oligotrophic oceans.
title Seasonal enhancement of the viral shunt catalyzes a subsurface oxygen maximum in the Sargasso Sea.
topic Seawater
Oxygen
Phytoplankton
Seasons
Prochlorococcus
Atlantic Ocean
Oceans and Seas
Bacteriophages
url https://pubmed.ncbi.nlm.nih.gov/41353448/