Minute-Scale Adsorption of Diverse Marine Viruses Onto Clay Minerals.

Fuente: PubMed
Saved in:
Bibliographic Details
Main Authors: Cai, Lanlan, Tian, Yuan, Qiu, Xuan, Xu, Yongle, Dong, Hailiang, Zhang, Rui
Format: Artículo científico
Language:en
Published: Environmental microbiology 2026
Subjects:
Online Access:
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1868266041722798082
author Cai, Lanlan
Tian, Yuan
Qiu, Xuan
Xu, Yongle
Dong, Hailiang
Zhang, Rui
author_facet Cai, Lanlan
Tian, Yuan
Qiu, Xuan
Xu, Yongle
Dong, Hailiang
Zhang, Rui
Cai, Lanlan
Tian, Yuan
Qiu, Xuan
Xu, Yongle
Dong, Hailiang
Zhang, Rui
collection PubMed - marine biology
contents Minute-Scale Adsorption of Diverse Marine Viruses Onto Clay Minerals. Cai, Lanlan Tian, Yuan Qiu, Xuan Xu, Yongle Dong, Hailiang Zhang, Rui Adsorption Clay Aluminum Silicates Temperature Viruses Hydrogen-Ion Concentration Kinetics Seawater Silicates Osmolar Concentration Viruses are ubiquitous biological entities with important roles in microbial mortality, genetic exchange and biogeochemical cycles. Clays, the most abundant mineral constituents on Earth, function as highly effective adsorbents for viruses, critically modulating their environmental persistence and ecological impact. However, the mechanisms and environmental drivers governing virus-clay interactions remain poorly understood. This study systematically investigates the adsorption kinetics of nine marine viruses onto a clay mineral (smectite, NAu-2) under environmentally representative conditions. Viruses isolated from distinct hosts (heterotrophic bacteria, cyanobacteria and eukaryotic algae) and exhibiting diverse morphological features (myovirus, siphovirus, podovirus and tailless virus) were evaluated across gradients of NAu-2/virus concentrations, pH, temperature and ionic strength. Elevated NAu-2 concentrations (> 50 mg/L) induced rapid and near-complete virus adsorption (90%-99%) within 1 min, while low concentrations (0.1-10 mg/L) yielded efficiencies from negligible to > 50%. Adsorption dynamics showed minimal correlation with viral morphology and instead depended on physicochemical properties. Electron microscopy revealed preferential viral localization at edge sites of NAu-2, driven by charge heterogeneity from protonated alumina-oxygen octahedra. These findings provide quantitative information on virus-clay interactions and offer key insights into the availability, transport and fate of viruses in the environment, paving the way for more accurate parameterization of biogeochemical cycling across ecosystems.
format Artículo científico
id pubmed_42236122
institution PubMed
language en
publishDate 2026
publisher Environmental microbiology
record_format pubmed
spellingShingle Minute-Scale Adsorption of Diverse Marine Viruses Onto Clay Minerals.
Cai, Lanlan
Tian, Yuan
Qiu, Xuan
Xu, Yongle
Dong, Hailiang
Zhang, Rui
Adsorption
Clay
Aluminum Silicates
Temperature
Viruses
Hydrogen-Ion Concentration
Kinetics
Seawater
Silicates
Osmolar Concentration
Minute-Scale Adsorption of Diverse Marine Viruses Onto Clay Minerals. Cai, Lanlan Tian, Yuan Qiu, Xuan Xu, Yongle Dong, Hailiang Zhang, Rui Adsorption Clay Aluminum Silicates Temperature Viruses Hydrogen-Ion Concentration Kinetics Seawater Silicates Osmolar Concentration Viruses are ubiquitous biological entities with important roles in microbial mortality, genetic exchange and biogeochemical cycles. Clays, the most abundant mineral constituents on Earth, function as highly effective adsorbents for viruses, critically modulating their environmental persistence and ecological impact. However, the mechanisms and environmental drivers governing virus-clay interactions remain poorly understood. This study systematically investigates the adsorption kinetics of nine marine viruses onto a clay mineral (smectite, NAu-2) under environmentally representative conditions. Viruses isolated from distinct hosts (heterotrophic bacteria, cyanobacteria and eukaryotic algae) and exhibiting diverse morphological features (myovirus, siphovirus, podovirus and tailless virus) were evaluated across gradients of NAu-2/virus concentrations, pH, temperature and ionic strength. Elevated NAu-2 concentrations (> 50 mg/L) induced rapid and near-complete virus adsorption (90%-99%) within 1 min, while low concentrations (0.1-10 mg/L) yielded efficiencies from negligible to > 50%. Adsorption dynamics showed minimal correlation with viral morphology and instead depended on physicochemical properties. Electron microscopy revealed preferential viral localization at edge sites of NAu-2, driven by charge heterogeneity from protonated alumina-oxygen octahedra. These findings provide quantitative information on virus-clay interactions and offer key insights into the availability, transport and fate of viruses in the environment, paving the way for more accurate parameterization of biogeochemical cycling across ecosystems.
title Minute-Scale Adsorption of Diverse Marine Viruses Onto Clay Minerals.
topic Adsorption
Clay
Aluminum Silicates
Temperature
Viruses
Hydrogen-Ion Concentration
Kinetics
Seawater
Silicates
Osmolar Concentration
url https://pubmed.ncbi.nlm.nih.gov/42236122/