Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits

ABSTRACT The relationship between soil microbiome stability and diversity remains a topic of debate. Our study aims to investigate the relationship between soil microbiome stability and diversity in different wetland types invaded by Spartina alterniflora and to reveal the mechanisms driving functio...

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Main Authors: Xue Mo, Zhenming Zhang, Yinglong Chen, Shijun Zhou, Yi Li, Siqi Zhao, Shiqiang Zhao, Xuanming Chen, Bo Wu, Mingxiang Zhang
Format: Article
Language:English
Published: Wiley 2025-04-01
Series:Ecology and Evolution
Subjects:
Online Access:https://doi.org/10.1002/ece3.71096
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author Xue Mo
Zhenming Zhang
Yinglong Chen
Shijun Zhou
Yi Li
Siqi Zhao
Shiqiang Zhao
Xuanming Chen
Bo Wu
Mingxiang Zhang
author_facet Xue Mo
Zhenming Zhang
Yinglong Chen
Shijun Zhou
Yi Li
Siqi Zhao
Shiqiang Zhao
Xuanming Chen
Bo Wu
Mingxiang Zhang
author_sort Xue Mo
collection DOAJ
description ABSTRACT The relationship between soil microbiome stability and diversity remains a topic of debate. Our study aims to investigate the relationship between soil microbiome stability and diversity in different wetland types invaded by Spartina alterniflora and to reveal the mechanisms driving functional influences on this relationship during the later‐stage development of the S. alterniflora invasion system. To investigated the structure, diversity, and functional traits of soil bacteria associated with S. alterniflora and their impact on bacteriome stability we conducted 16S rRNA sequencing of soils from two types of wetlands dominated by the invasive plant S. alterniflora at different growth stages, situated in temperate (salt marsh wetland) and subtropical (mangrove wetland) regions, and assessed bacteriome stability and its driving factors. Subsequently, we analyzed environmental and bacterial changes between the two sites and constructed co‐occurrence networks among taxonomic groups and functional traits. The differences in the late‐stage development of the two S. alterniflora‐invaded wetland systems suggest that bacterial communities with higher diversity tend to exhibit greater stability. Keystone genera play both direct and indirect roles in regulating bacteriome stability, and all belong to dominant phyla. Furthermore, biological factors significantly outweigh nonbiological factors in driving stability. In contrast, core functions (broad functions) and specialized functions such as “nitrogen metabolism” and “sulfur metabolism” decrease bacteriome stability. Their enhancement of these metabolic processes correlates with reduced community stability, which is the key to the differences observed in the two invaded systems. This study advances our understanding of the relationship between soil microbial diversity and ecosystem stability, highlighting the importance of keystone taxa and functional traits for soil microbiome stability. It enhances our ability to predict microbial community transitions. It enhances a scientific basis for the management of S. alterniflora invasion.
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spelling doaj-art-fd4944a2f9424a389680c6d4a2f386732025-08-20T02:35:33ZengWileyEcology and Evolution2045-77582025-04-01154n/an/a10.1002/ece3.71096Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional TraitsXue Mo0Zhenming Zhang1Yinglong Chen2Shijun Zhou3Yi Li4Siqi Zhao5Shiqiang Zhao6Xuanming Chen7Bo Wu8Mingxiang Zhang9School of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Agriculture and Environment, and UWA Institute of Agriculture University of Western Australia Perth Western Australia AustraliaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaBeijing Top Green Ecological Technology Limited Company Beijing ChinaSchool of Ecology and Nature Conservation Beijing Forestry University Beijing ChinaABSTRACT The relationship between soil microbiome stability and diversity remains a topic of debate. Our study aims to investigate the relationship between soil microbiome stability and diversity in different wetland types invaded by Spartina alterniflora and to reveal the mechanisms driving functional influences on this relationship during the later‐stage development of the S. alterniflora invasion system. To investigated the structure, diversity, and functional traits of soil bacteria associated with S. alterniflora and their impact on bacteriome stability we conducted 16S rRNA sequencing of soils from two types of wetlands dominated by the invasive plant S. alterniflora at different growth stages, situated in temperate (salt marsh wetland) and subtropical (mangrove wetland) regions, and assessed bacteriome stability and its driving factors. Subsequently, we analyzed environmental and bacterial changes between the two sites and constructed co‐occurrence networks among taxonomic groups and functional traits. The differences in the late‐stage development of the two S. alterniflora‐invaded wetland systems suggest that bacterial communities with higher diversity tend to exhibit greater stability. Keystone genera play both direct and indirect roles in regulating bacteriome stability, and all belong to dominant phyla. Furthermore, biological factors significantly outweigh nonbiological factors in driving stability. In contrast, core functions (broad functions) and specialized functions such as “nitrogen metabolism” and “sulfur metabolism” decrease bacteriome stability. Their enhancement of these metabolic processes correlates with reduced community stability, which is the key to the differences observed in the two invaded systems. This study advances our understanding of the relationship between soil microbial diversity and ecosystem stability, highlighting the importance of keystone taxa and functional traits for soil microbiome stability. It enhances our ability to predict microbial community transitions. It enhances a scientific basis for the management of S. alterniflora invasion.https://doi.org/10.1002/ece3.71096bacterial diversitybacteriome stabilityco‐occurrence networkcore and specialized functionkeystone taxaSpartina alterniflora
spellingShingle Xue Mo
Zhenming Zhang
Yinglong Chen
Shijun Zhou
Yi Li
Siqi Zhao
Shiqiang Zhao
Xuanming Chen
Bo Wu
Mingxiang Zhang
Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
Ecology and Evolution
bacterial diversity
bacteriome stability
co‐occurrence network
core and specialized function
keystone taxa
Spartina alterniflora
title Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
title_full Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
title_fullStr Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
title_full_unstemmed Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
title_short Spartina alterniflora Ecosystem Stability: Insights Into the Interplay Between Soil Bacteria and Their Functional Traits
title_sort spartina alterniflora ecosystem stability insights into the interplay between soil bacteria and their functional traits
topic bacterial diversity
bacteriome stability
co‐occurrence network
core and specialized function
keystone taxa
Spartina alterniflora
url https://doi.org/10.1002/ece3.71096
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