Phod-harboring bacterial communities mediated slow and fast phosphorus transformation in alkaline soil of a Robinia pseudoacacia afforestation chronosequence

Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD -harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in agi...

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Published inPlant and soil Vol. 488; no. 1-2; pp. 517 - 532
Main Authors Wang, Ying, Yang, Lin, Zhang, Jiawen, Li, Yan, Kang, Haibin, Bai, Xiaoxiong, Cui, Yongxing, Zhang, Min, Dong, Liguo, Yu, Xuan
Format Journal Article
LanguageEnglish
Published Cham Springer International Publishing 01.07.2023
Springer
Springer Nature B.V
Subjects
Abundance
Afforestation
Aging
Agricultural land
Agriculture
Alkaline phosphatase
Alkaline soils
Analysis
bacterial communities
Bioavailability
Biomedical and Life Sciences
Black locust
Carbon content
chronosequences
Community composition
Community structure
Ecology
equations
Forest ecosystems
forests
Fractions
genes
Genetic aspects
Growth
Life Sciences
Microorganisms
Multivariate statistical analysis
Organic carbon
Organic phosphorus
Phosphatase
Phosphates
Phosphorus
Phosphorus content
Plant Physiology
Plant Sciences
primary productivity
Research Article
Robinia pseudoacacia
Seedlings
Semi arid areas
Semiarid zones
Sodium hydroxide
soil organic carbon
Soil Science & Conservation
Soils
stand age
Stoichiometry
Terrestrial ecosystems
trees
Australia
China
Alkaline phosphatase
Phosphorus fractions
gene
SOC
Phosphorus mobilization
Online AccessGet full text
ISSN0032-079X
1573-5036
DOI10.1007/s11104-023-05990-z

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Abstract Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD -harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in aging plantations of leguminous trees is still unclear. Methods Soil samples were collected from 8-, 18-, and 30-year-old stands of a Robinia pseudoacacia afforestation of degraded agricultural land. Soil P fractions, alkaline phosphatase activity, phoD gene abundance, and bacterial community structure were determined. An experiment with P addition in pots with tree seedlings was set up to check for short-term P transformation processes. Results Soil inorganic P (Pi) and organic P (Po) in R. pseudoacacia afforestation stands mainly existed as stable Pi (NaOH-Pi) and moderately easily available Po (HCl-Po). The contents of all these soil P fractions except for HCl-Pi decreased with stand age, while alkaline phosphatase activity increased. Structural equation modelling (SEM) revealed that soil organic carbon (SOC), available phosphorus (AP) and labile-Po contents mediated the community composition, α diversity or abundance of phoD genes, thereby affecting alkaline phosphatase activity. SOC showed the strongest positive effect on alkaline phosphatase activity. The P addition experiment suggests that alkaline phosphatase activity was mainly regulated via soil C:P stoichiometry. Conclusion SOC appears to be an important regulator of Po turnover in P deficient soils via phoD gene-harboring microbes.
AbstractList BACKGROUND AND AIMS: Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD-harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in aging plantations of leguminous trees is still unclear. METHODS: Soil samples were collected from 8-, 18-, and 30-year-old stands of a Robinia pseudoacacia afforestation of degraded agricultural land. Soil P fractions, alkaline phosphatase activity, phoD gene abundance, and bacterial community structure were determined. An experiment with P addition in pots with tree seedlings was set up to check for short-term P transformation processes. RESULTS: Soil inorganic P (Pi) and organic P (Po) in R. pseudoacacia afforestation stands mainly existed as stable Pi (NaOH-Pi) and moderately easily available Po (HCl-Po). The contents of all these soil P fractions except for HCl-Pi decreased with stand age, while alkaline phosphatase activity increased. Structural equation modelling (SEM) revealed that soil organic carbon (SOC), available phosphorus (AP) and labile-Po contents mediated the community composition, α diversity or abundance of phoD genes, thereby affecting alkaline phosphatase activity. SOC showed the strongest positive effect on alkaline phosphatase activity. The P addition experiment suggests that alkaline phosphatase activity was mainly regulated via soil C:P stoichiometry. CONCLUSION: SOC appears to be an important regulator of Po turnover in P deficient soils via phoD gene-harboring microbes.
Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD -harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in aging plantations of leguminous trees is still unclear. Methods Soil samples were collected from 8-, 18-, and 30-year-old stands of a Robinia pseudoacacia afforestation of degraded agricultural land. Soil P fractions, alkaline phosphatase activity, phoD gene abundance, and bacterial community structure were determined. An experiment with P addition in pots with tree seedlings was set up to check for short-term P transformation processes. Results Soil inorganic P (Pi) and organic P (Po) in R. pseudoacacia afforestation stands mainly existed as stable Pi (NaOH-Pi) and moderately easily available Po (HCl-Po). The contents of all these soil P fractions except for HCl-Pi decreased with stand age, while alkaline phosphatase activity increased. Structural equation modelling (SEM) revealed that soil organic carbon (SOC), available phosphorus (AP) and labile-Po contents mediated the community composition, α diversity or abundance of phoD genes, thereby affecting alkaline phosphatase activity. SOC showed the strongest positive effect on alkaline phosphatase activity. The P addition experiment suggests that alkaline phosphatase activity was mainly regulated via soil C:P stoichiometry. Conclusion SOC appears to be an important regulator of Po turnover in P deficient soils via phoD gene-harboring microbes.
Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD-harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in aging plantations of leguminous trees is still unclear. Methods Soil samples were collected from 8-, 18-, and 30-year-old stands of a Robinia pseudoacacia afforestation of degraded agricultural land. Soil P fractions, alkaline phosphatase activity, phoD gene abundance, and bacterial community structure were determined. An experiment with P addition in pots with tree seedlings was set up to check for short-term P transformation processes. Results Soil inorganic P (Pi) and organic P (Po) in R. pseudoacacia afforestation stands mainly existed as stable Pi (NaOH-Pi) and moderately easily available Po (HCl-Po). The contents of all these soil P fractions except for HCl-Pi decreased with stand age, while alkaline phosphatase activity increased. Structural equation modelling (SEM) revealed that soil organic carbon (SOC), available phosphorus (AP) and labile-Po contents mediated the community composition, [alpha] diversity or abundance of phoD genes, thereby affecting alkaline phosphatase activity. SOC showed the strongest positive effect on alkaline phosphatase activity. The P addition experiment suggests that alkaline phosphatase activity was mainly regulated via soil C:P stoichiometry. Conclusion SOC appears to be an important regulator of Po turnover in P deficient soils via phoD gene-harboring microbes.
Background and aimsSoil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P deficient conditions, phoD-harboring microorganisms secrete alkaline phosphatase, improving P bioavailability. However, their roles in aging plantations of leguminous trees is still unclear.MethodsSoil samples were collected from 8-, 18-, and 30-year-old stands of a Robinia pseudoacacia afforestation of degraded agricultural land. Soil P fractions, alkaline phosphatase activity, phoD gene abundance, and bacterial community structure were determined. An experiment with P addition in pots with tree seedlings was set up to check for short-term P transformation processes.ResultsSoil inorganic P (Pi) and organic P (Po) in R. pseudoacacia afforestation stands mainly existed as stable Pi (NaOH-Pi) and moderately easily available Po (HCl-Po). The contents of all these soil P fractions except for HCl-Pi decreased with stand age, while alkaline phosphatase activity increased. Structural equation modelling (SEM) revealed that soil organic carbon (SOC), available phosphorus (AP) and labile-Po contents mediated the community composition, α diversity or abundance of phoD genes, thereby affecting alkaline phosphatase activity. SOC showed the strongest positive effect on alkaline phosphatase activity. The P addition experiment suggests that alkaline phosphatase activity was mainly regulated via soil C:P stoichiometry.ConclusionSOC appears to be an important regulator of Po turnover in P deficient soils via phoD gene-harboring microbes.
Audience Academic
Author Kang, Haibin
Yang, Lin
Li, Yan
Wang, Ying
Dong, Liguo
Yu, Xuan
Bai, Xiaoxiong
Cui, Yongxing
Zhang, Jiawen
Zhang, Min
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  organization: Department of Forestry, College of Forestry, Northwest A&F University, Key Comprehensive Laboratory of Forestry, Key Lab Silviculture Loess Plateau State Forestry
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  organization: Department of Forestry, College of Forestry, Northwest A&F University, Key Comprehensive Laboratory of Forestry, Key Lab Silviculture Loess Plateau State Forestry
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  givenname: Yan
  surname: Li
  fullname: Li, Yan
  organization: Department of Forestry, College of Forestry, Northwest A&F University, Key Comprehensive Laboratory of Forestry, Key Lab Silviculture Loess Plateau State Forestry
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  givenname: Xuan
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  fullname: Yu, Xuan
  email: yux@nwsuaf.edu.cn
  organization: Department of Forestry, College of Forestry, Northwest A&F University, Key Comprehensive Laboratory of Forestry, Key Lab Silviculture Loess Plateau State Forestry
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Issue 1-2
Keywords Alkaline phosphatase
Phosphorus fractions
gene
SOC
Phosphorus mobilization
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PublicationSubtitle An International Journal on Plant-Soil Relationships
PublicationTitle Plant and soil
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Springer Nature B.V
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SSID ssj0003216
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Snippet Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under...
Background and aims Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under...
Background and aimsSoil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under P...
BACKGROUND AND AIMS: Soil phosphorus (P) availability is a key factor determining primary productivity in forest ecosystems in arid and semiarid regions. Under...
SourceID proquest
gale
crossref
springer
SourceType Aggregation Database
Enrichment Source
Index Database
Publisher
StartPage 517
SubjectTerms Abundance
Afforestation
Aging
Agricultural land
Agriculture
Alkaline phosphatase
Alkaline soils
Analysis
bacterial communities
Bioavailability
Biomedical and Life Sciences
Black locust
Carbon content
chronosequences
Community composition
Community structure
Ecology
equations
Forest ecosystems
forests
Fractions
genes
Genetic aspects
Growth
Life Sciences
Microorganisms
Multivariate statistical analysis
Organic carbon
Organic phosphorus
Phosphatase
Phosphates
Phosphorus
Phosphorus content
Plant Physiology
Plant Sciences
primary productivity
Research Article
Robinia pseudoacacia
Seedlings
Semi arid areas
Semiarid zones
Sodium hydroxide
soil organic carbon
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Title Phod-harboring bacterial communities mediated slow and fast phosphorus transformation in alkaline soil of a Robinia pseudoacacia afforestation chronosequence
URI https://link.springer.com/article/10.1007/s11104-023-05990-z
https://www.proquest.com/docview/2852194339
https://www.proquest.com/docview/3153154731
Volume 488
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