Linking alkaline phosphatase activity with bacterial phoD gene abundance in soil from a long-term management trial

Changes in land management practices may have significant implications for soil microbial communities important in organic P turnover. Soil bacteria can increase plant P availability by excreting phosphatase enzymes which catalyze the hydrolysis of ester-phosphate bonds. Examining the diversity and...

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Published inGeoderma Vol. 257-258; pp. 115 - 122
Main Authors Fraser, Tandra, Lynch, Derek H., Entz, Martin H., Dunfield, Kari E.
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.11.2015
Subjects
Online AccessGet full text
ISSN0016-7061
1872-6259
DOI10.1016/j.geoderma.2014.10.016

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Abstract Changes in land management practices may have significant implications for soil microbial communities important in organic P turnover. Soil bacteria can increase plant P availability by excreting phosphatase enzymes which catalyze the hydrolysis of ester-phosphate bonds. Examining the diversity and abundance of alkaline phosphatase gene harboring bacteria may provide valuable insight into alkaline phosphatase production in soils. This study examined the effect of 20years of no input organic (ORG), organic with composted manure (ORG+M), conventional (CONV) and restored prairie (PRA) management on soil P bioavailability, alkaline phosphatase activity (ALP), and abundance and diversity of ALP gene (phoD) harboring bacteria in soils from the northern Great Plains of Canada. Management system influenced bioavailable P (P<0.001), but not total P, with the lowest concentrations in the ORG systems and the highest in PRA. Higher rates of ALP were observed in the ORG and ORG+M treatments with a significant negative correlation between bioavailable P and ALP in 2011 (r2=0.71; P=0.03) and 2012 (r2=0.51; P=0.02), suggesting that ALP activity increased under P limiting conditions. The phoD gene abundance was also highest in ORG and ORG+M resulting in a significant positive relationship between bacterial phoD abundance and ALP activity (r2=0.71; P=0.009). Analysis of phoD bacterial community fingerprints showed a higher number of species in CONV compared to ORG and ORG+M, contrary to what was expected considering greater ALP activity under ORG management. In 2012, banding profiles of ORG+M showed fewer phoD bacterial species following the second manure application, although ALP activity is higher than in 2011. This indicates that a few species may be producing more ALP and that quantitative gene analysis was a better indicator of activity than the number of species present. •Bioavailable P, but not total P, was depleted in organic systems after 20years.•Alkaline phosphatase activity was higher in soils with lower bioavailable P.•Positive correlation between bacterial phoD gene abundance and ALP activity•phoD gene abundance was a better indicator of alkaline phosphatase activity than diversity analysis.
AbstractList Changes in land management practices may have significant implications for soil microbial communities important in organic P turnover. Soil bacteria can increase plant P availability by excreting phosphatase enzymes which catalyze the hydrolysis of ester-phosphate bonds. Examining the diversity and abundance of alkaline phosphatase gene harboring bacteria may provide valuable insight into alkaline phosphatase production in soils. This study examined the effect of 20years of no input organic (ORG), organic with composted manure (ORG+M), conventional (CONV) and restored prairie (PRA) management on soil P bioavailability, alkaline phosphatase activity (ALP), and abundance and diversity of ALP gene (phoD) harboring bacteria in soils from the northern Great Plains of Canada. Management system influenced bioavailable P (P<0.001), but not total P, with the lowest concentrations in the ORG systems and the highest in PRA. Higher rates of ALP were observed in the ORG and ORG+M treatments with a significant negative correlation between bioavailable P and ALP in 2011 (r2=0.71; P=0.03) and 2012 (r2=0.51; P=0.02), suggesting that ALP activity increased under P limiting conditions. The phoD gene abundance was also highest in ORG and ORG+M resulting in a significant positive relationship between bacterial phoD abundance and ALP activity (r2=0.71; P=0.009). Analysis of phoD bacterial community fingerprints showed a higher number of species in CONV compared to ORG and ORG+M, contrary to what was expected considering greater ALP activity under ORG management. In 2012, banding profiles of ORG+M showed fewer phoD bacterial species following the second manure application, although ALP activity is higher than in 2011. This indicates that a few species may be producing more ALP and that quantitative gene analysis was a better indicator of activity than the number of species present. •Bioavailable P, but not total P, was depleted in organic systems after 20years.•Alkaline phosphatase activity was higher in soils with lower bioavailable P.•Positive correlation between bacterial phoD gene abundance and ALP activity•phoD gene abundance was a better indicator of alkaline phosphatase activity than diversity analysis.
Changes in land management practices may have significant implications for soil microbial communities important in organic P turnover. Soil bacteria can increase plant P availability by excreting phosphatase enzymes which catalyze the hydrolysis of ester-phosphate bonds. Examining the diversity and abundance of alkaline phosphatase gene harboring bacteria may provide valuable insight into alkaline phosphatase production in soils. This study examined the effect of 20years of no input organic (ORG), organic with composted manure (ORG+M), conventional (CONV) and restored prairie (PRA) management on soil P bioavailability, alkaline phosphatase activity (ALP), and abundance and diversity of ALP gene (phoD) harboring bacteria in soils from the northern Great Plains of Canada. Management system influenced bioavailable P (P<0.001), but not total P, with the lowest concentrations in the ORG systems and the highest in PRA. Higher rates of ALP were observed in the ORG and ORG+M treatments with a significant negative correlation between bioavailable P and ALP in 2011 (r2=0.71; P=0.03) and 2012 (r2=0.51; P=0.02), suggesting that ALP activity increased under P limiting conditions. The phoD gene abundance was also highest in ORG and ORG+M resulting in a significant positive relationship between bacterial phoD abundance and ALP activity (r2=0.71; P=0.009). Analysis of phoD bacterial community fingerprints showed a higher number of species in CONV compared to ORG and ORG+M, contrary to what was expected considering greater ALP activity under ORG management. In 2012, banding profiles of ORG+M showed fewer phoD bacterial species following the second manure application, although ALP activity is higher than in 2011. This indicates that a few species may be producing more ALP and that quantitative gene analysis was a better indicator of activity than the number of species present.
Author Fraser, Tandra
Lynch, Derek H.
Dunfield, Kari E.
Entz, Martin H.
Author_xml – sequence: 1
  givenname: Tandra
  surname: Fraser
  fullname: Fraser, Tandra
  organization: School of Environmental Sciences, University of Guelph, 50 Stone Road East, Guelph, Ontario N1G 2W1, Canada
– sequence: 2
  givenname: Derek H.
  surname: Lynch
  fullname: Lynch, Derek H.
  organization: Department of Plant and Animal Sciences, Dalhousie University, Agriculture Campus, Truro, Nova Scotia B2N 5E3, Canada
– sequence: 3
  givenname: Martin H.
  surname: Entz
  fullname: Entz, Martin H.
  organization: Department of Plant Science, University of Manitoba, Winnipeg, Manitoba R3T 2N2, Canada
– sequence: 4
  givenname: Kari E.
  surname: Dunfield
  fullname: Dunfield, Kari E.
  email: dunfield@uoguelph.ca
  organization: School of Environmental Sciences, University of Guelph, 50 Stone Road East, Guelph, Ontario N1G 2W1, Canada
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Keywords Pho regulon
Soil microbial communities
Enzyme activity
Organic agriculture
Bioavailable P
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Snippet Changes in land management practices may have significant implications for soil microbial communities important in organic P turnover. Soil bacteria can...
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SubjectTerms alkaline phosphatase
bacterial communities
bioavailability
Bioavailable P
Canada
composted manure
Enzyme activity
genes
Great Plains region
hydrolysis
land management
manure spreading
microbial activity
Organic agriculture
Pho regulon
phosphorus
soil
soil bacteria
Soil microbial communities
Title Linking alkaline phosphatase activity with bacterial phoD gene abundance in soil from a long-term management trial
URI https://dx.doi.org/10.1016/j.geoderma.2014.10.016
https://www.proquest.com/docview/1836675089
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