Winter cover crop legacy effects on litter decomposition act through litter quality and microbial community changes

In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenc...

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Published inThe Journal of applied ecology Vol. 56; no. 1; pp. 132 - 143
Main Authors Barel, Janna M., Kuyper, Thomas W., Paul, Jos, de Boer, Wietse, Cornelissen, Johannes H. C., De Deyn, Gerlinde B.
Format Journal Article
LanguageEnglish
Published Oxford Wiley 01.01.2019
Blackwell Publishing Ltd
Subjects
Agricultural practices
Aspalathus linearis
Avena sativa
Biomass
Bodembiologie
Bodembiologie en biologische bodemkwaliteit
Carbon cycle
carbon cycling
Chair Soil Biology and Biological Soil Quality
Cichorium endivia
Communities
Correlation
Cover crops
Crop residues
Crop rotation
Cropping sequence
Cropping systems
Crops
Decomposition
endive
fallow
Fertility
Filter paper
Foreign languages
Leerstoelgroep Bodembiologie en biologische Bodemkwaliteit
legacy effects
Lignin
lignin content
Litter
microbial biomass
microbial communities
microbial community composition
Microbiomes
Microorganisms
Monoculture
Nitrogen
nitrogen content
nitrogen cycling
Nutrient cycles
oats
Organic matter
Organic soils
PE&RC
Quality
Rate constants
RESEARCH ARTICLE
Residues
soil
Soil Biology
Soil Biology and Biological Soil Quality
Soil conditions
Soil fertility
Soil improvement
Soil microorganisms
Soil organic matter
Soil properties
Soil quality
Soils
standardised substrates
Substrates
Tea
Winter
winter cover crop
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Abstract In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenced by cropping history is, however, unclear. We grew WCC monocultures and mixtures in rotation with main crops Avena sativa (oat) and Cichorium endivia (endive) and tested how crop rotation influences WCC litter quality, abiotic and biotic soil conditions, and litter decomposition rates. To disentangle WCC litter quality effects from WCC soil legacy effects on decomposition, we tested how rotation history influences decomposition of standard substrates and explored the underlying mechanisms. In a common environment (e.g. winter fallow plots), WCC decomposition rate constants (k) correlated negatively with litter C, lignin and, surprisingly, N content, due to strong positive correlations among these traits. Plots with a history of fast‐decomposing WCCs exhibited faster decomposition of their own litters as well as of the standard substrates filter paper and rooibos tea, as compared to winter fallow plots. WCC treatments differentially affected soil microbial biomass, as well as soil organic matter and mineral nitrogen content. WCC‐induced soil changes affected decomposition rates. Depending on the main crop rotation treatment, legacy effects were attributed to biomass input of WCCs and their litter quality or changes in microbial biomass. Synthesis and applications. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks. Foreign Language In landbouw worden plantenresten van wintergroenbemesters in de bodem ondergewerkt om bodemkwaliteit te verbeteren. De afbraaksnelheid van groenbemesterstrooisel en het daarbij vrijkomen van voedingsstoffen wordt bepaald door strooiselkwaliteit en lokale abiotische en biotische bodemomstandigheden. Echter is het onduidelijk hoe al deze factoren worden beïnvloed door gewasrotatie. In een veldexperiment werden verschillende winterse groenbemesters verbouwd in monoculturen en mengsels, in rotatie met hoofdgewassen Avena sativa (haver) en Cichorium endivia (andijvie). De invloed van gewasrotatie op de kwaliteit van groenbemesterstrooisel, lokale abiotische en biotische bodemparameters en strooiselafbraaksnelheid werd getest. Om bovendien onderscheid te kunnen maken tussen effecten van strooiselkwaliteit en veranderingen in bodemomstandigheden, werden effecten van gewasrotatie ook getoetst op de afbraak van standaard substraten (filterpapier en rooibosthee). In eenzelfde omgeving, zonder specifieke groenbemestergeschiedenis (voormalig winter braak), waren afbraaksnelheden van groenbemesterstrooisels negatief gecorreleerd met concentraties van koolstof‐ (C), lignine‐, en tegen de verwachtingen in, stikstof‐ (N) in het strooisel. Dit resultaat werd verklaard door de onderlinge positieve correlaties tussen N, C en lignine. In vergelijking met voormalig winter braakvelden, toonden proefvelden met een geschiedenis van snel afbrekende groenbemesters een snellere decompositie van zowel eigen strooisels als ook van de standaard substraten. De verschillende erfeniseffecten op afbraaksnelheid konden worden gerelateerd aan de effecten van de groenbemesters op de bodem microbiële biomassa, bodem organische stof en minerale stikstofgehalten. Afhankelijk van het hoofdgewas, konden de erfeniseffecten worden toegeschreven aan de hoeveelheid plantenresten van de groenbemesters, de kwaliteit hiervan, alsmede aan veranderingen in de microbiële biomassa, maar niet aan veranderde abiotische bodemfactoren. Synthese en toepassing. Deze resultaten tonen aan dat decompositie in landbouwsystemen direct wordt beïnvloed door gewasresten en de bodem erfeniseffecten op biotische bodemomstandigheden. De volgorde van gewassen beïnvloedt afbraak, waarbij productieve groenbemesters met snel afbrekende strooisels de decompositie van nieuw materiaal stimuleren via de microbiële bodemgemeenschap en vrijgekomen stikstof. Winterse groenbemesters zijn daarom veelbelovende middelen om C‐ en N‐kringlopen duurzaam te beheren door middel van strooisel‐feedback. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks.
AbstractList In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenced by cropping history is, however, unclear.We grew WCC monocultures and mixtures in rotation with main crops Avena sativa (oat) and Cichorium endivia (endive) and tested how crop rotation influences WCC litter quality, abiotic and biotic soil conditions, and litter decomposition rates. To disentangle WCC litter quality effects from WCC soil legacy effects on decomposition, we tested how rotation history influences decomposition of standard substrates and explored the underlying mechanisms.In a common environment (e.g. winter fallow plots), WCC decomposition rate constants (k) correlated negatively with litter C, lignin and, surprisingly, N content, due to strong positive correlations among these traits. Plots with a history of fast‐decomposing WCCs exhibited faster decomposition of their own litters as well as of the standard substrates filter paper and rooibos tea, as compared to winter fallow plots.WCC treatments differentially affected soil microbial biomass, as well as soil organic matter and mineral nitrogen content. WCC‐induced soil changes affected decomposition rates. Depending on the main crop rotation treatment, legacy effects were attributed to biomass input of WCCs and their litter quality or changes in microbial biomass.Synthesis and applications. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks.
In agriculture, winter cover crop ( WCC ) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenced by cropping history is, however, unclear. We grew WCC monocultures and mixtures in rotation with main crops Avena sativa (oat) and Cichorium endivia (endive) and tested how crop rotation influences WCC litter quality, abiotic and biotic soil conditions, and litter decomposition rates. To disentangle WCC litter quality effects from WCC soil legacy effects on decomposition, we tested how rotation history influences decomposition of standard substrates and explored the underlying mechanisms. In a common environment (e.g. winter fallow plots), WCC decomposition rate constants ( k ) correlated negatively with litter C, lignin and, surprisingly, N content, due to strong positive correlations among these traits. Plots with a history of fast‐decomposing WCC s exhibited faster decomposition of their own litters as well as of the standard substrates filter paper and rooibos tea, as compared to winter fallow plots. WCC treatments differentially affected soil microbial biomass, as well as soil organic matter and mineral nitrogen content. WCC ‐induced soil changes affected decomposition rates. Depending on the main crop rotation treatment, legacy effects were attributed to biomass input of WCC s and their litter quality or changes in microbial biomass. Synthesis and applications . These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks. In landbouw worden plantenresten van wintergroenbemesters in de bodem ondergewerkt om bodemkwaliteit te verbeteren. De afbraaksnelheid van groenbemesterstrooisel en het daarbij vrijkomen van voedingsstoffen wordt bepaald door strooiselkwaliteit en lokale abiotische en biotische bodemomstandigheden. Echter is het onduidelijk hoe al deze factoren worden beïnvloed door gewasrotatie. In een veldexperiment werden verschillende winterse groenbemesters verbouwd in monoculturen en mengsels, in rotatie met hoofdgewassen Avena sativa (haver) en Cichorium endivia (andijvie). De invloed van gewasrotatie op de kwaliteit van groenbemesterstrooisel, lokale abiotische en biotische bodemparameters en strooiselafbraaksnelheid werd getest. Om bovendien onderscheid te kunnen maken tussen effecten van strooiselkwaliteit en veranderingen in bodemomstandigheden, werden effecten van gewasrotatie ook getoetst op de afbraak van standaard substraten (filterpapier en rooibosthee). In eenzelfde omgeving, zonder specifieke groenbemestergeschiedenis (voormalig winter braak), waren afbraaksnelheden van groenbemesterstrooisels negatief gecorreleerd met concentraties van koolstof‐ (C), lignine‐, en tegen de verwachtingen in, stikstof‐ (N) in het strooisel. Dit resultaat werd verklaard door de onderlinge positieve correlaties tussen N, C en lignine. In vergelijking met voormalig winter braakvelden, toonden proefvelden met een geschiedenis van snel afbrekende groenbemesters een snellere decompositie van zowel eigen strooisels als ook van de standaard substraten. De verschillende erfeniseffecten op afbraaksnelheid konden worden gerelateerd aan de effecten van de groenbemesters op de bodem microbiële biomassa, bodem organische stof en minerale stikstofgehalten. Afhankelijk van het hoofdgewas, konden de erfeniseffecten worden toegeschreven aan de hoeveelheid plantenresten van de groenbemesters, de kwaliteit hiervan, alsmede aan veranderingen in de microbiële biomassa, maar niet aan veranderde abiotische bodemfactoren. Synthese en toepassing . Deze resultaten tonen aan dat decompositie in landbouwsystemen direct wordt beïnvloed door gewasresten en de bodem erfeniseffecten op biotische bodemomstandigheden. De volgorde van gewassen beïnvloedt afbraak, waarbij productieve groenbemesters met snel afbrekende strooisels de decompositie van nieuw materiaal stimuleren via de microbiële bodemgemeenschap en vrijgekomen stikstof. Winterse groenbemesters zijn daarom veelbelovende middelen om C‐ en N‐kringlopen duurzaam te beheren door middel van strooisel‐feedback. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks.
1.In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenced by cropping history is, however, unclear. 2.We grew WCC monocultures and mixtures in rotation with main crops Avena sativa (oat) and Cichorium endivia (endive) and tested how crop rotation influences WCC litter quality, abiotic and biotic soil conditions, and litter decomposition rates. To disentangle WCC litter quality effects from WCC soil legacy effects on decomposition, we tested how rotation history influences decomposition of standard substrates and explored the underlying mechanisms. 3.In a common environment (e.g. winter fallow plots), WCC decomposition rate constants (k) correlated negatively with litter C, lignin and, surprisingly, N content, due to strong positive correlations among these traits. Plots with a history of fast‐decomposing WCCs exhibited faster decomposition of their own litters as well as of the standard substrates filter paper and rooibos tea, as compared to winter fallow plots. 4.WCC treatments differentially affected soil microbial biomass, as well as soil organic matter and mineral nitrogen content. WCC‐induced soil changes affected decomposition rates. Depending on the main crop rotation treatment, legacy effects were attributed to biomass input of WCCs and their litter quality or changes in microbial biomass. 5.Synthesis and applications. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, winter cover crops have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks.
In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility. Decomposition rate is determined by litter quality, local soil abiotic and biotic properties. How these factors are interlinked and influenced by cropping history is, however, unclear. We grew WCC monocultures and mixtures in rotation with main crops Avena sativa (oat) and Cichorium endivia (endive) and tested how crop rotation influences WCC litter quality, abiotic and biotic soil conditions, and litter decomposition rates. To disentangle WCC litter quality effects from WCC soil legacy effects on decomposition, we tested how rotation history influences decomposition of standard substrates and explored the underlying mechanisms. In a common environment (e.g. winter fallow plots), WCC decomposition rate constants (k) correlated negatively with litter C, lignin and, surprisingly, N content, due to strong positive correlations among these traits. Plots with a history of fast‐decomposing WCCs exhibited faster decomposition of their own litters as well as of the standard substrates filter paper and rooibos tea, as compared to winter fallow plots. WCC treatments differentially affected soil microbial biomass, as well as soil organic matter and mineral nitrogen content. WCC‐induced soil changes affected decomposition rates. Depending on the main crop rotation treatment, legacy effects were attributed to biomass input of WCCs and their litter quality or changes in microbial biomass. Synthesis and applications. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks. Foreign Language In landbouw worden plantenresten van wintergroenbemesters in de bodem ondergewerkt om bodemkwaliteit te verbeteren. De afbraaksnelheid van groenbemesterstrooisel en het daarbij vrijkomen van voedingsstoffen wordt bepaald door strooiselkwaliteit en lokale abiotische en biotische bodemomstandigheden. Echter is het onduidelijk hoe al deze factoren worden beïnvloed door gewasrotatie. In een veldexperiment werden verschillende winterse groenbemesters verbouwd in monoculturen en mengsels, in rotatie met hoofdgewassen Avena sativa (haver) en Cichorium endivia (andijvie). De invloed van gewasrotatie op de kwaliteit van groenbemesterstrooisel, lokale abiotische en biotische bodemparameters en strooiselafbraaksnelheid werd getest. Om bovendien onderscheid te kunnen maken tussen effecten van strooiselkwaliteit en veranderingen in bodemomstandigheden, werden effecten van gewasrotatie ook getoetst op de afbraak van standaard substraten (filterpapier en rooibosthee). In eenzelfde omgeving, zonder specifieke groenbemestergeschiedenis (voormalig winter braak), waren afbraaksnelheden van groenbemesterstrooisels negatief gecorreleerd met concentraties van koolstof‐ (C), lignine‐, en tegen de verwachtingen in, stikstof‐ (N) in het strooisel. Dit resultaat werd verklaard door de onderlinge positieve correlaties tussen N, C en lignine. In vergelijking met voormalig winter braakvelden, toonden proefvelden met een geschiedenis van snel afbrekende groenbemesters een snellere decompositie van zowel eigen strooisels als ook van de standaard substraten. De verschillende erfeniseffecten op afbraaksnelheid konden worden gerelateerd aan de effecten van de groenbemesters op de bodem microbiële biomassa, bodem organische stof en minerale stikstofgehalten. Afhankelijk van het hoofdgewas, konden de erfeniseffecten worden toegeschreven aan de hoeveelheid plantenresten van de groenbemesters, de kwaliteit hiervan, alsmede aan veranderingen in de microbiële biomassa, maar niet aan veranderde abiotische bodemfactoren. Synthese en toepassing. Deze resultaten tonen aan dat decompositie in landbouwsystemen direct wordt beïnvloed door gewasresten en de bodem erfeniseffecten op biotische bodemomstandigheden. De volgorde van gewassen beïnvloedt afbraak, waarbij productieve groenbemesters met snel afbrekende strooisels de decompositie van nieuw materiaal stimuleren via de microbiële bodemgemeenschap en vrijgekomen stikstof. Winterse groenbemesters zijn daarom veelbelovende middelen om C‐ en N‐kringlopen duurzaam te beheren door middel van strooisel‐feedback. These results demonstrate that decomposition in cropping systems is influenced directly through crop residues, as well as through crop‐induced changes in soil biotic properties. Rotation history influences decomposition, wherein productive winter cover crops (WCC) with low lignin content decompose fast and stimulate the turnover of both own and newly added residues via their knock‐on effect on the soil microbial community. Thus, WCC have promise for sustainable carbon‐ and nutrient‐cycling management through litter feedbacks.
Author Barel, Janna M.
de Boer, Wietse
Cornelissen, Johannes H. C.
Kuyper, Thomas W.
Paul, Jos
De Deyn, Gerlinde B.
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  surname: De Deyn
  fullname: De Deyn, Gerlinde B.
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ContentType Journal Article
Copyright 2018 The Authors
2018 The Authors. published by John Wiley & Sons Ltd on behalf of British Ecological Society
Journal of Applied Ecology © 2019 British Ecological Society
Wageningen University & Research
Copyright_xml – notice: 2018 The Authors
– notice: 2018 The Authors. published by John Wiley & Sons Ltd on behalf of British Ecological Society
– notice: Journal of Applied Ecology © 2019 British Ecological Society
– notice: Wageningen University & Research
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Snippet In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve fertility....
In agriculture, winter cover crop ( WCC ) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve...
1.In agriculture, winter cover crop (WCC) residues are incorporated into the soil to improve soil quality, as gradual litter decomposition can improve...
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StartPage 132
SubjectTerms Agricultural practices
Aspalathus linearis
Avena sativa
Biomass
Bodembiologie
Bodembiologie en biologische bodemkwaliteit
Carbon cycle
carbon cycling
Chair Soil Biology and Biological Soil Quality
Cichorium endivia
Communities
Correlation
Cover crops
Crop residues
Crop rotation
Cropping sequence
Cropping systems
Crops
Decomposition
endive
fallow
Fertility
Filter paper
Foreign languages
Leerstoelgroep Bodembiologie en biologische Bodemkwaliteit
legacy effects
Lignin
lignin content
Litter
microbial biomass
microbial communities
microbial community composition
Microbiomes
Microorganisms
Monoculture
Nitrogen
nitrogen content
nitrogen cycling
Nutrient cycles
oats
Organic matter
Organic soils
PE&RC
Quality
Rate constants
RESEARCH ARTICLE
Residues
soil
Soil Biology
Soil Biology and Biological Soil Quality
Soil conditions
Soil fertility
Soil improvement
Soil microorganisms
Soil organic matter
Soil properties
Soil quality
Soils
standardised substrates
Substrates
Tea
Winter
winter cover crop
Title Winter cover crop legacy effects on litter decomposition act through litter quality and microbial community changes
URI https://www.jstor.org/stable/48580391
https://onlinelibrary.wiley.com/doi/abs/10.1111%2F1365-2664.13261
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https://www.proquest.com/docview/2221064176
http://www.narcis.nl/publication/RecordID/oai:library.wur.nl:wurpubs%2F541315
Volume 56
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