Influence of microbial activity on plant-microbial competition for organic and inorganic nitrogen

To investigate how the level of microbial activity in grassland soils affects plant-microbial competition for different nitrogen (N) forms, we established microcosms consisting of a natural soil community and a seedling of one of two co-existing grass species, Anthoxanthum odoratum or Festuca rubra....

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Veröffentlicht in:Plant and soil 2006-11, Vol.289 (1-2), p.321-334
Hauptverfasser: Dunn, Robert M, Mikola, Juha, Bol, Roland, Bardgett, Richard D
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Bol, Roland
Bardgett, Richard D
description To investigate how the level of microbial activity in grassland soils affects plant-microbial competition for different nitrogen (N) forms, we established microcosms consisting of a natural soil community and a seedling of one of two co-existing grass species, Anthoxanthum odoratum or Festuca rubra. We then stimulated the soil microbial community with glucose in half of the microcosms and followed the transfer of added inorganic (¹⁵NH ₄ ¹⁵ NO₃) and organic (glycine-2-¹³C-¹⁵N) N into microbial and plant biomass. We found that microbes captured significantly more ¹⁵N in organic than in inorganic form and that glucose addition increased microbial ¹⁵N capture from the inorganic source. Shoot and root biomass, total shoot N content and shoot and root ¹⁵N contents were significantly greater for A. odoratum than F. rubra, whereas F. rubra had higher shoot and root N concentrations. Where glucose was not added, A. odoratum had higher shoot ¹⁵N content with organic than with inorganic ¹⁵N addition, whereas where glucose was added, both species had higher shoot ¹⁵N content with inorganic than with organic ¹⁵N. Glucose addition had equally negative effects on shoot growth, total shoot N content, shoot and root N concentrations and shoot and root ¹⁵N content for both species. Both N forms produced significantly more shoot biomass and higher shoot N content than the water control, but the chemical form of N had no significant effect. Our findings suggest that plant species that are better in capturing nutrients from soil are not necessarily better in tolerating increasing microbial competition for nutrients. It also appears that intense microbial competition has more adverse effects on the uptake of organic than inorganic N by plants, which may potentially have significant implications for interspecific plant-plant competition for N in ecosystems where the importance of organic N is high and some of the plant species specialize in use of organic N.
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Both N forms produced significantly more shoot biomass and higher shoot N content than the water control, but the chemical form of N had no significant effect. Our findings suggest that plant species that are better in capturing nutrients from soil are not necessarily better in tolerating increasing microbial competition for nutrients. 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We then stimulated the soil microbial community with glucose in half of the microcosms and followed the transfer of added inorganic (¹⁵NH ₄ ¹⁵ NO₃) and organic (glycine-2-¹³C-¹⁵N) N into microbial and plant biomass. We found that microbes captured significantly more ¹⁵N in organic than in inorganic form and that glucose addition increased microbial ¹⁵N capture from the inorganic source. Shoot and root biomass, total shoot N content and shoot and root ¹⁵N contents were significantly greater for A. odoratum than F. rubra, whereas F. rubra had higher shoot and root N concentrations. Where glucose was not added, A. odoratum had higher shoot ¹⁵N content with organic than with inorganic ¹⁵N addition, whereas where glucose was added, both species had higher shoot ¹⁵N content with inorganic than with organic ¹⁵N. Glucose addition had equally negative effects on shoot growth, total shoot N content, shoot and root N concentrations and shoot and root ¹⁵N content for both species. Both N forms produced significantly more shoot biomass and higher shoot N content than the water control, but the chemical form of N had no significant effect. Our findings suggest that plant species that are better in capturing nutrients from soil are not necessarily better in tolerating increasing microbial competition for nutrients. It also appears that intense microbial competition has more adverse effects on the uptake of organic than inorganic N by plants, which may potentially have significant implications for interspecific plant-plant competition for N in ecosystems where the importance of organic N is high and some of the plant species specialize in use of organic N.</description><subject>Acid soils</subject><subject>Agricultural soils</subject><subject>Agronomy. 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We then stimulated the soil microbial community with glucose in half of the microcosms and followed the transfer of added inorganic (¹⁵NH ₄ ¹⁵ NO₃) and organic (glycine-2-¹³C-¹⁵N) N into microbial and plant biomass. We found that microbes captured significantly more ¹⁵N in organic than in inorganic form and that glucose addition increased microbial ¹⁵N capture from the inorganic source. Shoot and root biomass, total shoot N content and shoot and root ¹⁵N contents were significantly greater for A. odoratum than F. rubra, whereas F. rubra had higher shoot and root N concentrations. Where glucose was not added, A. odoratum had higher shoot ¹⁵N content with organic than with inorganic ¹⁵N addition, whereas where glucose was added, both species had higher shoot ¹⁵N content with inorganic than with organic ¹⁵N. Glucose addition had equally negative effects on shoot growth, total shoot N content, shoot and root N concentrations and shoot and root ¹⁵N content for both species. Both N forms produced significantly more shoot biomass and higher shoot N content than the water control, but the chemical form of N had no significant effect. Our findings suggest that plant species that are better in capturing nutrients from soil are not necessarily better in tolerating increasing microbial competition for nutrients. It also appears that intense microbial competition has more adverse effects on the uptake of organic than inorganic N by plants, which may potentially have significant implications for interspecific plant-plant competition for N in ecosystems where the importance of organic N is high and some of the plant species specialize in use of organic N.</abstract><cop>Dordrecht</cop><pub>Dordrecht : Kluwer Academic Publishers</pub><doi>10.1007/s11104-006-9142-z</doi><tpages>14</tpages></addata></record>
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subjects Acid soils
Agricultural soils
Agronomy. Soil science and plant productions
Animal, plant and microbial ecology
Anthoxanthum odoratum
Biological and medical sciences
Biomass
carbon nitrogen ratio
Competition
ecological competition
Festuca rubra
Flowers & plants
Fundamental and applied biological sciences. Psychology
Glucose
Grasses
Grassland soils
Grasslands
inorganic compounds
Microbial activity
Microcosms
Nitrogen
nitrogen content
nutrient uptake
Nutrients
Organic foods
Organic soils
Plant biomass
Plant communities
Plant roots
Plant species
Plants
Roots
Seedlings
Shoots
Side effects
Soil
Soil ecology
Soil microorganisms
soil nutrients
soil organic matter
soil-plant interactions
Soils
Water control
title Influence of microbial activity on plant-microbial competition for organic and inorganic nitrogen
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