Water availability moderates N2 fixation benefit from elevated [CO2]: A 2‐year free‐air CO2 enrichment study on lentil (Lens culinaris MEDIK.) in a water limited agroecosystem

Increased biomass and yield of plants grown under elevated [CO2] often corresponds to decreased grain N concentration ([N]), diminishing nutritional quality of crops. Legumes through their symbiotic N2 fixation may be better able to maintain biomass [N] and grain [N] under elevated [CO2], provided N...

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Veröffentlicht in:Plant, cell and environment cell and environment, 2018-10, Vol.41 (10), p.2418-2434
Hauptverfasser: Parvin, Shahnaj, Uddin, Shihab, Bourgault, Maryse, Roessner, Ute, Tausz‐Posch, Sabine, Armstrong, Roger, O'Leary, Garry, Fitzgerald, Glenn, Tausz, Michael
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container_end_page 2434
container_issue 10
container_start_page 2418
container_title Plant, cell and environment
container_volume 41
creator Parvin, Shahnaj
Uddin, Shihab
Bourgault, Maryse
Roessner, Ute
Tausz‐Posch, Sabine
Armstrong, Roger
O'Leary, Garry
Fitzgerald, Glenn
Tausz, Michael
description Increased biomass and yield of plants grown under elevated [CO2] often corresponds to decreased grain N concentration ([N]), diminishing nutritional quality of crops. Legumes through their symbiotic N2 fixation may be better able to maintain biomass [N] and grain [N] under elevated [CO2], provided N2 fixation is stimulated by elevated [CO2] in line with growth and yield. In Mediterranean‐type agroecosystems, N2 fixation may be impaired by drought, and it is unclear whether elevated [CO2] stimulation of N2 fixation can overcome this impact in dry years. To address this question, we grew lentil under two [CO2] (ambient ~400 ppm and elevated ~550 ppm) levels in a free‐air CO2 enrichment facility over two growing seasons sharply contrasting in rainfall. Elevated [CO2] stimulated N2 fixation through greater nodule number (+27%), mass (+18%), and specific fixation activity (+17%), and this stimulation was greater in the high than in the low rainfall/dry season. Elevated [CO2] depressed grain [N] (−4%) in the dry season. In contrast, grain [N] increased (+3%) in the high rainfall season under elevated [CO2], as a consequence of greater post‐flowering N2 fixation. Our results suggest that the benefit for N2 fixation from elevated [CO2] is high as long as there is enough soil water to continue N2 fixation during grain filling. Using a free‐air CO2 enrichment facility, this study found that elevated [CO2] stimulated N2 fixation in lentil through increasing number, mass, and specific activity of root nodules, but the effect was different between a low and high rainfall year. Only in the high rainfall year, N2 fixation continued until late in the season, and grain N concentration was maintained under elevated [CO2]. These findings suggest that elevated [CO2] stimulation of N2 fixation can optimize N supply to legume grains, but only if sufficient water maintains symbiotic fixation activity during the grain filling period.
doi_str_mv 10.1111/pce.13360
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Legumes through their symbiotic N2 fixation may be better able to maintain biomass [N] and grain [N] under elevated [CO2], provided N2 fixation is stimulated by elevated [CO2] in line with growth and yield. In Mediterranean‐type agroecosystems, N2 fixation may be impaired by drought, and it is unclear whether elevated [CO2] stimulation of N2 fixation can overcome this impact in dry years. To address this question, we grew lentil under two [CO2] (ambient ~400 ppm and elevated ~550 ppm) levels in a free‐air CO2 enrichment facility over two growing seasons sharply contrasting in rainfall. Elevated [CO2] stimulated N2 fixation through greater nodule number (+27%), mass (+18%), and specific fixation activity (+17%), and this stimulation was greater in the high than in the low rainfall/dry season. Elevated [CO2] depressed grain [N] (−4%) in the dry season. In contrast, grain [N] increased (+3%) in the high rainfall season under elevated [CO2], as a consequence of greater post‐flowering N2 fixation. Our results suggest that the benefit for N2 fixation from elevated [CO2] is high as long as there is enough soil water to continue N2 fixation during grain filling. Using a free‐air CO2 enrichment facility, this study found that elevated [CO2] stimulated N2 fixation in lentil through increasing number, mass, and specific activity of root nodules, but the effect was different between a low and high rainfall year. Only in the high rainfall year, N2 fixation continued until late in the season, and grain N concentration was maintained under elevated [CO2]. 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source Wiley Free Content; EZB-FREE-00999 freely available EZB journals; Wiley Online Library All Journals
subjects Agricultural ecosystems
Biomass
Carbon dioxide
Carbon dioxide fixation
Carbon sequestration
climate change
Drought
Dry season
Enrichment
Flowering
Grain
grain protein
legume
Legumes
Moisture content
N acquisition (fixation vs. uptake)
Nitrogenation
nodule
Plants (botany)
Rainfall
Seasons
Soil water
Stimulation
Water availability
title Water availability moderates N2 fixation benefit from elevated [CO2]: A 2‐year free‐air CO2 enrichment study on lentil (Lens culinaris MEDIK.) in a water limited agroecosystem
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