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Parental simulated nitrogen deposition has little effect on offspring growth and clonal propagation of Phragmites australis Simulated nitrogen deposition enhanced the growth of parental Phragmites australis, yet its transgenerational effects on offspring growth and clonal propag

【🎉Latest accepted article】
Parental simulated #NitrogenDeposition has little effect on offspring growth and clonal propagation of Phragmites australis

#CommonReed | #CumulativeEffect | #GenotypicVariation | #LegacyEffect | #MaternalEffect

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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The difference in soil acid phosphatase activity between two artificial forests dominated by #LeguminousSpecies and non-leguminous species gradually disappeared after long-term #NitrogenDeposition, and high nitrogen addition accelerated this process in a #SubtropicalForest.

doi.org/10.1093/jpe/...

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【🎉Latest accepted article】
#IncreasingPrecipitation exacerbates the negative effect of nitrogen addition on diversity of semi-arid steppe early in the growing season

#CommunityComposition | #FunctionalDiversity | #Grassland | #NitrogenDeposition

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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The final structural equation model relating nitrogen (N) addition, drought, species asynchrony, leaf area of dominant species, dominant species productivity stability (DSPS) and dominant species compositional stability (DSCS) to grassland community compositional and productivity stability under scenarios of (a) intense drought (ID), (c) chronic drought (CD), and (e) reduced precipitation frequency (RF).

The final structural equation model relating nitrogen (N) addition, drought, species asynchrony, leaf area of dominant species, dominant species productivity stability (DSPS) and dominant species compositional stability (DSCS) to grassland community compositional and productivity stability under scenarios of (a) intense drought (ID), (c) chronic drought (CD), and (e) reduced precipitation frequency (RF).

#IntenseDrought and #ChronicDrought both reduced the #ProductivityStability without altering #CompositionalStability of the typical steppe, while reduced precipitation frequency had the opposite effect.

#DominantStability | #NitrogenDeposition | #PrecipitationRedistribution

doi.org/10.1093/jpe/...

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How does nitrogen reshape litter decomposition? 🌲
A long-term study shows stage-specific microbial shifts, with high N-reducing bacterial stability but increasing fungal persistence.
🔗 link.springer.com/article/10.1...
#ForestEcology #NitrogenDeposition #SoilMicrobes #JFR #forestry 🌐🍃🌿

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【🎉Latest accepted article】
Decoding nitrogen resilience in #Sphagnum palustre: #MicrobialSymbiosis and metabolic reprogramming under elevated #NitrogenDeposition

#Adaptation | #Multi-omicsAnalysis | #NitrogenMetabolism

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Nitrogen Deposition Significantly Altered the Climatic Sensitivity of Vegetation Phenology Abstract. Nitrogen deposition substantially alters nutrient absorption by plant root systems, which has far-reaching consequences for leaf growth and devel

【🎉Latest accepted article】
#NitrogenDeposition Significantly Altered the #ClimaticSensitivity of #VegetationPhenology

#CarbonCycle | #GlobalChange

@yunpeng-luo.bsky.social @mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Yuguang Ke et al. assessed the effects of the ratio of inorganic nitrogen to organic nitrogen on the temporal stability of plant community productivity in a temperate meadow #Grassland.

#DominantSpecies | #NitrogenDeposition | #NitrogenComposition

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Parallel patterns of microbial carbon and nitrogen use efficiency in response to nitrogen addition across soil depths in a Castanopsis faberi forest Abstract. Microbial carbon use efficiency (CUE) and nitrogen use efficiency (NUE) are key parameters that determine the fate of carbon (C) and nitrogen (N)

【🎉Latest accepted article】
Parallel patterns of microbial carbon and nitrogen use efficiency in response to nitrogen addition across #SoilDepths in a Castanopsis faberi forest

#NitrogenDeposition | #MicrobialGrowth

@pku1898.bsky.social @mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Ya-Jing Zhang et al. investigated the growth and metabolic responses of three clones under #NitrogenDeposition and contrasting phosphorus distributions in subtropical Chinese fir plantations.

#APaseActivity | #NutrientInteractions

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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【🎉Latest accepted article】
Long-term high #NitrogenDeposition accelerates the disappearance of the #Phosphorus-acquiringAdvantage of #LeguminousSpecies in a #SubtropicalForest

#PhosphorusLimitation

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Chao Wang et al. investigated the effects of simulated nighttime #Warming and atmospheric #NitrogenDeposition on the temperatures of shallow water, deep water, and sediment.

#FreshwaterWetlands | #GlobalChange | #Microclimate

@mapjournals.bsky.social

doi.org/10.1093/jpe/...

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Relationships between the stability of plant community ANPP and mean species richness (a), species asynchrony (b), population stability (c) and dominant species stability (d) across control (Cont) and N addition treatments with different IN:ON ratios.

Relationships between the stability of plant community ANPP and mean species richness (a), species asynchrony (b), population stability (c) and dominant species stability (d) across control (Cont) and N addition treatments with different IN:ON ratios.

📖 Different inorganic to organic nitrogen ratios (IN:ON) ➡️ Ecosystem stability 🟰 Effects❓

Results:
1️⃣ IN:ON ratio showed no significant effect on community stability.
2️⃣ IN decreased species richness more than ON.

#Grassland | #NitrogenDeposition | #NitrogenComposition

doi.org/10.1093/jpe/...

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Monthly mean wind speed, vapor pressure deficit (VPD) and solar radiation (a). Seasonal patterns of water turbidity (b) and vegetation cover (c) under the four treatments. Mean ± SE, n = 4. C: control, W: nighttime warming, N: nitrogen addition, WN: nighttime warming plus N addition.

Monthly mean wind speed, vapor pressure deficit (VPD) and solar radiation (a). Seasonal patterns of water turbidity (b) and vegetation cover (c) under the four treatments. Mean ± SE, n = 4. C: control, W: nighttime warming, N: nitrogen addition, WN: nighttime warming plus N addition.

❓Questions❓
1️⃣ #NighttimeWarming & #NitrogenDeposition ➡️ Temperatures🌡️ of shallow water & deep water & sediment🌊
2️⃣ #Microclimate ➡️ Wetland carbon cycles🔄

Results:
Nighttime warming had an impact on it, while nitrogen deposition had no effect.

#FreshwaterWetlands

doi.org/10.1093/jpe/...

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Effects of nitrogen (N) deposition in homogeneous and heterogeneous phosphorus (P) distribution environment on the relative abundance of specific organic acids composition (a). (b–e) All volcano plots that illustrate the significant differences and abundance changes of each organic acid. (a) Specific organic acids are represented by different colors for easy of identification. (b–e) The horizontal axis represents the log-fold changes in the relative abundance of organic acids, while the vertical axis indicates the significance level, expressed as a log-transformed P-value.

Effects of nitrogen (N) deposition in homogeneous and heterogeneous phosphorus (P) distribution environment on the relative abundance of specific organic acids composition (a). (b–e) All volcano plots that illustrate the significant differences and abundance changes of each organic acid. (a) Specific organic acids are represented by different colors for easy of identification. (b–e) The horizontal axis represents the log-fold changes in the relative abundance of organic acids, while the vertical axis indicates the significance level, expressed as a log-transformed P-value.

🌳 #NitrogenDeposition ➕ phosphorus distribution patterns ➡️ root adaptation

Results:
1️⃣ N deposition restructures root foraging strategies along a “morphological-enzymatic” axis;
2️⃣ P-efficient clones exploit spatial nutrient heterogeneity through root proliferation.

doi.org/10.1093/jpe/...

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Effects on leaf mass per area (LMA, a), tannin (b), and phenolics (c) in both EU and AA from long-term N addition.

Effects on leaf mass per area (LMA, a), tannin (b), and phenolics (c) in both EU and AA from long-term N addition.

💭 Long-term #NitrogenDeposition ➡️ leaf traits of #PlantationTree species in #SouthChina

Results:
long-term N addition →
coupling between carbon and water⬆️ →
C allocation shift →
1️⃣ Eucalyptus urophylla: conservative #Defense
2️⃣ Acacia auriculiformis: active defense

doi.org/10.1093/jpe/...

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Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness   = 35.62, p < 0.001; total abundance   = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness = 35.62, p < 0.001; total abundance = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

#NitrogenDeposition reduces #arthropod species richness & abundance, threatening #biodiversity. This study shows that natural & semi-natural habitats can buffer against these losses, emphasizing their #conservation value in mitigating N deposition’s adverseeffects @plosbiology.org 🧪 plos.io/4o3RKOO

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Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness   = 35.62, p < 0.001; total abundance   = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness = 35.62, p < 0.001; total abundance = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

#NitrogenDeposition reduces #arthropod species richness & abundance, threatening #biodiversity. This study shows that natural & semi-natural habitats can buffer against these losses, emphasizing their #conservation value in mitigating N deposition’s adverseeffects @plosbiology.org 🧪 plos.io/4o3RKOO

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Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness   = 35.62, p < 0.001; total abundance   = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

Top: The distribution of sites from the PREDICTS database and the level of total N deposition. The size of the point represents the number of sites per study (Nsites). The change from blue to orange indicates the increase in the total amount of atmospheric N deposition. N deposition values were loge-transformed, with N deposition ranging from 0.8 mg N m−2 yr−1 to 7960.0 mg N m−2 yr−1. Bottom: The response of arthropod species richness (bottom left) and total abundance (bottom right) to the interaction of N deposition and land use. Likelihood ratio test of the interactive effect of N deposition and land use: species richness = 35.62, p < 0.001; total abundance = 30.68, p < 0.001. Values represent the percentage difference compared with Primary vegetation sites with the 2.5th percentile value of total N deposition. The lines with different colors represent the median predicted value for each land-use type, with shaded areas representing the 95% confidence intervals. The results are predicted across 95% of the range of N deposition values for each land-use type.

#NitrogenDeposition reduces #arthropod species richness & abundance, threatening #biodiversity. This study shows that natural & semi-natural habitats can buffer against these losses, emphasizing their #conservation value in mitigating N deposition’s adverseeffects @plosbiology.org 🧪 plos.io/4o3RKOO

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Conceptual framework explaining mechanisms underlying the temperature (T) and nitrogen (N) effects on the plant.

Conceptual framework explaining mechanisms underlying the temperature (T) and nitrogen (N) effects on the plant.

【💡High Cited 2020-2022 】
Interactive effect of #ClimateWarming and #NitrogenDeposition may shift the dynamics of native and invasive species

Control species:
#SolidagoCanadensis L. & Artemisia argyi Levl. et Van

#BiologicalInvasion | #RelativeChange

doi.org/10.1093/jpe/...

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(a) Soil pH, (b) AN, (c) AP and (d) root APase activity of S. rehderiana and A. fabri under N addition (n = 4).

(a) Soil pH, (b) AN, (c) AP and (d) root APase activity of S. rehderiana and A. fabri under N addition (n = 4).

(a) GRIB, (b) RS, (c) root diameter, (d) SRL, (e) SRA, (f) RMD, (g) CEB, root exudation rate per biomass and (h) CEL, root exudation rate per length of S. rehderiana and A. fabri under N addition (n = 4).

(a) GRIB, (b) RS, (c) root diameter, (d) SRL, (e) SRA, (f) RMD, (g) CEB, root exudation rate per biomass and (h) CEL, root exudation rate per length of S. rehderiana and A. fabri under N addition (n = 4).

【EDITOR'S CHOICE】
Exploring #PlantAdaptationStrategies to #PhosphorusLimitation induced by #NitrogenAddition: foliar phosphorus allocation and #RootFunctionalTraits analysis in two dominant subalpine tree species

#NitrogenDeposition | #RootMorphology | #RootExudation

doi.org/10.1093/jpe/...

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The study aimed to thoroughly investigate the effects of #NitrogenDeposition on the growth, #ChlorophyllFluorescence and yield of #ZanthoxylumBungeanumMaxim. in both monoculture and intercropping systems with #CapsicumAnnuum L. and #GlycineMax.
Details: doi.org/10.1093/jpe/...

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Soil elemental cycles become more coupled in response to ... Background and aims Increased N deposition can break the ...

New NIOO publication: #Soil elemental cycles become more coupled in response to increased #nitrogendeposition in a #semiarid #shrubland, by @rochoahueso and others. #elementalcoupling #nutrientavailability #nutrients
https://doi.org/10.1007/s11104-024-06644-4

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New NIOO publication: Towards a mechanistic understanding of the impacts of #NitrogenDeposition on producer–consumer interactions, by @DedmerW and others. #insectdecline #eutrophication #trophicmismatch #globalchange #stoichiometry #nutrition
https://doi.org/10.1111/brv.12972

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New NIOO publication: Contrasting effects of nitrogen fertiliser application on the performance of closely related #grasshoppers through changes in plant nutrient concentrations, by @Jeffrey75327765 @CiskaVeen and others. #plantquality #nitrogendeposition...

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Farming is main source of nitrogen in the environment causing change. How can farmers reduce effects? @JNCC_UK #NitrogenDeposition workshop

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