Pulse Brain · Growing Health Evidence Index
Tier 3 — Observational / field trialPeer-reviewed

Quantifying N2O reduction to N2 during denitrification in soils via isotopic mapping approach: Model evaluation and uncertainty analysis

Di Wu, Reinhard Well, L. M. Cardenas, Roland Fuß, Dominika Lewicka‐Szczebak, Jan Reent Köster, Nicolas Brüggemann, Roland Bol

Environmental Research · 2019

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Summary

This methodological paper presents an isotopic mapping approach to quantify the extent of nitrous oxide reduction to dinitrogen during soil denitrification. Using multi-isotopic analysis across diverse soil conditions, the authors evaluated model robustness and characterised measurement uncertainty. The work addresses a methodological gap relevant to understanding nutrient cycling efficiency and the greenhouse gas mitigation potential of soil systems, as suggested by the paper's focus on incomplete denitrification quantification.

UK applicability

The isotopic methodology developed here is applicable to UK soils and could support more accurate quantification of denitrification pathways in British agricultural and managed systems. Given the UK's commitments to greenhouse gas reduction, improved measurement of soil N2O reduction efficiency would be relevant to agricultural emissions monitoring and mitigation policy.

Key measures

Proportional reduction of N2O to N2 during denitrification; multi-isotopic analysis; model uncertainty; soil denitrification efficiency

Outcomes reported

The study developed and evaluated an isotopic mapping approach to quantify the proportion of nitrous oxide reduced to dinitrogen gas during soil denitrification across diverse soil conditions. The work characterised measurement uncertainty and model robustness to support more accurate assessment of incomplete denitrification pathways.

Theme
Measurement & metrics
Subject
Soil biology & microbiology
Study type
Research
Study design
Methodological study
Source type
Peer-reviewed study
Status
Published
Geography
Europe
System type
Laboratory / in vitro
DOI
10.1016/j.envres.2019.108806
Catalogue ID
BFmovi1pkk-4ozj7y

Topic tags

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