Fate of nitrogen and phosphorus from source-separated human urine in a calcareous soil

Human urine concentrates 88% of the nitrogen and 50% of the phosphorus excreted by humans, making it a potential alternative crop fertilizer. However, knowledge gaps remain on the fate of nitrogen in situations favouring NH 3 volatilization and on the availability of P from urine in soils. This stud...

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Veröffentlicht in:Environmental science and pollution research international 2023-05, Vol.30 (24), p.65440-65454
Hauptverfasser: Rumeau, Manon, Marsden, Claire, Ait-Mouheb, Nassim, Crevoisier, David, Pistocchi, Chiara
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Marsden, Claire
Ait-Mouheb, Nassim
Crevoisier, David
Pistocchi, Chiara
description Human urine concentrates 88% of the nitrogen and 50% of the phosphorus excreted by humans, making it a potential alternative crop fertilizer. However, knowledge gaps remain on the fate of nitrogen in situations favouring NH 3 volatilization and on the availability of P from urine in soils. This study aimed at identifying the fate of nitrogen and phosphorus supplied by human urine from source separation toilets in a calcareous soil. To this end, a spinach crop was fertilized with 2 different doses of human urine (170 kgN ha −1  + 8.5 kgP ha −1 and 510 kgN ha −1  + 25.5 kgP ha −1 ) and compared with a synthetic fertilizer treatment (170 kgN ha −1  + 8.5 kgP ha −1 ) and an unfertilized control. The experiment was conducted in 4 soil tanks (50-cm depth) in greenhouse conditions, according to a randomized block scheme. We monitored soil mineral nitrogen over time and simulated nitrogen volatilization using Hydrus-1D and Visual Minteq softwares. We also monitored soil phosphorus pools, carbon, nitrogen and phosphorus (CNP) in microbial biomass, soil pH and electrical conductivity. Only an excessive input of urine affected soil pH (decreasing it by 0.2 units) and soil conductivity (increasing it by 183%). The phosphorus supplied was either taken up by the crop or remained mostly in the available P pool, as demonstrated by a net increase of the resin and bicarbonate extractable P. Ammonium seemed to be nitrified within about 10 days after application. However, both Visual Minteq and Hydrus models estimated that more than 50% of the nitrogen supplied was lost by ammonia volatilization. Overall, our results indicate that direct application of urine to a calcareous soil provides available nutrients for plant growth, but that heavy losses of volatilized nitrogen are to be expected. Our results also question whether long-term application could affect soil pH and salinity. Graphical Abstract
doi_str_mv 10.1007/s11356-023-26895-5
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However, knowledge gaps remain on the fate of nitrogen in situations favouring NH 3 volatilization and on the availability of P from urine in soils. This study aimed at identifying the fate of nitrogen and phosphorus supplied by human urine from source separation toilets in a calcareous soil. To this end, a spinach crop was fertilized with 2 different doses of human urine (170 kgN ha −1  + 8.5 kgP ha −1 and 510 kgN ha −1  + 25.5 kgP ha −1 ) and compared with a synthetic fertilizer treatment (170 kgN ha −1  + 8.5 kgP ha −1 ) and an unfertilized control. The experiment was conducted in 4 soil tanks (50-cm depth) in greenhouse conditions, according to a randomized block scheme. We monitored soil mineral nitrogen over time and simulated nitrogen volatilization using Hydrus-1D and Visual Minteq softwares. We also monitored soil phosphorus pools, carbon, nitrogen and phosphorus (CNP) in microbial biomass, soil pH and electrical conductivity. Only an excessive input of urine affected soil pH (decreasing it by 0.2 units) and soil conductivity (increasing it by 183%). The phosphorus supplied was either taken up by the crop or remained mostly in the available P pool, as demonstrated by a net increase of the resin and bicarbonate extractable P. Ammonium seemed to be nitrified within about 10 days after application. However, both Visual Minteq and Hydrus models estimated that more than 50% of the nitrogen supplied was lost by ammonia volatilization. Overall, our results indicate that direct application of urine to a calcareous soil provides available nutrients for plant growth, but that heavy losses of volatilized nitrogen are to be expected. Our results also question whether long-term application could affect soil pH and salinity. 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ispartof Environmental science and pollution research international, 2023-05, Vol.30 (24), p.65440-65454
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source MEDLINE; Springer Nature - Complete Springer Journals
subjects Agriculture
Agrochemicals
Alternative crops
Ammonia
Ammonia - analysis
Ammonium
Aquatic Pollution
Atmospheric Protection/Air Quality Control/Air Pollution
Availability
Bicarbonates
Calcareous soils
carbon
Crops
Earth and Environmental Science
Ecotoxicology
Electrical conductivity
Electrical resistivity
Environment
Environmental Chemistry
Environmental Health
Environmental science
Environmental Sciences
fertilizer application
Fertilizers
Fertilizers - analysis
greenhouses
Human wastes
Humans
microbial biomass
Microorganisms
Nitrogen
Nitrogen - analysis
Nutrient availability
Nutrients
Phosphorus
Plant growth
Research Article
salinity
Soil
Soil chemistry
Soil conductivity
soil minerals
Soil pH
Soils
spinach
Toilets
Urine
Vaporization
Volatilization
Waste Water Technology
Water Management
Water Pollution Control
title Fate of nitrogen and phosphorus from source-separated human urine in a calcareous soil
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