Methane production and fertilizing value of organic waste: Organic matter characterization for a better prediction of valorization pathways

[Display omitted] •Fractionation and fluorescence data allowed the best prediction of biodegradability.•Differences and similarities are observed on the variables impact on predictions.•Humic-like fraction has a negative impact on BMP but not on soil mineralized carbon.•Actuators identification can...

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Veröffentlicht in:Bioresource technology 2017-10, Vol.241, p.1012-1021
Hauptverfasser: Jimenez, Julie, Lei, Han, Steyer, Jean-Philippe, Houot, Sabine, Patureau, Dominique
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container_end_page 1021
container_issue
container_start_page 1012
container_title Bioresource technology
container_volume 241
creator Jimenez, Julie
Lei, Han
Steyer, Jean-Philippe
Houot, Sabine
Patureau, Dominique
description [Display omitted] •Fractionation and fluorescence data allowed the best prediction of biodegradability.•Differences and similarities are observed on the variables impact on predictions.•Humic-like fraction has a negative impact on BMP but not on soil mineralized carbon.•Actuators identification can be found to control valorization ways. Organic wastes are potential sources of both energy as well as crop production fertilizers. Correlations and models, involving organic matter characterization, have been previously described by several authors although there is still a lack in knowledge on the potential of simultaneous predictions of methane and organic fertilizer quality to optimize the wastes treatments. A methodology combining chemical accessibility and fluorescence spectroscopy was used to characterize 82 different organic wastes. Characterization data were compared with the biochemical methane potential (BMP), and with the biodegradable organic carbon obtained by soil incubation (C_bio). High correlations values were observed (R2 of 0.818 for BMP and 0.845 for C_bio). Model coefficients highlighted the differences and similarities between anaerobic and aerobic soil biodegradation, suggesting that anaerobic recalcitrant molecules could enhance soil fertility. This is a first step in the development of a tool for optimising both types of valorisation according to agrosystem needs and constraints.
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subjects Accessibility
Biodegradability
Biodegradation, Environmental
Carbon
Fertilizers
Fluorescence
Life Sciences
Methane
Methane production
Soil
title Methane production and fertilizing value of organic waste: Organic matter characterization for a better prediction of valorization pathways
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