Maximising municipal solid waste – Legume trimming residue mixture degradation in composting by control parameters optimization

Composting is one of the most successful biological processes for the treatment of the residues enriched in putrescible materials. The optimization of parameters which have an influence on the stability of the products is necessary in order to maximize recycling and recovery of waste components. The...

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Veröffentlicht in:Journal of environmental management 2013-10, Vol.128, p.266-273
Hauptverfasser: Cabeza, I.O., López, R., Ruiz-Montoya, M., Díaz, M.J.
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creator Cabeza, I.O.
López, R.
Ruiz-Montoya, M.
Díaz, M.J.
description Composting is one of the most successful biological processes for the treatment of the residues enriched in putrescible materials. The optimization of parameters which have an influence on the stability of the products is necessary in order to maximize recycling and recovery of waste components. The influence of the composting process parameters (aeration, moisture, C/N ratio, and time) on the stability parameters (organic matter, N-losses, chemical oxygen demand, nitrate, biodegradability coefficient) of the compost was studied. The composting experiment was carried out using Municipal Solid Waste (MSW) and Legume Trimming Residues (LTR) in 200 L isolated acrylic barrels following a Box-Behnken central composite experimental design. Second-order polynomial models were found for each of the studied compost stability parameter, which accurately described the relationship between the parameters. The differences among the experimental values and those estimated by using the equations never exceeded 10% of the former. Results of the modelling showed that excluding the time, the C/N ratio is the strongest variable influencing almost all the stability parameters studied in this case, with the exception of N-losses which is strongly dependent on moisture. Moreover, an optimized ratio MSW/LTR of 1/1 (w/w), moisture content in the range of 40–55% and moderate to low aeration rate (0.05–0.175 Lair kg−1 min−1) is recommended to maximise degradation and to obtain a stable product during co-composting of MSW and LTR. •Co-composting MSW and Legume Residues (LTR) is evaluated using control parameters.•Polynomial models for organic matter, N-losses, and biodegradability are obtained.•C/N ratio is the strongest variable influencing the stability parameters of products.•Moisture is the parameter which has the strongest effect on N-losses.•A ratio MSW/LTR of 1/1 (w/w) is recommended to maximise degradation.
doi_str_mv 10.1016/j.jenvman.2013.05.030
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The optimization of parameters which have an influence on the stability of the products is necessary in order to maximize recycling and recovery of waste components. The influence of the composting process parameters (aeration, moisture, C/N ratio, and time) on the stability parameters (organic matter, N-losses, chemical oxygen demand, nitrate, biodegradability coefficient) of the compost was studied. The composting experiment was carried out using Municipal Solid Waste (MSW) and Legume Trimming Residues (LTR) in 200 L isolated acrylic barrels following a Box-Behnken central composite experimental design. Second-order polynomial models were found for each of the studied compost stability parameter, which accurately described the relationship between the parameters. The differences among the experimental values and those estimated by using the equations never exceeded 10% of the former. 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Moreover, an optimized ratio MSW/LTR of 1/1 (w/w), moisture content in the range of 40–55% and moderate to low aeration rate (0.05–0.175 Lair kg−1 min−1) is recommended to maximise degradation and to obtain a stable product during co-composting of MSW and LTR. •Co-composting MSW and Legume Residues (LTR) is evaluated using control parameters.•Polynomial models for organic matter, N-losses, and biodegradability are obtained.•C/N ratio is the strongest variable influencing the stability parameters of products.•Moisture is the parameter which has the strongest effect on N-losses.•A ratio MSW/LTR of 1/1 (w/w) is recommended to maximise degradation.</description><subject>aeration</subject><subject>Animal, plant and microbial ecology</subject><subject>Applied ecology</subject><subject>barrels</subject><subject>biodegradability</subject><subject>Biodegradation</subject><subject>Biodegradation, Environmental</subject><subject>Biological and medical sciences</subject><subject>Biological Oxygen Demand Analysis</subject><subject>Carbon - metabolism</subject><subject>chemical oxygen demand</subject><subject>compost stability</subject><subject>Composting</subject><subject>Composting optimization</subject><subject>Conservation, protection and management of environment and wildlife</subject><subject>Crop residues</subject><subject>Degradation</subject><subject>equations</subject><subject>experimental design</subject><subject>Fabaceae - metabolism</subject><subject>Fundamental and applied biological sciences. 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The optimization of parameters which have an influence on the stability of the products is necessary in order to maximize recycling and recovery of waste components. The influence of the composting process parameters (aeration, moisture, C/N ratio, and time) on the stability parameters (organic matter, N-losses, chemical oxygen demand, nitrate, biodegradability coefficient) of the compost was studied. The composting experiment was carried out using Municipal Solid Waste (MSW) and Legume Trimming Residues (LTR) in 200 L isolated acrylic barrels following a Box-Behnken central composite experimental design. Second-order polynomial models were found for each of the studied compost stability parameter, which accurately described the relationship between the parameters. The differences among the experimental values and those estimated by using the equations never exceeded 10% of the former. Results of the modelling showed that excluding the time, the C/N ratio is the strongest variable influencing almost all the stability parameters studied in this case, with the exception of N-losses which is strongly dependent on moisture. Moreover, an optimized ratio MSW/LTR of 1/1 (w/w), moisture content in the range of 40–55% and moderate to low aeration rate (0.05–0.175 Lair kg−1 min−1) is recommended to maximise degradation and to obtain a stable product during co-composting of MSW and LTR. •Co-composting MSW and Legume Residues (LTR) is evaluated using control parameters.•Polynomial models for organic matter, N-losses, and biodegradability are obtained.•C/N ratio is the strongest variable influencing the stability parameters of products.•Moisture is the parameter which has the strongest effect on N-losses.•A ratio MSW/LTR of 1/1 (w/w) is recommended to maximise degradation.</abstract><cop>Kidlington</cop><pub>Elsevier Ltd</pub><pmid>23764508</pmid><doi>10.1016/j.jenvman.2013.05.030</doi><tpages>8</tpages></addata></record>
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subjects aeration
Animal, plant and microbial ecology
Applied ecology
barrels
biodegradability
Biodegradation
Biodegradation, Environmental
Biological and medical sciences
Biological Oxygen Demand Analysis
Carbon - metabolism
chemical oxygen demand
compost stability
Composting
Composting optimization
Conservation, protection and management of environment and wildlife
Crop residues
Degradation
equations
experimental design
Fabaceae - metabolism
Fundamental and applied biological sciences. Psychology
General aspects
General aspects. Techniques
Legume trimming residue
Legumes
Mathematical models
Methods and techniques (sampling, tagging, trapping, modelling...)
Modelling
Models, Theoretical
Moisture
Moisture content
Municipal solid waste
Nitrates
Nitrogen - metabolism
organic matter
Recycling
Residues
Soil
Solid Waste
Solid waste management
Stability
Waste Management - methods
water content
title Maximising municipal solid waste – Legume trimming residue mixture degradation in composting by control parameters optimization
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