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Improved Organic Fertilisers Made from Combinations of Compost, Biochar, and Anaerobic Digestate: Evaluation of Maize Growth and Soil Metrics

Author

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  • Noemí Ortiz-Liébana

    (Chemical, Environmental and Bioprocess Engineering Group, Institute of Environment, Natural Resources and Biodiversity, University of León, Av. Portugal, 41, 24009 León, Spain)

  • Andrea Crespo-Barreiro

    (Chemical, Environmental and Bioprocess Engineering Group, Institute of Environment, Natural Resources and Biodiversity, University of León, Av. Portugal, 41, 24009 León, Spain)

  • Ismael Mazuecos-Aguilera

    (Chemical, Environmental and Bioprocess Engineering Group, Institute of Environment, Natural Resources and Biodiversity, University of León, Av. Portugal, 41, 24009 León, Spain)

  • Fernando González-Andrés

    (Chemical, Environmental and Bioprocess Engineering Group, Institute of Environment, Natural Resources and Biodiversity, University of León, Av. Portugal, 41, 24009 León, Spain)

Abstract

Treated bio-residues can be used as biostimulants in crops within the circular economy approach to reduce the use of traditional fertilisers. In this work, we optimised the combination rates for three types of treated bio-residues (compost, biochar, and anaerobic digestate (AD)) in two microcosm trials, one with a combination of compost and biochar and other with biochar and AD. The crop used was maize, and the variables analysed were plant growth, and soil chemical and biological properties. The combination of bio-residues improved plant growth and soil biological activity to a greater extent than one product alone; that is, compost and biochar performed better than compost alone and biochar, and AD performed better than biochar alone. However, while the concentration in the plant biomass of several essential nutrients for crops increased in the treatments with compost and biochar, and with biochar and AD, compared to the untreated controls, the nitrogen concentration was reduced. This was due to the competition for nitrogen between the plant and the soil microbiome, whose activity was activated. Due to the importance of nitrogen in plant growth, the increase in biomass production could be explained not only by the higher availability of other nutrients but also by the plant-growth-promoting activity exerted by the more active soil microbiome. Further research should focus on validating this hypothesis and unravelling the mechanisms involved. From the environmental site, the presence of biochar in the mixtures of organic residues reduced the soil nitrogen at risk of lixiviation and sequestered carbon, which partially compensated for the increased CO 2 emissions because labile forms of carbon were present in the remaining organic residues.

Suggested Citation

  • Noemí Ortiz-Liébana & Andrea Crespo-Barreiro & Ismael Mazuecos-Aguilera & Fernando González-Andrés, 2023. "Improved Organic Fertilisers Made from Combinations of Compost, Biochar, and Anaerobic Digestate: Evaluation of Maize Growth and Soil Metrics," Agriculture, MDPI, vol. 13(8), pages 1-19, August.
  • Handle: RePEc:gam:jagris:v:13:y:2023:i:8:p:1557-:d:1210369
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    References listed on IDEAS

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    1. Ugo De Corato, 2020. "Towards New Soil Management Strategies for Improving Soil Quality and Ecosystem Services in Sustainable Agriculture: Editorial Overview," Sustainability, MDPI, vol. 12(22), pages 1-5, November.
    2. Alexander Wezel & Margriet Goris & Janneke Bruil & Georges F. Félix & Alain Peeters & Paolo Bàrberi & Stéphane Bellon & Paola Migliorini, 2018. "Challenges and Action Points to Amplify Agroecology in Europe," Sustainability, MDPI, vol. 10(5), pages 1-12, May.
    3. Andrea Crespo-Barreiro & Natalia Gómez & Judith González-Arias & Noemí Ortiz-Liébana & Fernando González-Andrés & Jorge Cara-Jiménez, 2023. "Scaling-Up of the Production of Biochar from Olive Tree Pruning for Agricultural Use: Evaluation of Biochar Characteristics and Phytotoxicity," Agriculture, MDPI, vol. 13(5), pages 1-14, May.
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