A Simulation Model of Combined Biogas, Bioethanol and Protein Fodder Co-Production in Organic Farming

Piotr Oleskowicz-Popiel, Mette Hedegaard Thomsen, Anne Belinda Thomsen, Jens Ejbye Schmidt

    Research output: Contribution to journalJournal articleResearchpeer-review

    Abstract

    In order to evaluate new strategies for the production of renewable energy within sustainable organic agriculture, a process-simulation model for a 100 ha organic farm was developed. Data used for the model was obtained from laboratory trials, literature data, consultancy with experts, and results from the BioConcens project (http://www.bioconcens.elr.dk). Different design approaches were evaluated in order to establish the most suitable configuration. Rye grains, clover grass silage, maize silage, whey and cattle manure were selected as raw materials for co-production of fuels, feed and fertilizer at the organic farm, based on the fact that crops grown in organic agriculture act as key carbon sources whereas manure and whey were applied primarily as the nutrient and water supply for the fermentations within the process (anaerobic digestion and simultaneous saccharification and fermentation, respectively). Results from batch and lab-scale fermentation trials provided basic input for the model. To cover the direct energy requirements on the farm, it was calculated that it requires approximately 16.2 ha of rye and 14 milking cows or 5.7 ha of clover grass, 2.5 ha of maize and 13 cows to supply a 100 ha organic farm with ethanol or biogas, respectively. This calculation was based on the assumption that the electrical efficiency of CHP (combined heat and power) unit was 38%. A variety of different scenarios can be simulated to mirror the farmer's needs.
    Original languageEnglish
    JournalInternational Journal of Chemical Reactor Engineering
    Volume7
    Issue number1
    Pages (from-to)A71
    ISSN1542-6580
    DOIs
    Publication statusPublished - 2009

    Keywords

    • Bio energy
    • Bioenergy and biomass

    Cite this

    Oleskowicz-Popiel, Piotr ; Thomsen, Mette Hedegaard ; Thomsen, Anne Belinda ; Schmidt, Jens Ejbye. / A Simulation Model of Combined Biogas, Bioethanol and Protein Fodder Co-Production in Organic Farming. In: International Journal of Chemical Reactor Engineering. 2009 ; Vol. 7, No. 1. pp. A71.
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    abstract = "In order to evaluate new strategies for the production of renewable energy within sustainable organic agriculture, a process-simulation model for a 100 ha organic farm was developed. Data used for the model was obtained from laboratory trials, literature data, consultancy with experts, and results from the BioConcens project (http://www.bioconcens.elr.dk). Different design approaches were evaluated in order to establish the most suitable configuration. Rye grains, clover grass silage, maize silage, whey and cattle manure were selected as raw materials for co-production of fuels, feed and fertilizer at the organic farm, based on the fact that crops grown in organic agriculture act as key carbon sources whereas manure and whey were applied primarily as the nutrient and water supply for the fermentations within the process (anaerobic digestion and simultaneous saccharification and fermentation, respectively). Results from batch and lab-scale fermentation trials provided basic input for the model. To cover the direct energy requirements on the farm, it was calculated that it requires approximately 16.2 ha of rye and 14 milking cows or 5.7 ha of clover grass, 2.5 ha of maize and 13 cows to supply a 100 ha organic farm with ethanol or biogas, respectively. This calculation was based on the assumption that the electrical efficiency of CHP (combined heat and power) unit was 38{\%}. A variety of different scenarios can be simulated to mirror the farmer's needs.",
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    author = "Piotr Oleskowicz-Popiel and Thomsen, {Mette Hedegaard} and Thomsen, {Anne Belinda} and Schmidt, {Jens Ejbye}",
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    A Simulation Model of Combined Biogas, Bioethanol and Protein Fodder Co-Production in Organic Farming. / Oleskowicz-Popiel, Piotr; Thomsen, Mette Hedegaard; Thomsen, Anne Belinda; Schmidt, Jens Ejbye.

    In: International Journal of Chemical Reactor Engineering, Vol. 7, No. 1, 2009, p. A71.

    Research output: Contribution to journalJournal articleResearchpeer-review

    TY - JOUR

    T1 - A Simulation Model of Combined Biogas, Bioethanol and Protein Fodder Co-Production in Organic Farming

    AU - Oleskowicz-Popiel, Piotr

    AU - Thomsen, Mette Hedegaard

    AU - Thomsen, Anne Belinda

    AU - Schmidt, Jens Ejbye

    PY - 2009

    Y1 - 2009

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    AB - In order to evaluate new strategies for the production of renewable energy within sustainable organic agriculture, a process-simulation model for a 100 ha organic farm was developed. Data used for the model was obtained from laboratory trials, literature data, consultancy with experts, and results from the BioConcens project (http://www.bioconcens.elr.dk). Different design approaches were evaluated in order to establish the most suitable configuration. Rye grains, clover grass silage, maize silage, whey and cattle manure were selected as raw materials for co-production of fuels, feed and fertilizer at the organic farm, based on the fact that crops grown in organic agriculture act as key carbon sources whereas manure and whey were applied primarily as the nutrient and water supply for the fermentations within the process (anaerobic digestion and simultaneous saccharification and fermentation, respectively). Results from batch and lab-scale fermentation trials provided basic input for the model. To cover the direct energy requirements on the farm, it was calculated that it requires approximately 16.2 ha of rye and 14 milking cows or 5.7 ha of clover grass, 2.5 ha of maize and 13 cows to supply a 100 ha organic farm with ethanol or biogas, respectively. This calculation was based on the assumption that the electrical efficiency of CHP (combined heat and power) unit was 38%. A variety of different scenarios can be simulated to mirror the farmer's needs.

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    KW - Bioenergy and biomass

    KW - Bioenergi

    KW - Biomasse og bioenergi

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    SN - 1542-6580

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