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Economic assessment of biogas-to-electricity generation system with H2S removal by activated carbon in small pig farm

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  • Pipatmanomai, Suneerat
  • Kaewluan, Sommas
  • Vitidsant, Tharapong

Abstract

This study was conducted to assess the economic feasibility of electricity generation from biogas in small pig farms with and without the H2S removal prior to biogas utilisation. The 2% potassium iodide (KI) impregnated activated carbon selected as H2S adsorbent was introduced to a biogas-to-electricity generation system in a small pig farm in Thailand as a case study. With the average inlet H2S concentration of about 2400Â ppm to the adsorption unit, the H2S removal efficiency could reach 100% with the adsorption capacity of 0.062Â kg of H2S/kg of adsorbent. Under the reference scenario (i.e., 45% subsidy on digester installation and fixed electricity price at 0.06Â Euro/kWh) and based on an assumption that the biogas was fully utilised for electricity generation in the system, the payback period for the system without H2S removal was about 4 years. With H2S removal, the payback period was within the economic life of digester but almost twice that of the case without H2S removal. The impact of electricity price could be clearly seen for the case of treated biogas. At the electricity price fixed at 0.07Â Euro/kWh, the payback period for the case of treated biogas was reduced to about 5.5 years, with a trend to decrease at higher electricity prices. For both treated and untreated biogas, the governmental subsidy was the important factor determining the economics of the biogas-to-electricity systems. Without subsidy, the payback period increased to almost 7 years and about 11 years for the case of untreated and treated biogas, respectively, at the reference electricity price. Although the H2S removal added high operation cost to the system, it is still highly recommended not only for preventing engine corrosion but also for the environment benefit in which air pollution by H2S/SO2 emission and impact on human health could be potentially reduced.

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  • Pipatmanomai, Suneerat & Kaewluan, Sommas & Vitidsant, Tharapong, 2009. "Economic assessment of biogas-to-electricity generation system with H2S removal by activated carbon in small pig farm," Applied Energy, Elsevier, vol. 86(5), pages 669-674, May.
  • Handle: RePEc:eee:appene:v:86:y:2009:i:5:p:669-674
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    1. Kapdi, S.S. & Vijay, V.K. & Rajesh, S.K. & Prasad, Rajendra, 2005. "Biogas scrubbing, compression and storage: perspective and prospectus in Indian context," Renewable Energy, Elsevier, vol. 30(8), pages 1195-1202.
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    6. Chatree Wattanasilp & Roongrojana Songprakorp & Annop Nopharatana & Charoenchai Khompatraporn, 2021. "Techno-Cost-Benefit Analysis of Biogas Production from Industrial Cassava Starch Wastewater in Thailand for Optimal Utilization with Energy Storage," Energies, MDPI, vol. 14(2), pages 1-22, January.
    7. Morin, Philippe & Marcos, Bernard & Moresoli, Christine & Laflamme, Claude B., 2010. "Economic and environmental assessment on the energetic valorization of organic material for a municipality in Quebec, Canada," Applied Energy, Elsevier, vol. 87(1), pages 275-283, January.
    8. Saadabadi, S. Ali & Thallam Thattai, Aditya & Fan, Liyuan & Lindeboom, Ralph E.F. & Spanjers, Henri & Aravind, P.V., 2019. "Solid Oxide Fuel Cells fuelled with biogas: Potential and constraints," Renewable Energy, Elsevier, vol. 134(C), pages 194-214.
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    10. Silva, Felipe Pinheiro & de Souza, Samuel Nelson Melegari & Kitamura, Danilo Sey & Nogueira, Carlos Eduardo Camargo & Otto, Rodrigo Bueno, 2018. "Energy efficiency of a micro-generation unit of electricity from biogas of swine manure," Renewable and Sustainable Energy Reviews, Elsevier, vol. 82(P3), pages 3900-3906.
    11. Ruya, Petric Marc & Lim, Siew Shee & Purwadi, Ronny & Zunita, Megawati, 2020. "Sustainable hydrogen production from oil palm derived wastes through autothermal operation of supercritical water gasification system," Energy, Elsevier, vol. 208(C).
    12. Zhang, Yuyao & Kawasaki, Yu & Oshita, Kazuyuki & Takaoka, Masaki & Minami, Daisuke & Inoue, Go & Tanaka, Toshihiro, 2021. "Economic assessment of biogas purification systems for removal of both H2S and siloxane from biogas," Renewable Energy, Elsevier, vol. 168(C), pages 119-130.
    13. Seckin, Candeniz & Bayulken, Ahmet R., 2013. "Extended Exergy Accounting (EEA) analysis of municipal wastewater treatment – Determination of environmental remediation cost for municipal wastewater," Applied Energy, Elsevier, vol. 110(C), pages 55-64.
    14. Di Capua, Francesco & Spasiano, Danilo & Giordano, Andrea & Adani, Fabrizio & Fratino, Umberto & Pirozzi, Francesco & Esposito, Giovanni, 2020. "High-solid anaerobic digestion of sewage sludge: challenges and opportunities," Applied Energy, Elsevier, vol. 278(C).
    15. White, Andrew J. & Kirk, Donald W. & Graydon, John W., 2011. "Analysis of small-scale biogas utilization systems on Ontario cattle farms," Renewable Energy, Elsevier, vol. 36(3), pages 1019-1025.
    16. Cristiano, Djema Maria & de A. Mohedano, Rodrigo & Nadaleti, Willian Cézar & de Castilhos Junior, Armando B. & Lourenço, Vitor Alves & Gonçalves, Débora F.H. & Filho, Paulo Belli, 2020. "H2S adsorption on nanostructured iron oxide at room temperature for biogas purification: Application of renewable energy," Renewable Energy, Elsevier, vol. 154(C), pages 151-160.
    17. Maizonnasse, Mark & Plante, Jean-Sébastien & Oh, David & Laflamme, Claude B., 2013. "Investigation of the degradation of a low-cost untreated biogas engine using preheated biogas with phase separation for electric power generation," Renewable Energy, Elsevier, vol. 55(C), pages 501-513.

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    Keywords

    Biogas H2S Activated carbon Electricity generation;

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