Analysis of Producer Gas from Downdraft Gasifier by Using Coconut Shell as Fuel
Main Article Content
Abstract
Renewable energy is widely used at recent time because the trend of fossil fuel price continues to increase.
Alternative energy from gasification process can be produced fuel gas that producer gas compositions such as carbon monoxide (CO), hydrogen (H2), methane (CH4), carbon dioxide (CO2) and other. This research study is based on analysis producer gas from downdraft gasifier by using coconut shell and coconut shell charcoal with the adjustable air speed at blower outlet 7, 10 and 14 m/s. The experimental result shows that the average producer gas composition of coconut shell and coconut shell charcoal are carbon monoxide (CO) 15.64, 17.39 %, hydrogen (H2) 15.89, 8.47 %, methane (CH4) 4.77, 2.36 %, carbon dioxide (CO2) 16.09 and 18.17 % respectively. The suitable air speed is 10 m/s will be given the highest efficiency of downdraft gasifier are 57.45, 84.59 %, the High Heating Value (HHV) are 6,307, 4,441 kJ/m3, fuel consumption rate are 2.58 and 2.86 kg/h respectively. According to the experimental result, the downdraft gasifier by using coconut shell can be improved as one potential energy of alternative energy in the next future.
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References
17 March 2017, from https://www.oae.go.th.
[2] Industrial Technology Service Center. (n.d.). Coconut and Poconut Products Processes (Online). Retrieved
14 June 2017, from https://www.kmutt.ac.th/titec/gtz/coconut-detail-upload5.html.
[3] Jatuporn, K., Jompob, W., Marina, M and Suwit, P. (2005). “Biomass Energy Conversion: Gasification”,
Thaksin University Journal. 2(2), 56-67.
[4] Department of Alternative Energy Development and Efficience. (2015). Alternative Energy Development
Plan: AEDP2015. Retrieved 14 June 2017, from https://www.eppo.go.th/images/POLICY/PDF/
AEDP2015.pdf
[5] Ismail, T.M. and El-Salam, M.A. (2017). “Parametric Studies on Biomass Gasification Process on Updraft
Gasifier High Temperature Air Gasification”, Applied Thermal Engineering. 112, 1460-1473.
[6] Wang, X., Niu, B., Deng, S., Liu, Y. and Tan, H. (2014). “Optimization Study on Air Distribution of an
Actual Agriculture Up-draft Biomass Gasification Stove”, Energy Procedia. 61, 2335-2338.
[7] Department of Industrial Works. (2012). Guideline and Criteria for Wastes for Processing as Fuel Rods
and Binder Blocks (Online). Retrieved 14 June 2017, from https://books.google.co.th/
books?id=evlmlwEACAAJ.
[8] Chawdhurya, M.A. and Mahkamovb, K. (2011). “Development of a Small Downdraft Biomass Gasifier for
Developing Countries”, Journal of Scientific Research. 1, 51-64.
[9] Yothapakdee, J. (2013). Performance Report on Cooperative Education Maejo University (Online).
Retrieved 17 March, 2017, from https://aookaui.fireexit.co.th/MJUnew/course_detail/22/Jidapa%20
Yothapakdee.pdf.
[10] Punchaporn, N., Nikran, H., Kittikorn, S., and Akkarin, I. (2010). “Performance Assessment of Downdraft
Gasifier Operated on Agricultural Residues”, The 8th Thailand Renewable Energy for Community
Conference. Faculty of Engineering, Rajamangala University of Technology Thanyaburi.