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Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs)

Received: 21 January 2022     Accepted: 10 February 2022     Published: 31 May 2022
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Abstract

Biomass gasification is a chemical conversion of solid biomass renewable energy constituents into a gaseous combustible substance often regarded as producer gas through progressive thermochemical synthesis. The gasification method produces gas fuels required for power generation which is considered the best alternative to fossil fuels that accounted for 80% of domestic energy and industrial consumption with consequential impressions on global warming and greenhouse effects. In the current research, the biomass gasification system were used to produce electricity from the chemical energy contained in organic recyclable agricultural waste (Corn Cob) used as feedstock gasifier in the energy conversion process. Corn Cob feedstocks renewable organic materials produced from plants were used to synthesize the syngas that contained the electrical energy required to power the internal combustion engine. The utilization of pure hydrous or anhydrous ethanol in internal combustion engines is the direct lignocellulose bioconversion of Corn Cob requiring microbial fermentation, thermochemical pre-treatment test, designed to accelerate enzymatic hydrolysis of cellulose into fermentable sugars, varying the temperature conditions to produce maximum production of biofuel on an industrial scale to drive the internal combustion engine. The current research utilized biomass energy to generate 150 KW worth of electricity from biomass gasification process, utilizing Corn Cob feedstock gasifier to generate electric power for rural electrification.

Published in American Journal of Modern Energy (Volume 8, Issue 2)
DOI 10.11648/j.ajme.20220802.12
Page(s) 25-35
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2022. Published by Science Publishing Group

Keywords

Biomass Gasification, Corn Cob Feedstock, Bioenergy, Renewable Energy, Syngas, Internal Combustion Engine

References
[1] E. Asmelash and R. Gorini, "International oil companies and the energy transition, International Renewable Energy Agency, Abu Dhabi About IRENA The International Renewable Energy Agency (IRENA) serves as the principal platform for international co-operation, a centre of excellence, a repository of policy, technology, resource and financial knowledge, and a driver of action on the ground to advance the transformation of the global energy system. An intergovernmental organisation established in 2011, IRENA promotes the widespread adoption and sustainable use of all forms of renewable energy, including bioenergy, geothermal, hydropower, ocean, solar and wind energy, in the pursuit of sustainable development, energy access, energy security and low-carbon economic growth and prosperity," 2021.
[2] E. Daneshvar, R. J. Wicker, P.-L. Show, and A. Bhatnagar, "Biologically-mediated carbon capture and utilization by microalgae towards sustainable CO2 biofixation and biomass valorization–A review," Chemical Engineering Journal, vol. 427, p. 130884, 2022.
[3] N. Ibrahim, S. Cox, R. Mills, A. Aftelak, and H. Shah, "Multi-objective decision-making methods for optimising CO2 decisions in the automotive industry," Journal of Cleaner Production, p. 128037, 2021.
[4] B. K. Sovacool, S. Griffiths, J. Kim, and M. Bazilian, "Climate change and industrial F-gases: A critical and systematic review of developments, sociotechnical systems and policy options for reducing synthetic greenhouse gas emissions," Renewable and Sustainable Energy Reviews, vol. 141, p. 110759, 2021.
[5] M. Umar, X. Ji, D. Kirikkaleli, and A. A. Alola, "The imperativeness of environmental quality in the United States transportation sector amidst biomass-fossil energy consumption and growth," Journal of Cleaner Production, vol. 285, p. 124863, 2021.
[6] R. Murali, A. Kuwar, and H. Nagendra, "Who’s responsible for climate change? Untangling threads of media discussions in India, Nigeria, Australia, and the USA," Climatic Change, vol. 164, pp. 1-20, 2021.
[7] D. Held and C. Roger, "Three models of global climate governance: From Kyoto to Paris and beyond," Global Policy, vol. 9, pp. 527-537, 2018.
[8] J. E. Szulejko, P. Kumar, A. Deep, and K.-H. Kim, "Global warming projections to 2100 using simple CO2 greenhouse gas modeling and comments on CO2 climate sensitivity factor," Atmospheric Pollution Research, vol. 8, pp. 136-140, 2017.
[9] A. S. Tomlin, "Air Quality and Climate Impacts of Biomass Use as an Energy Source: A Review," Energy & Fuels, vol. 35, pp. 14213-14240, 2021.
[10] G. Mutezo and J. Mulopo, "A review of Africa's transition from fossil fuels to renewable energy using circular economy principles," Renewable and Sustainable Energy Reviews, vol. 137, p. 110609, 2021.
[11] S. O. Paul and C. Ofuebe, "Nigerian Industrialisation Challenges and Dearth of Galvanization Amidst the United Nations Industrial Development Support," Journal of International Cooperation and Development, vol. 4, pp. 80-80, 2021.
[12] O. A. Abisuga-Oyekunle, S. K. Patra, and M. Muchie, "SMEs in sustainable development: Their role in poverty reduction and employment generation in sub-Saharan Africa," African Journal of Science, Technology, Innovation and Development, vol. 12, pp. 405-419, 2020.
[13] S. A. Banjoko, I. Iwuji, and K. Bagshaw, "The performance of the Nigerian manufacturing sector: A 52-year analysis of growth and retrogression (1960-2012)," 2012.
[14] D. M. Y. Maya, E. S. Lora, R. V. Andrade, A. Ratner, and J. D. Martínez, "Biomass gasification using mixtures of air, saturated steam, and oxygen in a two-stage downdraft gasifier. Assessment using a CFD modeling approach," Renewable Energy, 2021.
[15] P. Su-ungkavatin, L. Barna, and L. Hamelin, "Biofuels, Electrofuels, Electric or Carbon-free?: A review of current and emerging Sustainable Energy Sourcing for Aviation (SESA)," 2021.
[16] U. Asghar, S. Rafiq, A. Anwar, T. Iqbal, A. Ahmed, F. Jamil, et al., "Review of the Progress in Emission Control Technologies for the Abatement of CO2, SOx and NOx from Fuel Combustion," Journal of Environmental Chemical Engineering, p. 106064, 2021.
[17] P. J. Rai, "Microbial catalysis of syngas fermentation into biofuels precursors-An experimental approach," Høgskolen i Sørøst-Norge, 2017.
[18] R. AliAkbari, M. H. Ghasemi, N. Neekzad, E. Kowsari, S. Ramakrishna, M. Mehrali, et al., "High value add bio-based low-carbon materials: Conversion processes and circular economy," Journal of Cleaner Production, p. 126101, 2021.
[19] J. S. Senjam, K. Tilotama, T. Meinam, D. S. Thokchom, Y. R. Anand, T. S. Singh, et al., "Soil Microbial Dynamics in Carbon Farming of Agro-Ecosystems: In the Era of Climate Change," in Chemo-Biological Systems for CO2 Utilization, ed: CRC Press, 2020, pp. 265-300.
[20] K. Igarashi and S. Kato, "Extracellular electron transfer in acetogenic bacteria and its application for conversion of carbon dioxide into organic compounds," Applied microbiology and biotechnology, vol. 101, pp. 6301-6307, 2017.
[21] O. Hakizimana, E. Matabaro, and B. H. Lee, "The current strategies and parameters for the enhanced microbial production of 2, 3-butanediol," Biotechnology Reports, vol. 25, p. e00397, 2020.
[22] B. Ugwoke, S. Corgnati, P. Leone, R. Borchiellini, and J. Pearce, "Low emissions analysis platform model for renewable energy: Community-scale case studies in Nigeria," Sustainable Cities and Society, vol. 67, p. 102750, 2021.
[23] Z. A. Elum and V. Mjimba, "Potential and challenges of renewable energy development in promoting a green economy in Nigeria," Africa Review, vol. 12, pp. 172-191, 2020.
[24] S. C. Keppas, S. Papadogiannaki, D. Parliari, S. Kontos, A. Poupkou, P. Tzoumaka, et al., "Future Climate Change Impact on Urban Heat Island in Two Mediterranean Cities Based on High-Resolution Regional Climate Simulations," Atmosphere, vol. 12, p. 884, 2021.
[25] V. Chamundeswari, R. Niraimathi, M. Shanthi, and A. Mahaboob Subahani, "Renewable Energy Technologies," Integration of Renewable Energy Sources with Smart Grid, pp. 1-18, 2021.
[26] N. Spittler, B. Davidsdottir, E. Shafiei, and A. Diemer, "Implications of renewable resource dynamics for energy system planning: The case of geothermal and hydropower in Kenya," Energy Policy, vol. 150, p. 111985, 2021.
[27] S. Minas, M. Mep, and M. Wallström, "The Future of EU Climate Change Technology and Sustainable Energy Diplomacy," FEPS Studies, October, 2016.
[28] S. Kusch-Brandt, "Urban Renewable Energy on the Upswing: A Spotlight on Renewable Energy in Cities in REN21’s “Renewables 2019 Global Status Report”," ed: Multidisciplinary Digital Publishing Institute, 2019.
[29] M. E. Karim, A. B. Munir, M. A. Karim, F. Muhammad-Sukki, S. H. Abu-Bakar, N. Sellami, et al., "Energy revolution for our common future: An evaluation of the emerging international renewable energy law," Energies, vol. 11, p. 1769, 2018.
[30] J. MacGregor, "Determining an optimal strategy for energy investment in Kazakhstan," Energy Policy, vol. 107, pp. 210-224, 2017.
[31] M. A. Gulzar, H. Asghar, J. Hwang, and W. Hassan, "China’s Pathway towards Solar Energy Utilization: Transition to a Low-Carbon Economy," International journal of environmental research and public health, vol. 17, p. 4221, 2020.
[32] A. P. D. S. Chaisanit and A. P. D. P. Phakamach, "A Review Report: Supplying Energy from Renewable Energy around the World," International Journal of Applied Environmental Sciences, vol. 13, pp. 309-321, 2018.
[33] B. Andreosso-O'Callaghan, S. Dzever, J. Jaussaud, and R. Taylor, Sustainable development and energy transition in Europe and Asia: Wiley Online Library, 2020.
[34] S. Teske, Achieving the Paris climate agreement goals: global and regional 100% Renewable energy scenarios with non-energy GHG pathways for+ 1.5 C and+ 2 C: Springer Nature, 2019.
[35] H. S. Boudet, "Public perceptions of and responses to new energy technologies," nature energy, vol. 4, pp. 446-455, 2019.
[36] A. Kumar, N. Kumar, P. Baredar, and A. Shukla, "A review on biomass energy resources, potential, conversion and policy in India," Renewable and sustainable energy reviews, vol. 45, pp. 530-539, 2015.
[37] V. S. Sikarwar and M. Zhao, "Biomass gasification," Encyclopedia of sustainable technologies, pp. 205-216, 2017.
[38] Y. Wang, P. Liu, G. Zhang, Q. Yang, J. Lu, T. Xia, et al., "Cascading of engineered bioenergy plants and fungi sustainable for low-cost bioethanol and high-value biomaterials under green-like biomass processing," Renewable and Sustainable Energy Reviews, vol. 137, p. 110586, 2021.
[39] A. Zoghlami and G. Paës, "Lignocellulosic biomass: understanding recalcitrance and predicting hydrolysis," Frontiers in chemistry, vol. 7, p. 874, 2019.
[40] A. I. Osman, N. Mehta, A. M. Elgarahy, A. Al-Hinai, H. Ala’a, and D. W. Rooney, "Conversion of biomass to biofuels and life cycle assessment: A review," Environmental Chemistry Letters, pp. 1-44, 2021.
[41] J. Da Costa, C. Correa, C. Chiella Ruschel, J. Casagranda, M. Marcelo, D. Pompéu de Moraes, et al., "Characterization of Biodiesel from Animal Fat, Vegetable Oil, and Adulterants by Infrared Spectroscopy Combined with Chemometric Methods," Energy & Fuels, vol. 35, pp. 13801-13812, 2021.
[42] U. Lee, H. Kwon, M. Wu, and M. Wang, "Retrospective analysis of the US corn ethanol industry for 2005–2019: implications for greenhouse gas emission reductions," Biofuels, Bioproducts and Biorefining, 2021.
[43] S. Puricelli, G. Cardellini, S. Casadei, D. Faedo, A. Van den Oever, and M. Grosso, "A review on biofuels for light-duty vehicles in Europe," Renewable and Sustainable Energy Reviews, vol. 137, p. 110398, 2021.
[44] P. Bajpai, Developments in bioethanol: Springer Nature, 2020.
[45] M. Göktaş, M. K. Balki, C. Sayin, and M. Canakci, "An Evaluation of the use of alcohol fuels in SI engines in terms of performance, emission and combustion characteristics: A review," Fuel, vol. 286, p. 119425, 2021.
[46] M. T. Chaichan, "Combustion and emission characteristics of E85 and diesel blend in conventional diesel engine operating in PPCI mode," Thermal science and Engineering progress, vol. 7, pp. 45-53, 2018.
[47] S. Verhelst, J. W. Turner, L. Sileghem, and J. Vancoillie, "Methanol as a fuel for internal combustion engines," Progress in Energy and Combustion Science, vol. 70, pp. 43-88, 2019.
[48] E. R. Taymaz, M. E. Uslu, and I. Deniz, "Introduction to Biomass to Biofuels Technologies," Liquid Biofuels: Fundamentals, Characterization, and Applications, pp. 1-38, 2021.
[49] P. Yaashikaa, P. S. Kumar, and S. Varjani, "Valorization of agro-industrial wastes for biorefinery process and circular bioeconomy: A critical review," Bioresource Technology, p. 126126, 2021.
[50] S. M. Hoffman, M. Alvarez, G. Alfassi, D. M. Rein, S. Garcia-Echauri, Y. Cohen, et al., "Cellulosic biofuel production using emulsified simultaneous saccharification and fermentation (eSSF) with conventional and thermotolerant yeasts," Biotechnology for biofuels, vol. 14, pp. 1-17, 2021.
[51] A. Tambuwal, A. Baki, and A. Bello, "Bio-ethanol Production from Corn Cobs Wastes as Bio-fuel," Direct Research Journal of Biology & Biotechnology Sci, vol. 4, pp. 22-36, 2018.
[52] M. Rastogi and S. Shrivastava, "Recent advances in second generation bioethanol production: An insight to pretreatment, saccharification and fermentation processes," Renewable and Sustainable Energy Reviews, vol. 80, pp. 330-340, 2017.
[53] F. Saleem, J. Harris, K. Zhang, and A. Harvey, "Non-thermal plasma as a promising route for the removal of tar from the product gas of biomass gasification–a critical review," Chemical Engineering Journal, vol. 382, p. 122761, 2020.
[54] J. A. Okolie, S. Nanda, A. K. Dalai, and J. A. Kozinski, "Optimization and modeling of process parameters during hydrothermal gasification of biomass model compounds to generate hydrogen-rich gas products," International Journal of Hydrogen Energy, vol. 45, pp. 18275-18288, 2020.
[55] S. Mazhkoo, H. Dadfar, M. HajiHashemi, and O. Pourali, "A comprehensive experimental and modeling investigation of walnut shell gasification process in a pilot-scale downdraft gasifier integrated with an internal combustion engine," Energy Conversion and Management, vol. 231, p. 113836, 2021.
[56] M. A. Sheik and M. C. Math, "A Comparative Evaluation on the Performance of Updraft Gasifier Fuelled with Rice Husk, Corn Cobs and Wood Chips," International Journal of Engineering Research & Technology, vol. 5, pp. 640-644, 2016.
[57] G. Velvizhi, K. Balakumar, N. P. Shetti, E. Ahmad, K. K. Pant, and T. M. Aminabhavi, "Integrated biorefinery processes for conversion of lignocellulosic biomass to value added materials: Paving a path towards circular economy," Bioresource Technology, vol. 343, p. 126151, 2022.
[58] F. Sulaiman, E. Suhendi, N. Prastuti, and O. A. Choir, "The Effect of Temperature and Time of Gasification Process and The Addition of Catalyst to The Composition of The Combustible Gas from The Wastes of Tobacco Leaves With Gasifier Updraft," FLYWHEEL: Jurnal Teknik Mesin Untirta, pp. 1-8, 2019.
[59] M. Tawalbeh, A. Al-Othman, T. Salamah, M. Alkasrawi, R. Martis, and Z. A. El-Rub, "A critical review on metal-based catalysts used in the pyrolysis of lignocellulosic biomass materials," Journal of Environmental Management, vol. 299, p. 113597, 2021.
[60] G. S. Ghodake, S. K. Shinde, A. A. Kadam, R. G. Saratale, G. D. Saratale, M. Kumar, et al., "Review on biomass feedstocks, pyrolysis mechanism and physicochemical properties of biochar: State-of-the-art framework to speed up vision of circular bioeconomy," Journal of Cleaner Production, p. 126645, 2021.
[61] M. Faraji and M. Saidi, "Hydrogen-rich syngas production via integrated configuration of pyrolysis and air gasification processes of various algal biomass: Process simulation and evaluation using Aspen Plus software," International Journal of Hydrogen Energy, vol. 46, pp. 18844-18856, 2021.
[62] Z. Cheng, H. Jin, S. Liu, L. Guo, J. Xu, and D. Su, "Hydrogen production by semicoke gasification with a supercritical water fluidized bed reactor," international journal of hydrogen energy, vol. 41, pp. 16055-16063, 2016.
[63] A. Boretti and B. K. Banik, "Advances in hydrogen production from natural gas reforming," Advanced Energy and Sustainability Research, vol. 2, p. 2100097, 2021.
[64] P. Sittisun, N. Tippayawong, and S. Pang, "Biomass gasification in a fixed bed downdraft reactor with oxygen enriched air: A modified equilibrium modeling study," Energy Procedia, vol. 160, pp. 317-323, 2019.
Cite This Article
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    Ugochukwu Okwudili Matthew, Jazuli Sanusi Kazaure, John Ohabuiro, Musefiu Aderinola, Nura Abdullahi Haladu, et al. (2022). Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs). American Journal of Modern Energy, 8(2), 25-35. https://doi.org/10.11648/j.ajme.20220802.12

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    ACS Style

    Ugochukwu Okwudili Matthew; Jazuli Sanusi Kazaure; John Ohabuiro; Musefiu Aderinola; Nura Abdullahi Haladu, et al. Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs). Am. J. Mod. Energy 2022, 8(2), 25-35. doi: 10.11648/j.ajme.20220802.12

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    AMA Style

    Ugochukwu Okwudili Matthew, Jazuli Sanusi Kazaure, John Ohabuiro, Musefiu Aderinola, Nura Abdullahi Haladu, et al. Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs). Am J Mod Energy. 2022;8(2):25-35. doi: 10.11648/j.ajme.20220802.12

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  • @article{10.11648/j.ajme.20220802.12,
      author = {Ugochukwu Okwudili Matthew and Jazuli Sanusi Kazaure and John Ohabuiro and Musefiu Aderinola and Nura Abdullahi Haladu and Ubochi Chibueze Nwamouh},
      title = {Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs)},
      journal = {American Journal of Modern Energy},
      volume = {8},
      number = {2},
      pages = {25-35},
      doi = {10.11648/j.ajme.20220802.12},
      url = {https://doi.org/10.11648/j.ajme.20220802.12},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ajme.20220802.12},
      abstract = {Biomass gasification is a chemical conversion of solid biomass renewable energy constituents into a gaseous combustible substance often regarded as producer gas through progressive thermochemical synthesis. The gasification method produces gas fuels required for power generation which is considered the best alternative to fossil fuels that accounted for 80% of domestic energy and industrial consumption with consequential impressions on global warming and greenhouse effects. In the current research, the biomass gasification system were used to produce electricity from the chemical energy contained in organic recyclable agricultural waste (Corn Cob) used as feedstock gasifier in the energy conversion process. Corn Cob feedstocks renewable organic materials produced from plants were used to synthesize the syngas that contained the electrical energy required to power the internal combustion engine. The utilization of pure hydrous or anhydrous ethanol in internal combustion engines is the direct lignocellulose bioconversion of Corn Cob requiring microbial fermentation, thermochemical pre-treatment test, designed to accelerate enzymatic hydrolysis of cellulose into fermentable sugars, varying the temperature conditions to produce maximum production of biofuel on an industrial scale to drive the internal combustion engine. The current research utilized biomass energy to generate 150 KW worth of electricity from biomass gasification process, utilizing Corn Cob feedstock gasifier to generate electric power for rural electrification.},
     year = {2022}
    }
    

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  • TY  - JOUR
    T1  - Biomass Renewable Energy Production from Corn Cobs Feedstock Gasifier as Energy Constituent in Internal Combustion Engines (ICEs)
    AU  - Ugochukwu Okwudili Matthew
    AU  - Jazuli Sanusi Kazaure
    AU  - John Ohabuiro
    AU  - Musefiu Aderinola
    AU  - Nura Abdullahi Haladu
    AU  - Ubochi Chibueze Nwamouh
    Y1  - 2022/05/31
    PY  - 2022
    N1  - https://doi.org/10.11648/j.ajme.20220802.12
    DO  - 10.11648/j.ajme.20220802.12
    T2  - American Journal of Modern Energy
    JF  - American Journal of Modern Energy
    JO  - American Journal of Modern Energy
    SP  - 25
    EP  - 35
    PB  - Science Publishing Group
    SN  - 2575-3797
    UR  - https://doi.org/10.11648/j.ajme.20220802.12
    AB  - Biomass gasification is a chemical conversion of solid biomass renewable energy constituents into a gaseous combustible substance often regarded as producer gas through progressive thermochemical synthesis. The gasification method produces gas fuels required for power generation which is considered the best alternative to fossil fuels that accounted for 80% of domestic energy and industrial consumption with consequential impressions on global warming and greenhouse effects. In the current research, the biomass gasification system were used to produce electricity from the chemical energy contained in organic recyclable agricultural waste (Corn Cob) used as feedstock gasifier in the energy conversion process. Corn Cob feedstocks renewable organic materials produced from plants were used to synthesize the syngas that contained the electrical energy required to power the internal combustion engine. The utilization of pure hydrous or anhydrous ethanol in internal combustion engines is the direct lignocellulose bioconversion of Corn Cob requiring microbial fermentation, thermochemical pre-treatment test, designed to accelerate enzymatic hydrolysis of cellulose into fermentable sugars, varying the temperature conditions to produce maximum production of biofuel on an industrial scale to drive the internal combustion engine. The current research utilized biomass energy to generate 150 KW worth of electricity from biomass gasification process, utilizing Corn Cob feedstock gasifier to generate electric power for rural electrification.
    VL  - 8
    IS  - 2
    ER  - 

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Author Information
  • Computer Science, Hussaini Adamu Federal Polytechnic, Kazaure, Nigeria

  • Electrical Engineering, Hussaini Adamu Federal Polytechnic, Kazaure, Nigeria

  • Electrical Engineering, Hussaini Adamu Federal Polytechnic, Kazaure, Nigeria

  • Electrical Engineering, Hussaini Adamu Federal Polytechnic, Kazaure, Nigeria

  • Science Lab Technology, Hussaini Adamu Federal Polytechnic, Kazaure, Nigeria

  • Computer Engineering, Federal University of Agriculture, Umudike, Nigeria

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