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Framework for Energy-Averaged Emission Mitigation Technique Adopting Gasoline-Methanol Blend Replacement and Piston Design Exchange

Author

Listed:
  • Prakash Chandra Mishra

    (Department of Mechanical Engineering, Veer Surendra Sai University of Technology, Burla 768018, India)

  • Anand Gupta

    (Department of Mechanical Engineering, Indira Gandhi Institute of Technology, Sarang 759146, India)

  • Saikat Samanta

    (School of Mechanical Engineering, KIIT University, Bhubaneswar 751024, India)

  • Rihana B. Ishaq

    (School of Built Environment Engineering and Computing, Leeds Beckett University, Leeds LS1 3HE, UK)

  • Fuad Khoshnaw

    (School of Engineering and Sustainable Development, De Montfort University, Leicester LE1 9BH, UK)

Abstract

Measurement to mitigate automotive emission varies from energy content modification of fuel to waste energy recovery through energy system upgradation. The proposed energy-averaged emission mitigation technique involves interfacing piston design exchange and gasoline–methanol blend replacement with traditional gasoline for low carbon high energy content creation. Here, we interlinked the CO, CO 2 , NO x , O 2 , and HC to different design exchanges of coated pistons through the available brake power and speed of the engine. We assessed the relative effectiveness of various designs and coating thicknesses for different gasoline–methanol blends (0%,5%,10%, and 15%). The analysis shows the replacement of 5%, 10%, and 15% by volume of gasoline with methanol reduces the fuel carbon by 4.167%, 8.34%, and 12.5%, respectively. The fuel characteristics of blends are comparable to gasoline, hence there is no energy infrastructure modification required to develop the same amount of power. The CO and HC reduced significantly, while CO 2 and NO x emissions are comparable. Increasing the coating thickness enhances the surface temperature retention and reduces heat transfer. The Type_C design of the steel piston and type_A design of the AlSi piston show temperature retention values of 582 °C and 598 °C, respectively. Type_A and type_B pistons are better compared to type_C and the type_D piston design for emission mitigation due to decarbonization of fuel through gasoline-methanol blend replacement. Surface response methodology predicts Delastic, σvon Mises, and Tsurface with percentage errors of 0.0042,0.35, and 0.9, respectively.

Suggested Citation

  • Prakash Chandra Mishra & Anand Gupta & Saikat Samanta & Rihana B. Ishaq & Fuad Khoshnaw, 2022. "Framework for Energy-Averaged Emission Mitigation Technique Adopting Gasoline-Methanol Blend Replacement and Piston Design Exchange," Energies, MDPI, vol. 15(19), pages 1-26, September.
    • Handle: RePEc:gam:jeners:v:15:y:2022:i:19:p:7188-:d:929437
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    References listed on IDEAS

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    1. Shiqi Ou & Xin He & Weiqi Ji & Wei Chen & Lang Sui & Yu Gan & Zifeng Lu & Zhenhong Lin & Sili Deng & Steven Przesmitzki & Jessey Bouchard, 2020. "Machine learning model to project the impact of COVID-19 on US motor gasoline demand," Nature Energy, Nature, vol. 5(9), pages 666-673, September.
    2. Paul E. Brockway & Anne Owen & Lina I. Brand-Correa & Lukas Hardt, 2019. "Estimation of global final-stage energy-return-on-investment for fossil fuels with comparison to renewable energy sources," Nature Energy, Nature, vol. 4(7), pages 612-621, July.
    3. Lebunu Hewage Udara Willhelm Abeydeera & Jayantha Wadu Mesthrige & Tharushi Imalka Samarasinghalage, 2019. "Global Research on Carbon Emissions: A Scientometric Review," Sustainability, MDPI, vol. 11(14), pages 1-25, July.
    4. Nan Zhou & Nina Khanna & Wei Feng & Jing Ke & Mark Levine, 2018. "Scenarios of energy efficiency and CO2 emissions reduction potential in the buildings sector in China to year 2050," Nature Energy, Nature, vol. 3(11), pages 978-984, November.
    5. Shiqi Ou & Xin He & Weiqi Ji & Wei Chen & Lang Sui & Yu Gan & Zifeng Lu & Zhenhong Lin & Sili Deng & Steven Przesmitzki & Jessey Bouchard, 2020. "Author Correction: Machine learning model to project the impact of COVID-19 on US motor gasoline demand," Nature Energy, Nature, vol. 5(12), pages 1051-1052, December.
    6. Susan C. Anenberg & Joshua Miller & Ray Minjares & Li Du & Daven K. Henze & Forrest Lacey & Christopher S. Malley & Lisa Emberson & Vicente Franco & Zbigniew Klimont & Chris Heyes, 2017. "Impacts and mitigation of excess diesel-related NOx emissions in 11 major vehicle markets," Nature, Nature, vol. 545(7655), pages 467-471, May.
    7. Sanya Carley & Tom P. Evans & Michelle Graff & David M. Konisky, 2018. "A framework for evaluating geographic disparities in energy transition vulnerability," Nature Energy, Nature, vol. 3(8), pages 621-627, August.
    8. Jochen Markard, 2018. "The next phase of the energy transition and its implications for research and policy," Nature Energy, Nature, vol. 3(8), pages 628-633, August.
    9. Lewis C. King & Jeroen C. J. M. van den Bergh, 2018. "Implications of net energy-return-on-investment for a low-carbon energy transition," Nature Energy, Nature, vol. 3(4), pages 334-340, April.
    10. Sgouris Sgouridis & Michael Carbajales-Dale & Denes Csala & Matteo Chiesa & Ugo Bardi, 2019. "Comparative net energy analysis of renewable electricity and carbon capture and storage," Nature Energy, Nature, vol. 4(6), pages 456-465, June.
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