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Evaluation of carbon emission in motorcycle exhausts and engine performance using biomass nanofuel patch.

Roslan, Mohamad Afiq and Dolah, Rozzeta and Mad Nordin, Mariam Firdhaus and Shreeshivadasan, Shreeshivadasan and Hassan, Mohamad Zaki and Jamaludin, Rosmahaida and Abdullah, Siti Norhuda (2023) Evaluation of carbon emission in motorcycle exhausts and engine performance using biomass nanofuel patch. Journal of Sustainability Science and Management, 18 (9). pp. 6-16. ISSN 18238556

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Official URL: http://dx.doi.org/10.46754/jssm.2023.09.002

Abstract

Biomass nanofluid not only utilises the most abundant waste in Malaysia but also ensures the environment’s sustainability towards low carbon emissions by reducing greenhouse gases (GHG). The present work investigates a renewable biomass NanoFuel Patch derived from normal pyrolysis of empty fruit bunch (EFB) biomass as a pure product (EFB nano oil). The EFB nano oil will go through the patching process to become a biomass nanofuel patch. This NanoFuel Patch is attached to the motorcycle’s fuel hose and tank. It works based on the nanofluidics concept, allowing the nanomolecules to be transported via biomass fluid bound with nanocomposite fibre medium assembled in a patch adhesive. Nanofluidics minimises the adsorption of impurities, which leads to complete combustion in the engine. The engine performance and emissions of a renewable biomass nanofuel patch were investigated during a motorcycle test attached to the dynomite roller chassis dynamometer (dyno test) in the steady-state condition of a single-cylinder and four-stroke type motorcycle. The findings show that the NanoFuel Patch produced better torque and braking power compared to the standard condition. At speeds between 60 and 70 km/h, the motorcycle’s NOx emissions were lowered to 20.56% and 7.90%, respectively, in contrast to the standard condition. Compared to standard conditions, CO emission levels were lower at 80 km/h, 90 km/h, and 100 km/h, with reductions of 22.08%, 11.65%, and 35.09%, respectively. For CO2 concentration, lower production of CO2 occurred when the motorcycle ran at speeds of 60, 70 km/h, 80 km/h, 90 km/h, and 100 km/h, with percentages of 8.87%, 8.34%, 3.59%, 2.91%, and 0.78%, respectively.

Item Type:Article
Uncontrolled Keywords:biomass; carbon emission; nanofluid; pyrolysis.
Subjects:T Technology > T Technology (General)
T Technology > TD Environmental technology. Sanitary engineering
Divisions:Razak School of Engineering and Advanced Technology
ID Code:107175
Deposited By: Muhamad Idham Sulong
Deposited On:27 Aug 2024 07:58
Last Modified:27 Aug 2024 07:58

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