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Catalysis deoxygenation and hydrodeoxygenation of edible and inedible oil to green fuel

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General Information Cached
Title
Catalysis deoxygenation and hydrodeoxygenation of edible and inedible oil to green fuel
Type
Article
Main Author
Fouad Warid
Additional Authors
  • Ismail Zainol
  • Nada Mutter Abbass
  • Nurulsaidah Rahim
  • Majhool, Alhussen Arkan
Subject
Q Science (General)
Language Code
eng
Bibliographic Details
Place of Production
Tanjong Malim
Publisher
Fakulti Sains dan Matematik
Year of publication
2020
Degree Type
Others
Corporate Name
Universiti Pendidikan Sultan Idris

Abstract

Green diesel or known as the hydrocarbons (alkane and alkene) is a renewable and globally friendly biofuel which generally was derived from the triglycerides or fatty acids. The sustainability of the green diesel always concerned the cost of the production, energy supply and demand (net energy balance), the sustainability of more significant crops production or feedstock supply, acceptance of the country and economic stability. Above all, the lack of the petroleum products, the increase in fuel efficiency and affordable by the public are significant reasons for the green diesel to become one of the most important energy supplies for our future The review found important research areas to be reduction in cost of production and maintenance, improvement in fuel quality and improvement in the environmental benefit from using green diesel. With regard to cost reduction, experiments have been conducted on use of low cost catalysts, waste products as feedstocks and H2-free reaction atmosphere. Fuel quality improvement studies have proposed new catalysts, reaction pathways and conditions to improve hydrocarbon selectivity and fuel stability. Future studies must specifically focus on commercial feasibility of the use of waste materials as feedstocks, heterogeneous catalysts, improvement in reaction pathways to production green diesel and similar other concerns. This article covers the catalysis for deoxygenation, the factor influencing the deoxygenation process and the recent progress of deoxygenation.  

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