Characterization of Gasoline-like Transportation Fuels Obtained by Distillation of Pyrolysis Oils from Plastic Waste Mixtures

2021 ◽  
Vol 35 (3) ◽  
pp. 2347-2356
Author(s):  
Zsolt Dobó ◽  
Gergő Kecsmár ◽  
Gábor Nagy ◽  
Tamás Koós ◽  
Gábor Muránszky ◽  
...  
Separations ◽  
2021 ◽  
Vol 8 (7) ◽  
pp. 103
Author(s):  
Hang Dao Thi ◽  
Marko R. Djokic ◽  
Kevin M. Van Geem

Plastic-waste pyrolysis oils contain large amounts of linear, branched, and di-olefinic compounds. This makes it not obvious to determine the detailed group-type composition in particular to the presence of substantial amounts of N-, S-, and O-containing heteroatomic compounds. The thorough evaluation of different column combinations for two-dimensional gas chromatography (GC × GC), i.e., non-polar × polar and polar × non-polar, revealed that the second combination had the best performance, as indicated by the bi-dimensional resolution of the selected key compounds. By coupling the GC × GC to multiple detectors, such as the flame ionization detector (FID), a sulfur chemiluminescence detector (SCD), a nitrogen chemiluminescence detector (NCD), and a mass spectrometer (MS), the identification and quantification were possible of hydrocarbon, oxygen-, sulfur-, and nitrogen-containing compounds in both naphtha (C5–C11) and diesel fractions (C7–C23) originating from plastic-waste pyrolysis oils. Group-type quantification showed that large amounts of α-olefins (36.39 wt%, 35.08 wt%), iso-olefins (8.77 wt%, 9.06 wt%), and diolefins (4.21 wt%, 4.20 wt%) were present. Furthermore, oxygen-containing compounds (alcohols, ketones, and ethers) could be distinguished from abundant hydrocarbon matrix, by employing Stabilwax as the first column and Rxi-5ms as the second column. Ppm levels of sulfides, thiophenes, and pyridines could also be quantified by the use of selective SCD and NCD detectors.


RSC Advances ◽  
2021 ◽  
Vol 11 (43) ◽  
pp. 26732-26738
Author(s):  
Victor Garcia-Montoto ◽  
Sylvain Verdier ◽  
David C. Dayton ◽  
Ofei Mante ◽  
Carine Arnaudguilhem ◽  
...  

Renewable feedstocks, such as lignocelulosic fast pyrolysis oils and both vegetable oil and animal fats, are becoming a viable alternative to petroleum for producing high-quality renewable transportation fuels.


2017 ◽  
Vol 31 (2) ◽  
pp. 1650-1664 ◽  
Author(s):  
Filip Stankovikj ◽  
Armando G. McDonald ◽  
Gregory L. Helms ◽  
Mariefel V. Olarte ◽  
Manuel Garcia-Perez

Author(s):  
Barbara L. Hoesterey ◽  
Willem Windig ◽  
Henk L. C. Meuzelaar ◽  
Edward M. Eyring ◽  
David M. Grant ◽  
...  

Author(s):  
Manuel Garcia-Peréz ◽  
Jesus Alberto Garcia-Nunez ◽  
Manuel Raul Pelaez-Samaniego ◽  
Chad Eugene Kruger ◽  
Mark Raymond Fuchs ◽  
...  

The objective of this chapter is to review and discuss sustainability and techno-economic criteria to integrate pyrolysis, biochar activation, and bio-oil refining into sustainable business models. Several business models such as the production of biochar with heat recovery and bio-oil refining are discussed. Cost data needed by engineering practitioners to conduct enterprise-level financial analyses of different biomass pyrolysis economy models are presented. This chapter also reviews life cycle assessments of pyrolysis business models. If the feedstock used is produced sustainably and if the pyrolysis vapors are used for bio-oil or heat production, both, the production of biochar through slow pyrolysis and its use as a soil amendment to sequester carbon, and the production and refining of fast pyrolysis oils to produce transportation fuels could have a positive environmental impact.


Author(s):  
A Siva Krishna ◽  
G Swamy Yadav ◽  
E Vamshi Krishna ◽  
S Yeshwanth Kumar ◽  
T Sony

2020 ◽  
Vol 981 ◽  
pp. 132-137
Author(s):  
Suharno Rusdi ◽  
Ridwan A. Destian ◽  
Fitratur Rahman ◽  
Achmad Chafidz

Everyday human life cannot be separated from plastic. Almost all objects that are around us are made of plastic. In general, plastics are non-biodegradable, causing environmental problems caused by the increased volume of plastic waste. One way to overcome this is by recycling existing plastic waste. But the use of recycled plastics is very limited and considered inefficient because the process is more difficult and processing is more expensive than buying new plastic raw materials. Another alternative is to use bioplastics or biodegradable plastic. This plastic is more environmentally friendly because it is biodegradable or easily decomposed by microorganisms. Basically, bioplastics can be made from vegetable starches. In this study we will use starch extracted from banana peel waste as a base material for making bioplastics. In this research, glycerin which is used as a bioplastic adhesive or plasticizer will be used. Whether or not bioplastics depend on the resistance to water, the attractiveness of the bioplastics, the ability of the plastic to be decomposed by microorganisms. From this research, it is expected to produce bioplastics with high water resistance and high tensile strength and easy to decompose microorganisms.


Sign in / Sign up

Export Citation Format

Share Document