Journal of the American Oil Chemists Society · 1995 · 85 citations · 15 references
EngineeringChemical EngineeringFood ProcessingProduction EngineeringReaction EngineeringBiofuel ProductionOilseed ProcessingRenewable FeedstocksCrackingFeedstock CharacterizationGas Chromatography-mass SpectrometryHydrocarbon CrackingOilseed Feedstock ProcessingPyrolysis Gas Chromatography Mass Spectrometry
Abstract The pyrolysis of a mixture of methyl esters from rapeseed oil has been studied in a tubular reactor between 550 and 850°C and in dilution with nitrogen. A specific device for the condensation of cracking effluents was used for the fractionated recovery of liquid and gaseous effluents, which were analyzed on‐line by an infrared analyzer and by gas chromatography. The cracking products in the liquid effluent were identified by gas chromatography/mass spectrometry coupling. The effects of temperature on the cracking reaction were studied for a constant residence time of 320 ms and a constant dilution rate of 13 moles of nitrogen/mole of feedstock. The principal products observed were linear 1‐olefins, n ‐paraffins, and unsaturated methyl esters. The gas fraction also contained CO, CO 2 , and H 2 . The middle‐chain olefins (C 10 –C 14 cut) and short‐chain unsaturated esters, produced with a high added value, had an optimum yield at a cracking temperature of 700°C.
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Diesel fuel from thermal decomposition of soybean oil
A. W. Schwab, G. J. Dykstra, E. Selke et al. · Journal of the American Oil Chemists Society · 1988 · 291 citations
China's Motor Fuels from Tung Oil
Chia‐Chu Chang, Shen-Wu. Wan · Industrial & Engineering Chemistry · 1947 · 220 citations
W. W. Nawar · Journal of Agricultural and Food Chemistry · 1969 · 167 citations
Agriculture, Chemistry, Food Science +10