Huali Wang, Shuli Yan, Manhoe Kim, Steven O. Salley and K. Y. Simon Ng Pages 132 - 139 ( 8 )
Hydrocarbons representative of jet fuel were produced by both catalytic cracking and one-step catalytic hydrocracking of soybean oil in a lab-scale flow reactor. The yield of kerosene/jet fuel hydrocarbons by catalytic cracking over a commercialized ZSM-5 was as high as 21%. Both temperature and space velocity exhibited irregular effects on the product distribution. Steady state was not attained and significant amounts of tar and coke were generated during the reaction. A bifunctional hydrocracking catalyst with 1.1% ruthenium supported on ZSM-5, prepared by an impregnation method, produced a 16% yield of jet fuel, which is comparable to yields over commercialized sulfided NiMo catalysts while at a much lower pressure of 650 psi. Compared to the catalytic cracking process over ZSM-5, steady-state flow reaction was obtained with less tar and polymerized products.
Jet fuel hydrocarbons, catalytic cracking, hydrocracking, renewable fuels, transesterification, CME, SME, biomass, hydroisomerization, hydrocracking, isotherms, thermal conductivity detectors , flame ionization, OLP, chromatogram
Department of Chemical Engineering and Materials Science, Wayne State University, 5050 Anthony Wayne Drive, Detroit, MI 48202, USA.