Preparation and Properties of Fluid Cracking Catalysts for Residual Oil Conversion
- 1 August 1984
- journal article
- research article
- Published by Taylor & Francis in Catalysis Reviews
- Vol. 26 (3-4) , 525-554
- https://doi.org/10.1080/01614948408064725
Abstract
Catalytic cracking of petroleum to produce gasoline began in about 1912. The early pioneering work was carried out by Eugene Houdry [1]. Modern fluid catalytic cracking (FCC) was conceived at Exxon and commercially developed in about 1940 [2] using amorphous catalysts. Fluid catalysts are small spherical particles ranging from 40 to 150 um in diameter with acid sites capable of cracking large petroleum molecules to products boiling in the gasoline range. One advantage of the FCC process is the absence of the diffusion limitations present in conventional gas oil cracking due to the small size of the catalyst particle. Since 1964 virtually all catalysts contain faujasite, a stable, large pore, Y-type zeolite dispersed in a silica/alumina matrix [3]. The catalytic aspects of contemporary FCC processes have been reviewed by Venuto and Habib [4], Gates, Katzer, and Schuit [5], Magee and Blazek [6], and Magee [7]. A more recent update of refinery trends has been made available by Blazek [8].Keywords
This publication has 4 references indexed in Scilit:
- Rapid methods of determining the metals resistance of cracking catalystsApplied Catalysis, 1982
- X, Y, aluminum-deficient, and ultrastable faujasite-type zeolites III. Catalytic activityJournal of Catalysis, 1973
- Catalytic Cracking over Crystalline Aluminosilicates. Microreactor Study of Gas Oil CrackingProduct R&D, 1970
- The behaviour of porous catalyst particles in view of internal mass and heat diffusion effectsChemical Engineering Science, 1962