The application of a rotating fluidized bed in a static geometry to fluid catalytic cracking is evaluated by means of computational fluid dynamics (CFD) simulations using an Eulenan-Eulenan model and the kinetic theory of granular flow The reactions arc described by a 10-lump model. First, the reaction kinetics is based on currently allowable clacking temperature and catalyst activity. Typical reactor dimensions required are presented, and an evaluation of the process intensification potential is made, based on a comparison with riser technology Next, the possibility of using a higher cracking temperature or a more active catalyst is evaluate
This work aims to test the application of computational fluid dynamics (CFD) modeling to fixed bed c...
Fixed bed reactors with a single fluid phase are widely used in the refining or petrochemical indust...
Computational fluid-dynamic (CFD) is a useful tool to understand the performance and help the desig...
Computational Fluid Dynamics is used to evaluate the use of a rotating fluidized bed in a static geo...
AbstractFluid catalytic cracking (FCC) is an important process for the conversion of gas oil to gaso...
Feedstock conversion and yield products are studied through a 3D model simulating the main reactor o...
Because of the continuous increase in the amount of plastic waste, catalytic cracking is an interest...
Fluid catalytic cracking (FCC) is an important process for the conversion of gas oil to gasoline. Th...
In this study a comparison of 3-lump and 4-lump kinetic models predicting the yield of gas...
This work focuses on the development of vortex chamber technology for the generation of rotating flu...
A multi-fluid Eulerian model is applied to simulate the flow behavior and catalytic cracking reacti...
A three-dimensional and two-phase flow model to predict the dynamic behavior of a fluid catalytic cr...
A computational fluid dynamic (CFD) code has been developed for fluid catalytic cracking (FCC) riser...
Design and scale-up of fluid catalytic cracking (FCC) riser is still largely empirical, owing to lim...
Design and scale-up of fluid catalytic cracking (FCC) riser is still largely empirical, owing to lim...
This work aims to test the application of computational fluid dynamics (CFD) modeling to fixed bed c...
Fixed bed reactors with a single fluid phase are widely used in the refining or petrochemical indust...
Computational fluid-dynamic (CFD) is a useful tool to understand the performance and help the desig...
Computational Fluid Dynamics is used to evaluate the use of a rotating fluidized bed in a static geo...
AbstractFluid catalytic cracking (FCC) is an important process for the conversion of gas oil to gaso...
Feedstock conversion and yield products are studied through a 3D model simulating the main reactor o...
Because of the continuous increase in the amount of plastic waste, catalytic cracking is an interest...
Fluid catalytic cracking (FCC) is an important process for the conversion of gas oil to gasoline. Th...
In this study a comparison of 3-lump and 4-lump kinetic models predicting the yield of gas...
This work focuses on the development of vortex chamber technology for the generation of rotating flu...
A multi-fluid Eulerian model is applied to simulate the flow behavior and catalytic cracking reacti...
A three-dimensional and two-phase flow model to predict the dynamic behavior of a fluid catalytic cr...
A computational fluid dynamic (CFD) code has been developed for fluid catalytic cracking (FCC) riser...
Design and scale-up of fluid catalytic cracking (FCC) riser is still largely empirical, owing to lim...
Design and scale-up of fluid catalytic cracking (FCC) riser is still largely empirical, owing to lim...
This work aims to test the application of computational fluid dynamics (CFD) modeling to fixed bed c...
Fixed bed reactors with a single fluid phase are widely used in the refining or petrochemical indust...
Computational fluid-dynamic (CFD) is a useful tool to understand the performance and help the desig...