This paper presents numerical study of co- and counter-flow arrangements for catalytic plate reactors (CPR). CH4 steam reforming coupled with CH4 oxidation is simulated using detailed surface reaction mechanisms. Effect of inlet velocities to the reforming channel, oxidation channel, and material properties of the plate on the resulting plate temperature and CH4 conversions is studied. The simulation results agree very well with an industrial scale reformer unit and calculations are further carried out to evaluate the number of CPRs and stacks required to replace and industrial uni
Methane bi-reforming has gained interest recently for its potential of converting CH4 and CO2 into c...
The ZoneFlow reactor (Tribute Creations, LLC) is a tubular reactor with two types of internals: a co...
Graduation date: 2010Numerical modeling of methane-steam reforming is performed in a micro/mini-chan...
This paper presents numerical study of co- and counter-flow arrangements for catalytic plate reactor...
A novel co-flow heat exchanger intended for volumetrically efficient hydrogen production and utilizi...
Current technologies in chemical engineering focus on process intensification in order to remain cos...
In this study, steam reforming of methane coupled with methane catalytic combustion in a catalytic p...
This paper presents both experimental and modeling investigations of a catalytic wall fuel processor...
Methane reforming is one of the important technologies that produce syngas or hydrogen for the produ...
A novel co-flow heat exchanger intended for volumetrically efficient hydrogen production and utilizi...
A catalytic flat plate fuel reformer offers better heat integration by combining the exothermic cata...
In this study the mathematical modelling of a catalytic microstructured plate reactor for the produc...
The steam reforming of methane in a parallel plate microreactor, consisting of alternating channels ...
A one-dimensional mathematical model was developed to simulate the performance of catalytic fixed be...
Steam methane reforming (SMR) is the most common commercial method of industrial hydrogen production...
Methane bi-reforming has gained interest recently for its potential of converting CH4 and CO2 into c...
The ZoneFlow reactor (Tribute Creations, LLC) is a tubular reactor with two types of internals: a co...
Graduation date: 2010Numerical modeling of methane-steam reforming is performed in a micro/mini-chan...
This paper presents numerical study of co- and counter-flow arrangements for catalytic plate reactor...
A novel co-flow heat exchanger intended for volumetrically efficient hydrogen production and utilizi...
Current technologies in chemical engineering focus on process intensification in order to remain cos...
In this study, steam reforming of methane coupled with methane catalytic combustion in a catalytic p...
This paper presents both experimental and modeling investigations of a catalytic wall fuel processor...
Methane reforming is one of the important technologies that produce syngas or hydrogen for the produ...
A novel co-flow heat exchanger intended for volumetrically efficient hydrogen production and utilizi...
A catalytic flat plate fuel reformer offers better heat integration by combining the exothermic cata...
In this study the mathematical modelling of a catalytic microstructured plate reactor for the produc...
The steam reforming of methane in a parallel plate microreactor, consisting of alternating channels ...
A one-dimensional mathematical model was developed to simulate the performance of catalytic fixed be...
Steam methane reforming (SMR) is the most common commercial method of industrial hydrogen production...
Methane bi-reforming has gained interest recently for its potential of converting CH4 and CO2 into c...
The ZoneFlow reactor (Tribute Creations, LLC) is a tubular reactor with two types of internals: a co...
Graduation date: 2010Numerical modeling of methane-steam reforming is performed in a micro/mini-chan...