Development of the integrated hydrogen production system using micro-structured devices

Y. C. Byun, Y. Kwon, J. Choe, Kwang Ho Song

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

An integrated fuel processor, which produces hydrogen for fuel cell from aqueous methanol solution, has been developed by employing wall-coated microchannel catalytic reactors for steam reforming and preferential oxidation reaction. The developed fuel processor can produce the amount of hydrogen equivalent to a few hundred watts of electricity, when supplied to a fuel cell. We fabricated methanol fuel processor consists of a catalytic combustor, heat exchangers, evaporators, a reformer, and a PrOx(preferential oxidation) reactor. CuO/ZnO/Al2O3 catalyst was used for reforming and Pt/Al2O3 catalyst was used for both preferential oxidation and catalytic combustion. Besides the reformer and the PrOx reactor, the whole system also required three micro-structured evaporators. The main evaporator for the reformer feed vaporization was integrated with the catalytic combustor, and the heat recuperated from combustor vent gas is used to vaporize the methanol feed for two additional evaporators. The integrated system was operated consistently with methanol conversion of over 99.0 mol% at 300 °C, and the carbon monoxide concentration under 20 ppm in the final product flow.

Original languageEnglish
Title of host publication8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting
PublisherAmerican Institute of Chemical Engineers
Pages127-131
Number of pages5
ISBN (Print)9781604234688
Publication statusPublished - 2005 Jan 1
Event8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting - Atlanta, GA, United States
Duration: 2005 Apr 102005 Apr 14

Other

Other8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting
CountryUnited States
CityAtlanta, GA
Period05/4/1005/4/14

Fingerprint

Evaporators
Hydrogen production
Combustors
Methanol
Oxidation
Fuel cells
Hydrogen
Methanol fuels
Catalysts
Vents
Steam reforming
Carbon Monoxide
Reforming reactions
Microchannels
Vaporization
Carbon monoxide
Heat exchangers
Electricity
Gases

ASJC Scopus subject areas

  • Chemical Engineering (miscellaneous)

Cite this

Byun, Y. C., Kwon, Y., Choe, J., & Song, K. H. (2005). Development of the integrated hydrogen production system using micro-structured devices. In 8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting (pp. 127-131). American Institute of Chemical Engineers.

Development of the integrated hydrogen production system using micro-structured devices. / Byun, Y. C.; Kwon, Y.; Choe, J.; Song, Kwang Ho.

8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting. American Institute of Chemical Engineers, 2005. p. 127-131.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Byun, YC, Kwon, Y, Choe, J & Song, KH 2005, Development of the integrated hydrogen production system using micro-structured devices. in 8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting. American Institute of Chemical Engineers, pp. 127-131, 8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting, Atlanta, GA, United States, 05/4/10.
Byun YC, Kwon Y, Choe J, Song KH. Development of the integrated hydrogen production system using micro-structured devices. In 8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting. American Institute of Chemical Engineers. 2005. p. 127-131
Byun, Y. C. ; Kwon, Y. ; Choe, J. ; Song, Kwang Ho. / Development of the integrated hydrogen production system using micro-structured devices. 8th Topical Conference on Microreaction Technology 2005, Held at the 2005 AIChE Spring National Meeting. American Institute of Chemical Engineers, 2005. pp. 127-131
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