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Publication Date:
October 2007
ISSN:
1542-6580
DOI:
10.2202/1542-6580.1311

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New Journal at De Gruyter!

Ed. by de Lasa, Hugo / Xu, Charles

1 Issue per year

Increased IMPACT FACTOR 2011: 0.790

 

Rapid Solar-thermal Decarbonization of Methane in a Fluid-wall Aerosol Flow Reactor -- Fundamentals and Application

Jeffrey Wyss1 / Janna Martinek2 / Michael Kerins3 / Jaimee K Dahl4 / Alan Weimer5 / Allan Lewandowski6 / Carl Bingham7

1University of Colorado, jeffrey.wyss@colorado.edu

2University of Colorado, janna.martinek@colorado.edu

3University of Colorado, michael.kerins@colorado.edu

4University of Colorado, Jaimee.Dahl@bp.com

5University of Colorado, alan.weimer@colorado.edu

6National Renewable Energy Laboratory, allan.lewandowski@worldnet.att.net

7National Renewable Energy Laboratory, carl_bingham@nrel.gov

Citation Information: International Journal of Chemical Reactor Engineering. Volume 5, Issue 1, Pages –, ISSN (Online) 1542-6580, DOI: 10.2202/1542-6580.1311, October 2007

Publication History:
Published Online:
2007-10-02

A graphite fluid-wall aerosol flow reactor heated with concentrated sunlight has been developed over the past five years for the solar-thermal decarbonization of methane. The fluid-wall is provided by an inert or compatible gas that prevents contact of reactants and products of reaction with a graphite reaction tube. The reactor provides for a low thermal mass that is compatible with intermittent sunlight and the graphite construction allows rapid heating/cooling rates and ultra-high temperatures. The decarbonization of methane has been demonstrated at over 90% for residence times on the order of 10 milliseconds at a reactor wall temperature near 2000 K. The carbon black resulting from the dissociation of methane is nanosized, amorphous, and ash-free and can be used for industrial rubber production. The hydrogen can be supplied to a pipeline and used for chemical processing or to supply fuel cell vehicles.

Keywords: solar; reactor; methane; decarbonize; transport; aerosol

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