| CPC H01M 8/0618 (2013.01) [B01D 53/04 (2013.01); B01D 53/229 (2013.01); B01D 71/021 (2013.01); B01D 71/022 (2013.01); B01D 71/028 (2013.01); B01J 23/745 (2013.01); B01J 23/755 (2013.01); C01B 3/48 (2013.01); C01B 3/501 (2013.01); C01B 3/56 (2013.01); H01M 8/04014 (2013.01); H01M 8/0675 (2013.01); H01M 8/0687 (2013.01); H01M 8/1231 (2016.02); B01D 2256/16 (2013.01); B01D 2257/302 (2013.01); C01B 2203/0233 (2013.01); C01B 2203/0283 (2013.01); C01B 2203/066 (2013.01); C01B 2203/0894 (2013.01); C01B 2203/1058 (2013.01); C01B 2203/1241 (2013.01); C01B 2203/127 (2013.01); C01B 2203/84 (2013.01); H01M 2008/1293 (2013.01)] | 20 Claims |

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1. A method for coproduction of hydrogen, electrical power, and heat energy, comprising:
desulfurizing a feed stream to form a desulfurized feed stream;
pre-reforming the desulfurized feed stream to form a methane rich gas, wherein the pre-reforming is performed at a steam to carbon ratio (S/C) of about 3 to about 4;
providing the methane rich gas to a membrane separator comprising a water-gas shift catalyst to increase an amount of hydrogen in the methane rich gas, the membrane separator being operated at a temperature between about 300° C. and about 550° C.;
producing a hydrogen stream in a permeate from the membrane separator, wherein the hydrogen is compressed to about 400 bar to about 900 bar and dispensed to a fuel cell vehicle;
providing a retentate stream from the membrane separator to a solid oxide fuel cell (SOFC); and
producing electrical power and heat in the SOFC from the retentate stream.
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