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Electrified Methane Reformer Produces Far Less Carbon Dioxide

By Bob Yirka , Tech Xplore | May 24, 2019

A team of researchers from several institutions in Denmark, along with colleagues from Sintex and Haldor Topsoe, has developed an electrified methane reformer that produces far less CO2 than conventional steam-methane reformers. In their paper published in the journal Science, the group describes their new technology and how well it works. Kevin Van Geem, Vladimir Galvita and Guy Marin with the Laboratory for Chemical Technology and Center for Sustainable Chemistry in Ghent have published a Perspective piece on the work done by the team in the same journal issue.

Production of hydrogen is big business. Approximately 60 million tons are made each year. It is used primarily to make methanol and ammonia for fertilizer. Some researchers estimate that collectively, steam-methane reformers account for approximately 3 percent of all global CO2emissions.

The steam-methane reformer is a very large device that is used to extract hydrogen from methane. It is also a major emitter of CO2 into the atmosphere. It is typically housed in a large, six-story building where natural gas is burned to heat methane and water under pressure causing the molecules to form syngas—a mixture of carbon monoxide and hydrogen. It also produces CO2 when some of the mixture does not combust properly and as the natural gas is burned. In the new effort, the team in Denmark sought to build a methane reformer that uses electricity instead of natural gas to heat the methane and water. The goal was to reduce both CO2 emissions and costs associated with making hydrogen.

The team reports that the resulting device is significantly smaller than a conventional methane reformer and far cleaner. By using electricity, they were able to heat the methane/water mixture more evenly, which resulted in fewer CO2 emissions. Also, the heating process itself produced no CO2. The researchers point out that if their device were powered by electricity generated from a renewable resource, they could reduce the footprint of hydrogen production dramatically. They suggest that if all the steam-methane reformers in the world were replaced by electrified systems, the world would see a 1 percent drop in CO2emissions.

 

 

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