Tag: Reforming

TechnipFMC’s EARTH ® technology, with its structured catalyst jointly developed by TechnipFMC and Clariant, has been proven to be a cost effective way to drastically improve productivity and energy efficiency of the steam reforming process, while reducing the CO 2 footprint per unit hydrogen and syngas product. The technology can be applied in projects to increase the capacity of ammonia and methanol plants and allows significant reduction of greenhouse gas emissions. S. Walspurger of Technip Benelux B.V. and S. Gebert of Clariant GmbH report on the EARTH ® technology and its applications.

There is an urgent need to limit the rise in global temperatures to avoid severe environmental and societal impact. This can be expressed as a target to achieve net zero carbon emissions by 2050. The provision of decarbonised hydrogen at scale is an essential step in helping to achieve net zero. Johnson Matthey’s Low Carbon Hydrogen (LCH) technology permits the needs of scale and urgency to be met. J. Pach of Johnson Matthey presents a serious response to a serious threat.

This year’s Nitrogen + Syngas conference was held from 17-19 February in The Hague, Netherlands.

The UK’s Department for Business, Energy and Industrial Strategy has awarded £28 million ($36 million) of government funding to five demonstration projects for low carbon hydrogen production, as part of a larger stimulus package to cut industrial carbon emissions. The projects targeted for funding include:

The increased severity of operating conditions in modern steam methane reformers requires catalysts with high catalyst activity and good mechanical stability to avoid premature replacements or unplanned shutdowns. F. Morales Cano, M. Stenseng and M. Feddersen of Haldor Topsoe describe a new catalyst formulation with a very homogenous and stable carrier material delivering the high activity and high mechanical strength required for long time operation.

The different flame velocities of reactants in the combustion space of a secondary reformer have a significant impact on the gas inlet temperature of the catalyst and the methane conversion in front of the catalyst. Based on this fact, Hanno Tautz Engineering introduces an alternative secondary reformer design. Compared with the state-of-the-art-technology, the alternative design shows advantages for hydrogen production efficiency and product capacity.

M. Wilson, J. Brightling and M. Carlsson of Johnson Matthey detail the development of steam reforming catalyst, with a focus on an operating case study, where Johnson Matthey has combined pelleted and structured reforming catalysts to deliver additional value from an existing asset.

CRU’s Nitrogen + Syngas conference and exhibition takes place this year at the World Forum, The Hague, in The Netherlands, from 17 to 19 February 2020.