An energy-efficient plasma methane pyrolysis process for high yields of carbon black and hydrogen

A novel thermal plasma process was developed, which enables economically viable commercial-scale hydrogen and carbon black production. Key aspects of this process are detailed in this work. Selectivity and yield of both solid, high-value carbon and gaseous hydrogen are given particular attention. Fo...

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Veröffentlicht in:International journal of hydrogen energy 2023-01, Vol.48 (8), p.2920-2928
Hauptverfasser: Fulcheri, Laurent, Rohani, Vandad-Julien, Wyse, Elliott, Hardman, Ned, Dames, Enoch
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container_end_page 2928
container_issue 8
container_start_page 2920
container_title International journal of hydrogen energy
container_volume 48
creator Fulcheri, Laurent
Rohani, Vandad-Julien
Wyse, Elliott
Hardman, Ned
Dames, Enoch
description A novel thermal plasma process was developed, which enables economically viable commercial-scale hydrogen and carbon black production. Key aspects of this process are detailed in this work. Selectivity and yield of both solid, high-value carbon and gaseous hydrogen are given particular attention. For the first time, technical viability is demonstrated through lab scale reactor data which indicate methane feedstock conversions of >99%, hydrogen selectivity of >95%, solid recovery of >90%, and the ability to produce carbon particles of varying crystallinity having the potential to replace traditional furnace carbon black. The energy intensity of this process was established based on real-time operation data from the first commercial plant utilizing this process. In its current stage, this technology uses around 25 kWh per kg of H2 produced, much less than water electrolysis which requires approximately 60 kWh per kg of H2 produced. This energy intensity is expected to be reduced to 18–20 kWh per kg of hydrogen with improved heat recovery and energy optimization. [Display omitted] •A methane pyrolysis plasma process for high value carbon and hydrogen is presented.•Methane feedstock conversions of >99% were achieved.•Hydrogen selectivity of >95% was achieved.•Solid recovery of >90% was achieved.•Energy intensity of the first commercial plant is 25 kWh per kg of H2 produced.
doi_str_mv 10.1016/j.ijhydene.2022.10.144
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subjects Carbon black
Engineering Sciences
Hydrogen
Methane decomposition
Methane pyrolysis
Thermal plasma
title An energy-efficient plasma methane pyrolysis process for high yields of carbon black and hydrogen
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