Energy Recuperation in a Spiral Reactor for Lean Methane Combustion: Heat Transfer Efficiency and Design Guidelines

Fugitive methane emissions contained in the ventilation air (VAM) from underground coal mines make a significant contribution to the global methane emissions. These methane emissions have a high global warming potential (GWP) and should be mitigated to combat climate change. This study reports on a novel integrated recuperator reactor concept designed to mitigate these low-concentration methane streams using catalytic combustion. The paper analyzes the heat recovery aspects of the novel design and illustrates a computer-aided design approach to system development. Both computational and experimental methods were used in the investigation. The double-spiral counterflow design is shown to be able to eliminate methane from the flow stream with the feed at room temperature. A methodology is illustrated that can be used to determine the operating limits of the proposed recuperative reactor system. This system is suitable for use inside a mine.

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Publication Details

Journal
Processes
Published
2025-04-12
DOI
https://doi.org/10.3390/pr13041168
Citations
2
Primary Topic
Heat transfer and supercritical fluids
Type
article
Field-Weighted Citation Impact
2.67

Funders

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article

Energy Recuperation in a Spiral Reactor for Lean Methane Combustion: Heat Transfer Efficiency and Design Guidelines

Robert Hildebrandt, Roman J. Jędrzejczyk, Joseph P. Mmbaga, Damian K. Chlebda et al.
2 citations
Processes
Heat transfer and supercritical fluids
2.67
article

Energy Recuperation in a Spiral Reactor for Lean Methane Combustion: Heat Transfer Efficiency and Design Guidelines

Robert Hildebrandt, Roman J. Jędrzejczyk, Joseph P. Mmbaga, Damian K. Chlebda, Robert E. Hayes, Joanna Profic-Paczkowska, Jacek Dańczak
article en
2 citations

Abstract

Fugitive methane emissions contained in the ventilation air (VAM) from underground coal mines make a significant contribution to the global methane emissions. These methane emissions have a high global warming potential (GWP) and should be mitigated to combat climate change. This study reports on a novel integrated recuperator reactor concept designed to mitigate these low-concentration methane streams using catalytic combustion. The paper analyzes the heat recovery aspects of the novel design and illustrates a computer-aided design approach to system development. Both computational and experimental methods were used in the investigation. The double-spiral counterflow design is shown to be able to eliminate methane from the flow stream with the feed at room temperature. A methodology is illustrated that can be used to determine the operating limits of the proposed recuperative reactor system. This system is suitable for use inside a mine.

ProcessesVol. 13(4)
Jagiellonian University (PL), University of Alberta (CA), Central Mining Institute (PL)
National Research Centre
Openalex Percentile: Top 13%
Heat transfer and supercritical fluids
2.67
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