Process Heat for Chemical Industry

Boardman, Richard D.; McKellar, Michael G.; Dold, Brian Dempsey; Foss, Andrew Wilkin; Bryan, Haydn C.

doi:10.1016/b978-0-12-819725-7.00198-7

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DOE OSTI · 1905581

Process Heat for Chemical Industry

Boardman, Richard D.·McKellar, Michael G.·Dold, Brian Dempsey·Foss, Andrew Wilkin·Bryan, Haydn C.

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Abstract

Process heating with nuclear energy can reduce greenhouse gas emissions by reducing combustion of fossil fuels in fired heaters as steam boilers. Light water reactors can replace the majority of steam duties used by industry; however, high temperature processes such as steam methane reforming require advanced high temperature reactors. Here, guidance on matching the scale of nuclear reactors with specific industries is provided. Principles of heat transport, temperature boosting, and substitution for hot combustion gases are also discussed in this section.

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22 GENERAL STUDIES OF NUCLEAR REACTORS 30 DIRECT ENERGY CONVERSION Advanced reactors Brayton cycle Combined heat and power Exergy Greenhouse gas emissions High temperature gas-cooled reactors Light-water reactors Methanol Microreactors Molten-salt reactor Next Generation Nuclear Plant Small modular nuclear reactors (SMNRs)Steam methane reforming Subcritical steam Supercritical steam Temperature boosting Ultra-supercritical steam

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Boardman, Richard D., McKellar, Michael G., Dold, Brian Dempsey, Foss, Andrew Wilkin, Bryan, Haydn C.. 2021-06-23. Process Heat for Chemical Industry. https://doi.org/10.1016/b978-0-12-819725-7.00198-7

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