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Ammonia: A New Business for Nuclear Energy
Presentation

Ammonia: A New Business for Nuclear Energy

Richard Boardman

Nuclear Energy can be used to support and help decarbonize traditional steam methane reforming and electrolysis to produce hydrogen. Options for integrating nuclear with ammonia, and ammonia derivatives include providing power to an air separation unit to produce nitrogen, and hydrogen combustion to deplete oxygen while providing heat for high temperature steam electrolysis. A comparison of CO2 emissions reduction and costs of urea synthesis indicate there is a strong business case for using nuclear reactors at large and small-distributed ammonia plants. A case for producing 3 tons of ammonia from a 1-MWe power supply will be given.

Terrestrial Energy, National Lab, Southern Company – Partnership Overview Using Integral Molten Salt Reactor Technology with HyS Acid for Hydrogen Production
Presentation

Terrestrial Energy, National Lab, Southern Company – Partnership Overview Using Integral Molten Salt Reactor Technology with HyS Acid for Hydrogen Production

John Kutsch

Demands for safe secure supplies of potable water across the planet are increasing faster than can be provided by natural, ever depleting sources of fresh water. At the same time, world demand for electric power is also accelerating. Making H2 from Natural Gas is not an optimal or efficient process that is also un-economic at higher gas costs. An Integral Molten Salt Reactor (IMSR) is uniquely suited to provide the very high temperatures (585 °C+ working temps.) that are needed to both generate significant amounts of Hydrogen, Oxygen (a feed for industrial oxygen uses) and Electricity needed for advanced economies…

Coupling Integral Molten Salt Reactor Technology into Hybrid Nuclear: Direct Ammonia Production via H2 High Temperature Steam Electrolysis
Presentation

Coupling Integral Molten Salt Reactor Technology into Hybrid Nuclear: Direct Ammonia Production via H2 High Temperature Steam Electrolysis

John Kutsch

Demands for safe, secure supplies of potable water across the planet are increasing faster than can be provided by natural, ever-depleting sources of fresh water. At the same time, world demand for electric power is also accelerating. Making H2 from Natural Gas is not an optimal or very efficient process that is also un-economic at higher and erratic gas costs. An Integral Molten Salt Reactor (IMSR) is uniquely suited to provide the very high temperatures (600 °C+ working temps) that are needed to generate both significant amounts of High Temperature Steam Electrolysis (HTSE)-derived Hydrogen & Oxygen (a feed for industrial…

Terrestrial Energy and the Production of Carbon-Free Ammonia
Article

Terrestrial Energy and the Production of Carbon-Free Ammonia

Stephen H. Crolius March 16, 2017

On January 24, the nuclear energy company Terrestrial Energy USA informed the United States Nuclear Regulatory Commission of its plans “to license a small modular, advanced nuclear reactor in the United States.” Many steps later – sometime in the 2020s – the American subsidiary of the Canadian company Terrestrial Energy, Inc., hopes to bring its IMSR technology to market. IMSR stands for integral molten salt reactor. The IMSR stands apart from conventional nuclear technology on several dimensions. On the dimension of operating temperature, the IMSR is hot enough that it can be beneficially integrated with high-temperature industrial processes. According to the company’s research, ammonia production could be a candidate for such integration.

Integrating Ammonia Production with Nuclear Power
Article

Integrating Ammonia Production with Nuclear Power

Stephen H. Crolius December 09, 2016

In an interview today, Dr. Yaoli Zhang from Xiamen University discussed the case for integrating ammonia production with nuclear power. Dr. Zhang is currently a Visiting Professor at the Massachusetts Institute of Technology in Boston. The idea would be to harness both unused generating capacity and waste heat to produce ammonia with a near-zero carbon footprint.