Updating the literature: Ammonia consumes 43% of global hydrogen

For years, many people — myself included — have been saying that ammonia consumes 55% of the hydrogen produced around the world. Although there are many authoritative sources for this figure, I knew that it was likely out of date. Until now, I had overlooked the International Energy Agency (IEA) 2019 report, The Future of Hydrogen, which provides up-to-date (and publicly downloadable) data for global hydrogen demand since 1975. According to the IEA, ammonia represented almost 43% of global hydrogen demand in 2018; refining represented almost 52%, and "other" demands accounted for 6%.


The Role of “Green” Ammonia in Decarbonising Energy Systems: Practical Demonstration and Economic Considerations

Ammonia has the potential to contribute significantly to the decarbonisation of energy systems, by offering a practical, carbon-free hydrogen storage and transportation vector as well as a green fuel in its own right. To better understand the prospects and challenges surrounding the use of ammonia in energy systems, Siemens is leading a collaborative project to build and test an ammonia-based energy storage system at the Rutherford Appleton Laboratory in the UK. Together with its project partners (the UK Science and Technology Facilities Council, the University of Oxford and the University of Cardiff), and supported by Innovate UK, Siemens will demonstrate…


Ammonia Renewable Energy Fuel Systems at Continental Scale

We must soon “run the world on renewables” but cannot, and should not try to, accomplish this entirely with electricity transmission. New, abundant, low-cost, unconventional natural gas supplies are finite; burning adds CO2 to Earth’s atmosphere. Humanity’s goal must be nothing less than: Transforming the world’s largest industry from ~80% fossil to ~100% renewable, CO2-emission-free energy sources as quickly as we prudently and profitably can. We should now carefully consider using pipeline networks, rather than the electricity grid, for solving the three salient technical problems of renewable energy (RE) at lower cost: Transmission: from diverse, stranded, remote, rich RE resources…


Japan – a future market for Australian solar ammonia

Japan and Australia are intimately linked in energy trade. Australia counts energy exports as a major source of foreign exchange income and Japan, which uses nearly 4 times the primary energy as Australia, imports nearly all of it. Approximately 40% of Australia’s coal exports are bought by Japan and were worth $AUD15.4 billion in 2012-13. Over 70% of Australia’s LNG exports went to Japan in the same period and earned over $AUD12billion. Future energy supply is high on the agenda for Japan. Currently 43% of its primary energy is in the form of imported oil mostly from the Middle East.…


The Investment Case for Sustainable Ammonia Synthesis Technologies

For 100 years, we have made ammonia with the Haber-Bosch process, almost always using a fossil fuel feedstock. Recently, though, government policy, academic innovation, commercial opportunity, and human morality have combined to spur the development of new, “green” ammonia manufacturing processes: sustainable, low-carbon technologies. These new synthesis methods augur a future in which, instead of the single, over-riding drive toward the economies of scale associated with Haber-Bosch, an array of different feedstocks, uses, and business models will support a multiplicity of competing technologies serving multiple markets. This presentation aims to introduce the factors affecting the appetite for commercialization and adoption…


Ammonia Economy – The Global Potential

The development of the ammonia economy will depend on successful deployment of a range of new technologies in the context of the existing ammonia industry and the world’s many existing energy markets. This report will provide framework on: Supply/demand and status of the global ammonia industry. Plausible response of growth and prices in response to a giant new market in fuels. New incremental applications which may lead to ‘disruptive innovation’ and rapid takeoff for ammonia fuels. Barriers to takeoff.