This week, ARENA announced funding for the Geraldton Export-Scale Renewable Investment (GERI) Feasibility Study, led by BP Australia. While this project begins small, with a pilot-scale 20,000 ton per year green ammonia plant selling into domestic markets, it could lead to a 1,000,000 ton per year (1.5 GW capacity), export-oriented green ammonia plant.
A series of announcements from Mitsubishi Hitachi Power Systems this year shows the breadth of the company’s efforts to prepare for the energy transition. MHPS is a prominent global supplier of large gas turbines for power generation, and is a member of Japan’s Green Ammonia Consortium.
At least four major maritime ammonia projects have been announced in the last few weeks, each of which aims to demonstrate an ammonia-fueled vessel operating at sea. In Norway, Color Fantasy, the world's largest RORO cruise liner, will pilot ammonia fuel. Across the broader Nordic region, the Global Maritime Forum has launched NoGAPS, a major consortium that aims to deploy "the world's first ammonia powered deep sea vessel" by 2025. In Japan, a new industry consortium has launched that goes beyond on-board ship technology to include "owning and operating the ships, supplying ammonia fuel and developing ammonia supply facilities." And the Ministry of Land, Infrastructure, Transport and Tourism (MLIT), which published its roadmap last month, aims to demonstrate ammonia fuel on "an actual ship from 2028" — specifically, a 80,000 dwt ammonia-fueled bulk carrier.
When you go to see a film in the cinema, the closing credits go on for another five minutes after the film is over. Although few moviegoers stay to read them, the lengthy credit rolls clearly show that a blockbuster is not just about actors but also about the hundreds of people behind the scenes. These people are as important as the main actors in the movie making process. A similar situation occurs with a ship’s climate emissions: if we only account for what’s coming out of the stacks, we don’t understand the real climate impact of the fuel. The full life-cycle of emissions contributes to climate pollution, and we need to recognise their role in climate change. Shipping is an industry with long-term planning horizons and long-lived assets. It is crucial that policy makers in the International Maritime Organization (IMO) and the European Union (EU) provide clear guidance and a robust policy framework to account for the full climate impact of fuels.
This month, a team of researchers from Fuzhou University in Fujian, China, published a new paper in the journal Sustainable Energy & Fuels that provides a “Techno-economic analysis and comprehensive optimization of an on-site hydrogen refuelling station system using ammonia.” The study concludes that “the H2 production cost of the NH3-fed on-site hydrogen refuelling station was at least 15% lower than other carbon-free routes (such as electrolysis, solar thermolysis, photo-electrolysis, etc.), and comparable to that of a methane steam reforming system with carbon capture and storage.”
It’s easy for people working on a particular technology or product to get overly focused on its wonderful promise. Sometimes we forget to consider whether or how our favorite idea fits into the larger issue. Of course, nearly everyone reading this piece in Ammonia Energy will be heartily into the idea of green ammonia as an energy carrier in a zero-emissions world. But let’s keep things in context – is green ammonia one good idea, one possibility, or is it an absolute requirement of a full solution to climate change? I looked at this question, not only for ammonia but for every category of technology, in the research and analysis project that became The 100% Solution, a recently-published book. It lays out five “pillars” that constitute the physical minimum steps needed to solve climate change.
Last week Agustin Valera-Medina, Associate Professor at Cardiff University in the United Kingdom, told Ammonia Energy that work is underway on a £1.9 million (USD $2.3 million) project that will advance the frontiers of ammonia-gas turbine (AGT) technology. Valera-Medina is serving as the Principal Investigator of the Storage of Ammonia for Energy (SAFE) – AGT Pilot, a four-year effort that hopes to develop “a unique, competitive technology that can be implemented to support the hydrogen transition.”
The COVID-19 pandemic is a human tragedy of epic proportions. It directly affects the life and livelihoods of people all around the world as an unprecedented healthcare and economic crisis. It is clear by now that COVID-19 marks an inflection point or “black swan” event in history that will have a shaping influence on society and the economy for many years to come; a post COVID-19 era will begin. In the same way that the developing renewable energy industry significantly benefited from the economic stimulus packages to address the financial crisis of 2008/2009, we now have the opportunity to kick-start the next important phase of global CO2 emissions reduction through support of the developing CO2 Capture, Utilization and Storage (CCUS) & Clean Hydrogen Economy. Many of these clean technologies have been proven at industrial scale and implementation has started. Still, commercial projects will continue to need financial incentives for broad deployment that will enable accelerated technology maturation and reductions in project risk and cost. With the support from COVID-19 stimulus packages, the private sector will be able to execute CCUS & Clean Hydrogen projects in the near-term, secure and create jobs, grow the economy and mitigate the risk of “green swan” climate change events through significant CO2 emissions reduction.
In March 2020, IHI Corporation, JERA Co., and Marubeni Corporation announced a feasibility study "to evaluate possible applications for the co-firing of ammonia in thermal power plants." The Japanese companies have contracted with NEDO to deliver detailed technical and economic analysis on the use of ammonia as a direct fuel for power generation. In addition, with support from Woodside Energy in Australia, they "will examine the construction and operation of world-scale ammonia facilities and the optimisation of supply chain costs" to support "large-scale export of hydrogen as ammonia."
Last month the Commonwealth Bank of Australia (CBA) announced that it has “signed an AUD $400 million [USD $256 million] three-year bilateral sustainability-linked loan” with Australian conglomerate Wesfarmers. This represents at least the second occasion on which an ammonia producer has linked its cost of capital to progress in meeting sustainability goals. In July 2019, Yara announced that it had signed a USD $1.1 billion revolving credit facility with a group of 13 lenders whose margin “will be adjusted based on Yara’s progress to meet its carbon intensity target by 2025.”