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Ammonia, Hydrogen P2X2P Demonstrations Slated for Europe
Article

At this early point in the energy transition, many groups are formulating big-picture concepts for the design of a sustainable energy economy, and many more are developing discrete technologies that will be relevant as the transition advances. The multi-stakeholder H2020 European project known as “FLEXibilize combined cycle power plant through Power-to-X solutions using non-CONventional Fuels” (FLEXnCONFU) is coming from a different direction. Its premise is that construction of a bridge to the future should start now, and should be anchored in aspects of the current energy system that are likely to endure over the long-term.

Green ammonia plant proposed for Orkney
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Eneus Energy recently announced that it intends to build a green ammonia plant in Orkney, Scotland. Eneus describes itself as a “project developer and technology integrator for green ammonia,” and this announcement marks the first public disclosure of a site from its “portfolio” of projects under development. Orkney has been a net energy exporter since 2013, with wind, tidal, and wave energy generation far exceeding local demand; the islands have also been producing green hydrogen for some years. If this latest project moves ahead, the 11 ton per day green ammonia plant would be powered by two new wind turbines, each of 4.2 MW capacity, expanding the existing Hammars Hill wind farm and providing the island with a scalable solution for renewable energy storage and distribution that does not require grid transmission.

CSIRO at Work on SOEC Technology
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Earlier this month the on-line trade journal gasworld published an interview with CSIRO's Ani Kulkarni that illuminated a research program focused on solid oxide electrolysis technology. The takeaway is that the CSIRO program is making progress that can, in Kulkarni’s words, “elevate this technology from the lab bench to become cost-effective at an industrial scale.”

Methane splitting and turquoise ammonia
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Most hydrogen today is produced from fossil fuels – steam methane reforming of natural gas, partial oxidation of coal or oil residues – and entails large CO2 emissions. This fossil hydrogen can be called “grey hydrogen”. Or sometimes, brown. The same color scheme applies to the ammonia produced from it, so we have “grey ammonia.” Or brown ammonia, your call. The exact carbon footprint depends on the fuel used and the efficiency of the facility, so you could easily identify many shades of grey. There is, however, another option to deliver clean hydrogen – and now another colour: turquoise, or green-blue (or blue-green). This is the colour of hydrogen from methane pyrolysis, a process that directly splits methane into hydrogen and solid carbon. Instead of being a waste, like CO2, that must be disposed of safely, solid carbon is potentially a resource.

Project GERI: BP's green ammonia feasibility study
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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.

News from Mitsubishi Hitachi Power Systems
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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.

Maritime Ammonia: ready for demonstration
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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.

The full picture: an assessment of shipping’s emissions must be based on full lifecycle accounting
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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.

Hydrogen Filling Stations: techno-economic analysis of on-site ammonia reforming and H2 purification
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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.”