TRISO-X Completes Vertical Construction Of TX-1 Fuel Fabrication Facility
The title of this post, is the same as that of this news item from X-energy.
These two bullet-points act as sub-headings.
Completion of vertical construction marks major milestone for first-in-the-nation commercial scale advanced nuclear fuel fabrication facility
Project advances into interior buildout, fuel fabrication equipment installation and construction of supporting facilities
These two paragraphs add more detail.
TRISO-X, LLC (“TRISO-X” or the “Company”), a wholly-owned subsidiary of X-Energy, Inc. (Nasdaq: XE) (“X-energy”), today announced the completion of vertical construction at TX-1, its first-in-the-nation advanced nuclear fuel fabrication facility in Oak Ridge, Tennessee. The milestone completes the primary building structure of the 214,000-square-foot facility and enables the project to advance fully into its next phase of construction, including interior buildout, installation of fuel fabrication equipment and continued construction of supporting facilities.
“Completing vertical construction is a major milestone for TX-1 and another tangible demonstration of the progress our team is making in Oak Ridge,” said Joel Duling, President of TRISO-X. “We are moving from constructing the core and shell of the facility to building out the interior utilities, installing manufacturing equipment, and constructing key support capabilities. Every milestone brings us closer to establishing a new domestic source of advanced nuclear fuel and supporting the deployment of the next generation of American nuclear reactors.”
Note.
- Oak Ridge is one of the United States premier nuclear facilities.
- It would be like building a similar facility for specialist nuclear reactor fuel at Harwell in the UK.
This is without doubt a very professional start to the X-energy programme.
I also feel that the fourth paragraph has important information.
Once operational, TX-1 is expected to produce approximately 700,000 TRISO-X fuel pebbles annually, equivalent to 5 metric tons of uranium (“MTU”), with capacity to provide fuel for up to 11 Xe-100 reactors. The U.S. Nuclear Regulatory Commission (“NRC”) granted TRISO-X a 40-year Special Nuclear Material License for the facility earlier this year, the first-ever NRC Category 2 fuel fabrication license issued for the processing of high-assay low-enriched uranium. TX-1 is expected to be the first new commercial-scale advanced U.S. nuclear fuel fabrication facility built in more than 50 years.
Note.
- TX-1 will be able to support eleven Xe-100 reactors.
- Four Xe-100 reactors will be built initially at Dow’s Seadrift site.
- In Hartlepool Nuclear Reactor Moves To UK Regulatory Assessment, I said that Hartlepool will eventually be a 12-pack site.
I can envisage a fuel strategy based on TX-1, which is something like this.
TX-1 will provide the TRISO fuel for the four reactors at Dow’s Seadrift site.
TX-1 will provide the TRISO fuel for the initial reactor or reactors at a new site like Hartlepool, or for other licensees like Amazon or North Western.
TX-1 will be cloned as necessary to create TX-2, TX-3, TX-4 etc. as more Xe-100 reactors are built.
I am sure, that there is relevant expertise to make TRISO-X fuel pebbles safely in Japan, Korea and the UK of the known partners of X-energy.
The Wikipedia entry for the Dragon reactor finishes with these three paragraphs.
The choice of helium coolant was made after a long debate within the UKAEA between proponents of helium and carbon dioxide, with helium ultimately selected. Groundbreaking occurred in 1960. It operated from 1965 to 1976, and is generally considered extremely successful.
Dragon’s construction was followed by similar work in the US, leading ultimately to the much larger Fort Saint Vrain Nuclear Power Plant. This suffered from a number of problems due to corrosion and the customer soured on the design. Contracts for similar models in the US that were being signed were cancelled, and although Dragon suffered none of these issues, no orders were forthcoming in Europe either. By this time the market had largely standardized on the pressurized water reactor (PWR) for the large buildout that occurred during the 1970s and 80s, and the decision was made to shut down Dragon.
As of 2023, Dragon is being decommissioned.
Note.
- It appears only two reactors using TRISO fuel have been constructed.
- The 20 MW Dragon reactor was extremely successful.
- The 330 MW Fort Saint Vrain reactor had corrosion problems.
- Both reactors used helium gas as a coolant.
- The Wikipedia entry for the Fort Saint Vrain reactor details the corrosion problems.
- According to Google AI fuel for Fort Saint Vrain was fabricated at the General Atomic Fuel Fabrication Facility in San Diego, California.
- According to Google AI fuel for the Dragon reactor was fabricated on-site at Winfrith.
After writing these seven points, I have concluded that TRISO-fueled helium-cooled nuclear reactor designs better suited to small reactors?
What does Google AI think?
I asked Google AI “Are TRISO-fueled helium-cooled nuclear reactor designs better suited to small reactors?” and received this reply.
TRISO-fueled, helium-cooled reactor designs are exceptionally well-suited for small and micro-modular reactor applications because their physical properties scale down efficiently to provide inherent safety and high-temperature operation.
Why They Suit Small Reactors
Inherent Safety (Walk-Away Safe): Each TRISO fuel particle acts as its own tiny containment system, capable of withstanding extreme temperatures (well over 1,600°C) without melting or releasing radioactive fission products. In a small reactor design, the high surface-area-to-volume ratio allows residual decay heat to dissipate passively through the reactor vessel walls, meaning the reactor cannot suffer a catastrophic meltdown even if active cooling completely fails.
Simplified Helium Cooling: Helium is chemically inert and does not absorb neutrons or become radioactive. In smaller reactor configurations, helium’s single-phase gas state eliminates the high-pressure water loops and massive containment structures required by traditional large light-water reactors.
High-Temperature Process Heat: Because helium can operate at very high temperatures without boiling off, small TRISO-gas systems can deliver high-grade industrial heat (useful for chemical plants or hydrogen production) alongside electricity.
Compact Footprint: Small modular reactor (SMR) and microreactor developers (such as X-energy and Ultra Safe Nuclear Corporation) leverage these traits to design factory-fabricated units that can be transported and sited near urban or off-grid industrial locations.
Key Challenges
Power Density and Size: Helium has a lower volumetric heat capacity than water, meaning gas-cooled cores can be physically bulkier per megawatt than water-cooled equivalents, placing a premium on optimizing core geometry for micro-scales.
Supply Chain and Cost: High-Assay Low-Enriched Uranium (HALEU) and specialized TRISO manufacturing face immature supply chains and higher first-of-a-kind costs.
The more I read about X-energy’s technology, the more I like it.
Centrica, X-energy Advance Nuclear Plans As UK Regulators To Begin Design Review For Xe-100
The title of this post, is the same as that of this press release from Centrica.
This is the sub-heading.
On the one-year anniversary of the Centrica X-energy partnership being signed, the UK Government has directed regulators to accept the X-energy Xe-100 Advanced Modular reactor into the Generic Design Assessment, marking a significant step toward UK commercial licensing.
Under their partnership, the companies intend to deploy up to 6 GW of new nuclear capacity in the UK (10-20 Xe-100 power stations depending on size of each installation)
These first two paragraphs add some details.
Centrica and X‑Energy, Inc., a leading developer of advanced nuclear reactors and fuel technology, today announced that X‑energy’s Xe‑100 Generation IV advanced Small Modular Reactor (“SMR”) has been accepted into the United Kingdom’s Generic Design Assessment (“GDA”) process.
GDA acceptance formally triggers the process of assessing the design’s acceptability for deployment and operation ahead of the technical and environmental evaluations required for site‑specific licensing and permitting. The assessment is expected to take approximately three years and will be administered by the UK Office for Nuclear Regulation (“ONR”), the Environment Agency (EA), and Natural Resources Wales
To learn more, I asked Google AI for what it knows on the Xe-100 reactor and I received this.
The Xe-100 is an advanced Generation IV high-temperature gas-cooled pebble-bed small modular nuclear reactor developed by the American company X-energy.
Key Specifications & Design
Power Output: Generates about 80 megawatts of electricity (MWe) or 200 MW thermal per unit, and can be scaled up into a four-pack configuration yielding 320 MW.
Cooling System: Uses inert helium gas instead of water to remove heat from the core, reaching operating temperatures above 750°C.
Fuel Type: Runs on proprietary TRISO-X fuel pebbles, where each billiard-ball-sized pebble contains roughly 18,000 microscopic TRISO fuel particles that act as individual containment vessels.
Note.
- 320 MW may seem small, but you have to remember Sizewell A was two 210 MW Magnox reactors and it operated for forty years.
- I like the choice of helium for a coolant. Especially, as the gas is widely used for cooling superconducting magnets, so there must be plenty of expertise.
- Helium is also present in the atmosphere at 5.2 parts per million.
- I also like the concept of the fuel pebbles.
These are some of my questions.
Where Was TRISO Fuel Developed?
The Wikipedia entry for TRISO Fuel has a History section, which starts with this paragraph.
Coated-particle ceramic fuels were initially developed in the United Kingdom as part of the Dragon reactor project. During the development of the Dragon reactor, its designers became concerned by the need to purge gaseous fission products from the reactor core and their potential migration to other parts of the reactor This concern led to the choice of coated-particle fuel, where the fuel would be formed from small particles of uranium then coated with pyrolytic carbon. The inclusion of silicon carbide as a diffusion barrier was first suggested by D. T. Livey in 1961, in order to better retain fission products.
Note.
- The United States and Germany made contributions to the development of TRISO fuel.
- the first commercial reactor to use TRISO, was the 330 MWe Fort Saint Vrain Nuclear Power Plant
- The experimental High Temperature Test Reactor in Japan, constructed in 1998, uses prismatic UO2 TRISO fuel.
- Japan has the only TRISO-fueled reactor in commercial operation.
- Oak Ridge National Laboratory in the United States, developed the process used to make TRISO fuel.
The Wikipedia entry for the Dragon reactor is worth a read.
These are the first two paragraphs of its Wikipedia entry.
Dragon was an experimental high temperature gas-cooled reactor at Winfrith in Dorset, England, operated by the United Kingdom Atomic Energy Authority (UKAEA). Its purpose was to test fuel and materials for the European High Temperature Reactor programme, which was exploring the use of tristructural-isotropic (TRISO) fuel and gas cooling for future high-efficiency reactor designs. The project was built and managed as an Organisation for Economic Co-operation and Development/Nuclear Energy Agency international project. In total, 13 countries were involved in its design and operation during the project lifetime.
Originally conceived as a small research reactor, during the design phase it grew larger. The choice of helium coolant was made after a long debate within the UKAEA between proponents of helium and carbon dioxide, with helium ultimately selected. Groundbreaking occurred in 1960. It operated from 1965 to 1976, and is generally considered extremely successful.
Who Are The Technology Partners Of X-energy?
I had to ask Google AI this question and received this reply.
X-energy works with major technology, industrial, and energy partners to develop and deploy its advanced small modular nuclear reactors (SMRs) and TRISO-based fuel technology.
Key Technology and Strategic Partners
Amazon and AWS: A primary investor (through the Climate Pledge Fund) and customer, Amazon collaborates with X-energy on scaling nuclear energy for data centers and AI infrastructure. X-energy, Amazon Web Services (AWS), NVIDIA, and Idaho National Laboratory are founding members of Project Prometheus to apply AI to advanced nuclear deployment.
NVIDIA: A founding partner in Project Prometheus alongside AWS and Idaho National Laboratory, helping integrate AI accelerators and tools into nuclear design and operations.
Doosan Enerbility & Korea Hydro & Nuclear Power (KHNP): South Korean industrial partners collaborating to support multi-gigawatt deployments of Xe-100 reactors and manufacture key components.
Energy Northwest: A utility partner working on X-energy’s first-of-a-kind project development in Washington state.
Dow Inc.: Partnered with X-energy to deploy an initial four-unit Xe-100 plant at Dow’s Seadrift chemical manufacturing site in Texas.
Centrica: Partnered through a Joint Development Agreement to deploy Advanced Modular Reactors and pursue up to 6 gigawatts of new nuclear capacity in the United Kingdom.
IHI Corporation: Partnered to expand U.S.-Japan supply chain collaboration and commercial-scale manufacturing for reactor components.
Oak Ridge National Laboratory: Collaborates with X-energy’s fuel subsidiary, TRISO-X, on advanced nuclear fuel research.
Note.
- There are companies and organisations here from Korea, Japan, the US and the UK.
- Do Amazon and Centrica see an Xe-100 reactor as a reliable way of powering a data centre without a grid connection?
- The Korean and Japanese companies would be ideal to ensure the quality of reactor and other key compoonents.
- Chemical manufacturing sites use a lot of electricity and Dow’s contribution could define a widespread use of the Xe-100.
- Oak Ridge have been a client of mine in the past and like AWRE in England, I would trust their nuclear technology.
I also believe that if you put these companies in a joint venture, you’ll get out more ideas than you expect.
Who Are The Financial Partners Of X-energy?
I had to ask Google AI this question and received this reply.
Amazon & Climate Pledge Fund: Led major funding rounds (including a $500 million investment in 2024 and ongoing backing) and holds a significant stake in the company.
Jane Street: Led X-energy’s oversubscribed $700 million Series D financing round.
Ares Management: Provided financial backing and funds across multiple investment rounds alongside special purpose acquisition sponsorships.
Emerson Collective: Participated as a key venture capital backer across multiple funding rounds.
NGP Energy Capital Management: Contributed significant capital through multiple financing stages.
Segra Capital Management: Acted as an ongoing financial participant in major capital raises.
Other Investors: Includes ARK Invest, Point72, Galvanize, Ken Griffin (Citadel founder), XTX Ventures, Reaves Asset Management, and the University of Michigan.
Note that like the technology, the finance comes from a wide variety of sources.
This all sounds like a good positive start.
Will Centrica, X-energy Be Going For A Multi-Country Design Review For Xe-100?
There are four major countries with extensive nuclear power experience, with stakes in the Xe-100; Japan, Korea, the US and the UK.
There is also Oak Ridge in the US, which appears to be supplying the concept of the fuel.
If this group can’t convince the regulators in these four countries, that they have a safe and viable project, then they shouldn’t be in business.
Conclusion
It’s now mainly up to the regulators.
Unfortunately, you get stories with titles like this article on the BBC, which have a title of Green Party Leader Criticises Nuclear Reactor Plan.
Molten Salt And Human Sweat: The Weird Batteries That Could Store Renewable Energy
The title of this post is the same as that of this article in The Guardian.
This is the sub-heading.
From Nevada to Manchester, developers are trialling innovative solutions to clean energy’s biggest challenge
These first three paragraphs give a taste of what is to come.
In the deserts of the United Arab Emirates a sprawling clean energy project, stretching across an area roughly the size of 12,600 football fields, will play host to a breakthrough allowing solar energy to power the equivalent of half a million homes through the night.
The Gulf state has been steadily combining 5.2GW of solar power capacity with 19GWh of battery storage to create the largest battery scheme in the world.
Meanwhile, about 7,500 miles away, at the US’s National Renewable Energy Laboratory facility in Colorado, researchers and engineers are making some of the smallest batteries the world has ever seen. A fraction of the size of the grid-scale lithium-ion batteries used to store renewable energy, they have been designed to power electronic tags that will track the 3in-long (about 7.5cm) young from salmon and eel species.
And seeing, that they used to be the Manchester Guardian and that Andy Burnham is surely the man-of-the-day for other reasons, Highview Power’s 50 MW/300 MWh at Carrington in Manchester gets a big mention under a section heading of Liquid Air, with Burnham in hi-vis jacket and hard hat.
This picture, which is courtesy of The Guardian, shows the groundbreaking ceremony of the Carrington battery.
Andy Burnham is third from the right.
The Guardian article is very much a must read, that features projects from the United Arab Emirates, Colorado, Finland, Manchester, Nevada and Japan.
Mooir Vannin Offshore Wind Farm
This is a wind farm off the Isle of Man, that I missed as it is not on Wikipedia’s List of Offshore Wind Farms In The United Kingdom.
But it does have a web site, which has this handy map.
Note.
- The wind farm will have a capacity of 1.4 GW.
- Ørsted is building the web farm.
- It has planning permission.
- The operations base for the proposed Mooir Vannin Offshore Wind Farm will be located at Douglas Harbour on the Isle of Man.
- The Port is Owned By The Isle Of Man Government.
- Anticipated operational start date is the mid 2030s. I’ll assume 2035.
- According to the web site, connection will be to Douglas on the Isle of Man and Penwortham, Lancashire in the UK.
- Penwortham is part of Preston.
- Penwortham substation already has a 50 MW/50 MWh BESS and may get a bigger one.
- Current fossil-fuel power stations on the Isle of Man, include a number of diesel power stations and a 64 MW CCGT. They also have a 23 MW steam generator.
It looks like Mooir Vannin is large enough to give the island a carbon-free energy supply, backed up, by the UK National Grid at Penwortham.
I asked Google AI, “If The Isle of Man Was Going Into The Data Centre Business”, and received this reply.
The Isle of Man is actively positioning itself as a premier hub for data centres, tech firms, and AI companies. The government is utilizing its robust infrastructure, strong regulatory environment, and competitive tax policies to attract high-value data businesses to the island.
It also looks like they have a water system, that has a hydro-electric power-station.
Ørsted Is Danish
Ørsted is Danish and all of those countries to the North East of the UK have lots of islands.
So I asked Google AI, this question.”Does Denmark Have Any Islands With Power Stations?”, and received this comprehensive answer.
Yes, Denmark has several islands with power stations, ranging from natural islands utilizing large wind and biomass facilities to massive, pioneering “Energy Islands” built specifically as offshore power hubs.
Key Examples Include:
Bornholm (Baltic Sea): Designated as a major green “Energy Island” hub. It functions as a massive collection and distribution point for surrounding offshore wind farms, routing renewable energy to both the Danish grid and neighboring countries like Germany.
SamsØ (Kattegat strait): Known globally as a renewable energy island.
It is entirely powered by local onshore and offshore wind turbines and uses a mix of solar and battery storage systems to manage its energy needs, including marina charging.
North Sea Energy Island (VindØ): This is a colossal artificial island project (located roughly 80–100 km off the coast of Jutland) designed to act as an offshore power plant.
It acts as a hub to harvest and convert wind energy from hundreds of surrounding turbines.
Are Ørsted and Highview Power Still Talking?
In Highview Power, Ørsted Find Value In Integrating Offshore Wind With Liquid Air Energy Storage, it appeared that they still were.
As it appears that Highview Power’s Liquid Air Energy Storage can be sized to the application, I wouldn’t be surprised to see one of their batteries on an island powered by Danish wind turbines.
In Is Sumitomo Heavy Industries Highview Power Energy Storage System On Line At Hiroshima?, I describe how a Highview Power application, that uses cold, solar panels and a small Highview Power battery to increase the efficiency of a CNG Terminal.
How Many Of The UK’s Power Stations Are On Islands?
I asked Google AI this question and I received this answer.
There are three major, conventional thermal power stations on the UK’s offshore islands (two in Scotland and one in the Channel Islands), alongside several small-scale community-owned renewable plants that operate entirely off-grid.
The main island-based power stations include:
Lerwick Power Station (Shetland): A 66-73 MW diesel-fired plant commissioned in 1953. It provides a baseline of electricity for the Shetland mainland.
Sullom Voe Terminal Power Station (Shetland): An independent gas-fired station (roughly 92 MW capacity).
Its primary purpose is to serve the Sullom Voe gas terminal, but it also supplies the Shetland grid.
Queen’s Road Power Station (Jersey): A multi-engine facility in the Channel Islands that uses a mix of gas turbines and diesel generators to maintain island capacity.
(Note: Major UK islands, like the Isle of Wight, Anglesey, and the Isle of Skye, are physically connected to the mainland electricity grid via subsea cables, so they do not house their own large-scale, standalone power stations).
Beyond these conventional thermal stations, several smaller Scottish islands run on micro-grid, renewable-only power stations.
For instance:The Isle of Eigg: Powered entirely by a micro-grid of hydro, wind, and solar, completely disconnected from the UK grid.
It looks to me, that the Isle of Man, Shetland and Jersey, are the three most likely islands to get upgraded power systems and it also looks like Ørsted have the experience to make a good fist of it.
Conclusion
I have asked the question, I asked for the UK for a range of countries and I have received some interesting answers from Google AI. But the general trend seems to be to use appropriately-size medium-size and upwards, zero-carbon power stations with microgrids as on the Island of Eigg in the UK.
But I do believe that applying the technology that Ørsted, Highview Power and others are rolling out, that we can give the remote islands and places of Buckminster Fuller’s Spaceship Earth, the zero carbon power they need.
Oman Set For Next Frontier In Energy Storage
The title of this post is the same as that of this article on the Times of Oman.
This first paragraph introduces the story.
Oman’s solar story is already being written. Manah, Ibri II, and the next wave of solar IPPs moving through procurement have placed the Sultanate firmly among the region’s renewable leaders. The next chapter, the one every solar-rich nation is racing to author, is about the long-duration energy storage technology that powers the grid after sunset. Lithium-ion batteries handle the first few hours effectively. What comes after is the harder problem, and it is increasingly being solved by a technology called Liquid Air Energy Storage, or LAES: a technology that aligns naturally with Oman’s industrial base.
The article then describes how the technology to handle LAES technology aligns with all their expertise in handling liquified natural gas.
This paragraph outlines Oman’s expertise in cryogenic engineering.
Oman’s natural advantage in this race deserves far more attention than it has received. Cryogenic engineering, the discipline of holding substances at extraordinarily low temperatures without losing them, is the most demanding part of any LAES plant. It is also the foundation of the LNG export business that has run out of Qalhat for a quarter of a century. The workforce that liquefies natural gas at minus 162 degrees Celsius is the same workforce that can liquefy air. The insulation expertise, the compressor specifications, and the maintenance discipline are all already here, refined over decades and built locally. Few nations possess this depth of capability as a domestic resource. Oman does.
If Oman have called this one right, then any nation with plentiful renewable resources, of solar, hydro, offshore wind or geothermal, should be looking at Liquid Air Energy Storage.
This is not the first time, that Liquid Air Energy Storage has been paired with LNG.
Highview Power are the UK pioneers of Liquid Air Energy Storage and on the Projects page of their web site, there is this section on Japan.
Our investment partner Sumitomo Heavy Industries (SHI), together with Hiroshima Gas, is developing a grid‑scale LAES demonstration plant in Hatsukaichi, Hiroshima. The 5 MW, four‑hour facility will use waste cold from an adjacent LNG terminal to enhance efficiency and sustainability, showcasing the flexibility of Highview’s modular LAES technology. The plant is scheduled to be operational in 2025.
In Is Sumitomo Heavy Industries Highview Power Energy Storage System On Line At Hiroshima?, I describe how the Hiroshima plant held a completion ceremony on the 9th December, 2025.
Liquid Air Energy Storage and LNG may seem unlikely bedfellows, but when engineers share a few beers, joint projects seem to emerge.
Is Sumitomo Heavy Industries Highview Power Energy Storage System On Line At Hiroshima?
From some work I did at ICI in the 1970s on a PACE231R analog computer, I believe that Highview Power may have an extremely promising way of storing energy.
The Highview Power web site talks of Sumitomo Heavy Industries, who are building one of Highview’s batteries at Hiroshima in Japan.
So I asked Google AI the question in the title of this post and received this comprehensive answer.
Yes, the Sumitomo Heavy Industries (SHI) Highview Power liquid air energy storage (LAES) commercial demonstration plant in Hatsukaichi, Hiroshima, is operational, having commenced operations on December 1, 2025.
Key details about the plant:Location: Within the Hiroshima Gas Hatsukaichi LNG Terminal.Capacity: 5 MW output with 4-hour storage (4 MW charging).Technology: Uses Highview Power’s CRYOBattery™ technology, specifically utilizing waste cold from the adjacent LNG terminal to improve efficiency.Role: The facility is designed to support grid stability and enhance renewable energy integration.A completion ceremony for the project was held on December 9, 2025. This news item from Sumitomo Heavy Industries gives more details.This paragraph describes Liquid Air Energy Storage or (LAES).
- It looks like the battery has a capacity of 5 MW/20 MWh.
- As it talks about using waste cold, this looks to be a very professionally-designed specialist application.
- But surely, that would be expected from a company like Sumitomo Heavy Industries.
There are hundreds of LNG terminals globally, with significant growth driven by over 300 projects (roughly 177 import/regasification and 124 export/liquefaction) expected between 2025 and 2030. In 2023, there were 22 countries with active liquefaction (export) capacity, while Europe alone operates roughly 28 large-scale terminals, supplemented by a rapidly expanding fleet of FSRUs.Export Capacity: In 2023, global liquefaction capacity was 472 million tonnes per annum (mtpa), with top exporters being Australia, the U.S., and Qatar.Expansion: By 2027, 52 new liquefaction terminals are expected to commence operations.Import Growth: European regasification capacity is expanding, with major terminals in Spain, France, Italy, and new additions in Germany and other nations.U.S. Infrastructure: The U.S. alone has more than 170 LNG facilities performing various services.
- They are listed in this Wikipedia entry.
- There are around thirty in Japan alone.
- Will Centrica add a 5 MW /20 MWh Highview Power battery to their Grain LNG Terminal?
- Each facility installed is claimed to be designed to support grid stability and enhance renewable energy integration, so the last part must cut carbon emissions.
Yes, several major chemical engineering and industrial processes generate significant amounts of “waste cold” (low-grade thermal energy or cryogenic energy) that is often discarded. While the chemical industry conventionally focuses on recovering waste heat, recovering waste cold is becoming increasingly popular for improving energy efficiency, particularly in cryogenic processes.
- Liquefied Natural Gas (LNG) Regasification
- Cryogenic Air Separation Units (ASUs)
- Dry Ice and CO2 Liquefaction
-
Liquid Nitrogen Vaporization
-
Emerging: Cryogenic Carbon Capture
- Creation of this page was not difficult, but you have to get the tricks right.
- I used Google Chrome and Google AI.
- My blog is hosted in WordPress.
- All pages on this blog, where I have had help in their creation from Google AI are tagged as such.
I would be happy to help anybody, who wanted to use Artificial Intelligence to create blog pages.
Japanese Company Takes Part In Spain’s Floating Wind Demonstration Project
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
Japan’s Electric Power Development, also known as J-Power, has joined the WHEEL floating offshore wind demonstration project in Spain.
These three paragraphs add more details.
The WHEEL demonstration project is led by the Madrid-headquartered company Esteyco. WHEEL will feature one turbine installed three kilometres off the eastern coast of Gran Canaria, Spain.
Through this project, J-Power aims to acquire knowledge in the manufacturing, assembly, installation, and operation of floating offshore wind power, contributing to the development of floating offshore wind projects in Japan and abroad, the company said.
A floating offshore wind turbine, with a capacity of 6.17 MW, will be constructed and tested using WHEEL, which combines the advantages of barge-type foundations and spar-type foundations.
There is a visualisation of the WHEEL project in the linked article.
Conclusion
I like the concept of WHEEL.
In Norwegians Developing Monopile Foundation For 100-Metre Depths, I write about my involvement with a company called Balaena Structures in the 1970s, who were trying to develop a reusable oil and gas platform. I have a feeling, that WHEEL and the Balaena have dynamic and floating properties in common.
World’s First Public Demonstration Of Hydrogen Engine Motorcycle
This title of post, is the same as that of this news item from Kawasaki.
This is the sub-heading.
On July 20, Kawasaki Motors, a member of the Kawasaki Heavy Industries Group, conducted the world’s first public demonstration run of a hydrogen ICE (internal combustion engine) motorcycle by a mass-production motorcycle manufacturer at Suzuka Circuit in Suzuka City, Mie Prefecture, Japan.
These three paragraphs outline the demonstration.
The hydrogen ICE motorcycle was designed and built as part of research that began in March 2023, with test runs starting this year, culminating in the public demonstration run. Mounted in the machine is a hydrogen engine based on the 998 cm3 In-Line Four Supercharged Engine found in Kawasaki’s Ninja H2 motorcycle, with modifications made to allow direct injection of hydrogen fuel into the cylinders. The motorcycle’s chassis was designed to accommodate hydrogen fuel canisters and a hydrogen fuel supply system on-board.
Hydrogen ICE motorcycles run on hydrogen combustion, producing the rumble and pulsating sensation that riders enjoy when twisting the throttle, while emitting mainly water.
As part of their carbon neutral initiative, Kawasaki Motors is currently conducting research and development with the aim of realizing a functioning hydrogen ICE motorcycle*2 as one carbon-neutral option for riders in the early 2030s.
Some people will prefer quiet, hydrogen-fuel cell motorcycles.
Lawnmowers And Other Small-Engined Equipment
As hydrogen fuel spreads around the countryside, I can see lots of rural equipment using it for motive power.
Liverpool Street Station Gets Polka Dot Sculpture
The title of this post, is the same as that as this article on the BBC.
This is the sub-heading.
A huge artwork made up of silver polka dots has been unveiled outside Britain’s busiest railway station.
These are the first two paragraphs.
Infinite Accumulation is Japanese artist Yayoi Kusama’s first permanent public artwork in the UK and her largest permanent public sculpture.
Funded by British Land and the City of London Corporation, it is the final artwork commissioned and installed by the Crossrail Art Programme for the Elizabeth line.
I took these pictures today.
Note.
- The area is getting to be a bit of a sculpture park, with other sculptures and plaques.
- All are protected by the City of London’s distinctive bollards. See The City Of London’s Soldiers for more pictures.
- The new sculpture, is probably worth nicking, with all that stainless steel.
- Liverpool Street station is a Grade Two Listed Building.
- I shall be adding extra pictures here. I shall be taking some at sunset.
I do like the new sculpture and the way it fits with the surrounding buildings.
SeaTwirl Partners With Local Firm To Bring Vertical-Axis Floating Wind Turbine To Japan
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
Sweden-based SeaTwirl has signed a Memorandum of Understanding (MoU) with Sumitomo Corporation Power & Mobility (SCPM) to promote its vertical-axis offshore floating wind turbine in the Japanese market.
These two paragraphs detail the responsibilities.
Under the MoU, SCPM will be responsible for identifying, marketing, negotiating, and contracting potential clients.
The Swedish company will be in charge of promoting and offering the products and services to potential clients.
Note.
- In SeaTwirl And Verlume Join Forces To Drive Decarbonisation Of Offshore Assets, I talk about their MoU with Verlume.
- In SeaTwirl, Kontiki Winds To Explore Powering Oil & Gas Assets With Floating Wind, I talk about their MoU with Kontiki Winds.
SeaTwirl either likes using Memoranda of Understanding (MoU) or their technology is very good.
The article says this about the applicability of SeaTwirl to Japanese waters.
Japan has over 4,000 islands, and according to the Global Wind Energy Council (GWEC), it has approximately 128 GW of fixed-bottom offshore wind potential and 424 GW of floating offshore wind potential.
SeaTwirl said that its vertical-axis wind turbine is well-suited for the conditions in the Japanese offshore environment with its robust and flexible design and high serviceability.
That certainly looks to be a good match and I wonder, if this could end up as a three-way co-operation, with the inclusion of Verlume’s underwater batteries.
Will SeaTwirl and Sumitomo target other island nations or those with lots of islands like Croatia, Greece, the Caribbean, Italy, Micronesia and the Philippines?
