Toyota Launches New Generation Sora Fuel Cell Bus, Based On Isuzu Bus Platform
The title of this post, is the same as that of this article on Sustainable Bus.
This is the sub-heading.
Toyota has launched the new-generation Sora fuel cell route bus, offering a stated range of more than 300 km and using a platform jointly developed with Isuzu
These two paragraphs add more detail.
The new Sora combines Isuzu’s battery-electric full-flat route bus platform with Toyota’s fuel cell system. Toyota Motor Corporation announced the launch on 5 October 2026, eight years after introducing the first-generation Sora in 2018.
The new Sora follows the fuel cell bus cooperation between Toyota and Isuzu announced in September 2025, when the companies said production of their jointly developed model would start in FY2026 at J-Bus’s Utsunomiya plant. The cooperation followed an earlier initiative involving Isuzu, Hino and Toyota announced in 2022.
Note.
- There are also two detailed drawings of the bus in the article.
- The first shows the fuel cell stack and three hydrogen tanks in a hump on the roof.
- I would assume that as Toyota and Isuzu, jointly developed the platform, that senibly, both hydrogen and electric buses use the same chassis and electric drive train.
- The bus seems to be extremely well-equipped.
- The article also says Toyota has also developed a new large-capacity hydrogen tank for commercial vehicles.
I have a strong feeling, that this fuel cell bus, with its 300 km range, 10 minute refuelling and dual-Japanese pedigree will be a big winner.
Could Centrica Build An Alternative Grid For The UK?
Andy Burnham’s Speech In Liverpool Introduced The Great British Grid
This extract is what he said on energy and the grid.
One of the biggest barriers to growth in the UK is the cost of energy. British businesses and billpayers pay some of the highest energy costs in Europe.
Within 10 years, I want those costs to be in line with our neighbours.
This means reforming a broken energy market so it better serves the public interest.
We are already taking more control of our electricity prices with a massive expansion of home-grown renewables and nuclear. I have asked Miatta to speed up the breaking of the link between what we pay for power at home and the international gas market, to get bills down.
And we will be pragmatic in relation to the North Sea as we build a bridge to a clean energy future and face the climate crisis.
But it’s not just the price. The system needs to work better too. You would not believe how many businesses complain to me they can’t get going because they can’t get connected to the grid.
It pushes costs up. It drags growth down. And it holds Britain back. We won’t get the growth and inward investment we need if we don’t fix it.
So, for the first time, we will have a national energy plan and we will bring back local democratic control through a stronger role for mayors and local leaders.
But we must go further. Today I can announce our plan for Great British Grid. A new branch of Great British Energy. A publicly-owned company that will challenge the private sector operators.
But is Andy Burnham’s plan realisable?
The Great Grid Upgrade From Norwich To Tilbury
National Grid are aiming to replace the grid between Norwich and Tilbury to add extra capacity and the details of the project are on this web site.
This is a map of the route.
To ascertain the level of objections, I asked Google AI “Norwich to Tilbury grid objections” and received this reply.
Local councils, residents, and organizations object to National Grid’s Norwich to Tilbury Project primarily due to the visual and ecological damage of using 50-meter overhead pylons instead of offshore or underground alternatives.
Key Objections and Concerns
Overhead Pylons vs. Alternatives: Opposition to roughly 100 miles (159–183 km) of towering onshore overground lines. Objectors demand fully costed offshore high-voltage direct current (HVDC) or underground cabling options.
Environmental & Landscape Harm: Severe impact on protected and valued landscapes, including the Dedham Vale national landscape and Waveney Valley, alongside extensive tree loss and disruption to local wildlife habitats.
Heritage & Property Impacts: Damage to the settings of historic buildings and significant property or land devaluation, including negative impacts on planned developments like the Dunton Hills Garden Village in Brentwood.
Unrealistic Delivery Timeline: Concern that the targeted 2030/2031 completion deadline is overly ambitious, forcing rushed implementation without proper scrutiny of cumulative effects from multiple East Anglian energy projects.
Community Disruption: Strain on local highways, disruptive weekend and bank holiday working hours, agricultural disruption, and a lack of adequate community compensation or tangible social value.
The Nimbys don’t seem very keen on more and bigger overhead power lines.
Conclusion
I believe building a second set of power lines across the country will be very difficult, if not impossible.
The Investment Of Centrica And Others In innovative Energy Technology
I think we’ll see innovation from the likes of Centrica, Octopus, National Grid and others, as to how we get our energy delivered.
Centrica and others, who include the UK Government, have backed four British companies, that I’m sure will be used in the grid of 2030.
- Ceres have developed a fuel cell that runs on hydrogen, biomethane or natural gas. It was thought it would be used to power data centres, but it could be used to provide power anywhere there is a gas supply, like a big factory or a new housing estate.
- Heata was developed by British Gas Research and is part of a data centre, which sits in a domestic hot water tank and the waste heat gives you affordable hot water.
- Highview Power make liquid-air batteries up to 300 MW/3.2 GWh. Significantly, Andy Burnham performed the groundbreaking for a 50 MW/300 MWh battery in Manchester, when he was Mayor of Greater Manchester.
- HiiROC from Hull University have a way to make hydrogen that uses only a fifth of the electricity. Cemex are using HiiROC to make low-carbon cement at Rugby. I also think Jim Ratcliffe has plans for HiiROC, as he is an investor with Centrica and others.
Could Centrica build an innovative Great British Grid from their investments?
I don’t think so because of the problem I indicated earlier with Norwich to Tilbury of putting up more overhead cables.
But all of these four companies can provide support and enhancement to the existing grid.
- Ceres could be used to provide extra power, where it is needed, if there is a suitable gas supply.
- Heata could be used to give a large proportion of houses and flats affordable hot water.
- Highview Power could be used to provide energy storage where too much energy is being generated at times and needs to be stored for a number of hours.
- I believe that many large wind farms will be connected to the grid, with a Highview Power battery at the sub-station.
- I also believe that we could see Highview Power batteries installed offshore to smooth wind farm output.
- HiiROC could produce hydrogen when and where it is needed.
The big problem will be that the grid will get more complicated and will be more difficult to control.
In Centrica And Return Partner To Scale Battery Flexibility In Germany, I ask Google AI if Centrica are good at optimising batteries and received this reply.
Yes, Centrica is considered a strong and established player in grid battery (BESS) optimisation.
Centrica Energy leverages over 15 years of flexible asset trading experience and has actively optimised battery energy storage systems since 2018. They currently manage over 950 MW of grid-scale batteries on contract across the UK and Europe.
It may be difficult to manage all these assets, but it does appear that Centrica have the mathematicians and engineers, who are up to the task.
The Future Of Nuclear
Consider.
- The four nuclear stations at Hartlepool, Heysham 1, Heysham 2 and Torness are to be shut down by March 2030, which will lose approximately 5 GW of zero-carbon electricity.
- Hinckley Point C will deliver 3.2 GW from the early 2030s.
- Sizewell C will deliver 3.2 GW at some time in the future.
Can we rely on solar and wind power to power the UK?
It is not a question of can, but we have to.
But Centrica have made a bold move to link up with X-energy of the US to build a fleet of small modular reactors called an Xe-100.
- I wrote about the initial deal in Centrica And X-energy Agree To Deploy UK’s First Advanced Modular Reactors.
- In Hartlepool Nuclear Reactor Moves To UK Regulatory Assessment, I talk about how the first reactor will be built at Hartlepool.
- In Centrica, X-energy Advance Nuclear Plans As UK Regulators To Begin Design Review For Xe-100, I say more about the design and the parners in the Xe-100.
- In With Federal Funding Windfall, X-energy Advances Small Nuclear Reactor, I talk about US Federal funding for X-energy.
- In TRISO-X Completes Vertical Construction Of TX-1 Fuel Fabrication Facility, I describe how they are cracking on with the fuel facility in the US.
It certainly, seems to be a project that has started with a certain degree of momentum, which says to me, they have got the project management right.
But believe that these 80 MW Xe-100 reactors, if strategically placed around the country will keep us going as older nuclear and gas power stations are retired.
The Relationship Between Andy Burnham And Chris O’Shea
I wrote about this in Have Chris O’Shea And Andy Burnham Met?
I will assume its a good relationship, until proven otherwise.
Conclusion
I wonder whether in the end, the Great British Grid is a series of extensions to the current grid we have.
First Engine Start For First Hydrogen-Powered Locomotive
The title of this post, is the same as that of this article in the Windhoek Observer.
These three paragraphs add more details.
CMB.TECH Namibia’s has said the engine start for Namibia’s first hydrogen-powered locomotive represents an important step in the project’s development.
It is the first hydrogen dual fuel engine to be started in Africa and the first hydrogen dual fuel engine to be started in a locomotive worldwide.
The company revealed that a combined team of eight electrical, mechanical and software engineers, together with the engine commissioning engineer, worked into the night to prepare the locomotive for its first engine start.
These are a few points from the rest of the article.
- During the initial run, the BeHydro engine idled for approximately 30 minutes while the team carried out a series of checks.
- This 2,250-horsepower BeHydro dual fuel engine can operate on both diesel and green hydrogen, with the hydrogen to be produced locally at CMB.TECH Namibia’s facility in Walvis Bay.
- Namibia has a large fleet of idled locomotives that can be repowered with this cost-effective and future proof technology.
I first wrote about the Belgian BeHydro dual fuel engine in Green Tugboats? ‘Revolutionary’ Hydrogen Ship Engine Unveiled In Belgium.
Is History Repeating Itself?
Thirty or forty years ago, I was friendly with a steam locomotive enthusiast called Dick.
- Dick and his mates were helping various African countries, get their steam locomotives running again.
- The Chinese had sold Africa lots of diesel locomotives to replace European steam locomotives, that often dated from before the Second World War.
- But now these Chinese diesels were falling apart.
My friend and his mates were dragging the old steam locomotives out of the sidings and getting them going again.
So with a little help from the Belgians, are the Namibians bringing the ancient Chinese diesel locomotives into the net-zero world of the twenty-first century?
More About The Project
These paragraphs in the Windhoek Observerer describe the project.
- The project is the result of a strategic partnership between three companies firmly rooted in Namibia including TransNamib Holdings Limited, Africa Global Logistics and CMB.TECH Namibia.
- TransNamib is responsible for managing and operating the national rail network and freight services.
- Africa Global Logistics (AGL) is an established logistics operator active in Namibia, playing a key role in freight, transport and logistics operations across the country, with a strong focus on strengthening strategic transport corridors.
- AGL also manages operations at the Walvis Bay Multipurpose Bulk Terminal and operates one of Africa’s largest integrated logistics networks, with a presence in over 50 countries connecting ports, corridors and multimodal supply chains.
- These partners will operate Namibia’s first heavy‑duty freight service running on locally produced green hydrogen.
- Initially, 50 round trips will be covered between the Port of Walvis Bay and the Container Depot near Windhoek during the trial period, with the option to extend operations.
- Green hydrogen for the project will be produced off‑grid at CMB.TECH Namibia’s hydrogen plant in Walvis Bay.
Note.
- It seems very much a Namibian project.
- Namibia has plenty of wind and sun to make the green hydrogen.
- Would they be using an efficient process like HiiROC?
This OpenRailwayMap shows the location of Walvis Bay and Windhoek.
Note.
- Walvis Bay is indicated by the blue arrow.
- Windhoek is East of Walvis Bay, where there is a major railway junction.
- Windhoek and Walvis Bay are about 224 miles apart and a train journey takes between 9 and 11 hours.
It will probably be one of the longest hydrogen-powered rail journeys in the world.
Irizar Hydrogen Coach With Bosch 190 kW Fuel-Cell System Faces Test Operation In Madrid
The title of this post, is the same as that of an article on Hydrogen Central.
Irizar have a page on their web site, which describes their hydrogen-powered coaches.
This paragraph describes their range.
The way our clients operate will not be changed, because the Irizar i6S Efficient Hydrogen has a range of up to 1000 km and minimal charging times, of around 20 minutes. In addition, it can run in 100% electric mode for short times, if required.
All hydrogen-powered coaches seem to claim a 1,000 km. range.
Can The Hiiroc Process Be Used To Make Sustainable Aviation Fuel (SAF)?
After Writing Cemex To Install World-First Hydrogen Process At UK Cement Plant, I just had to ask this question of Google AI and I received this reply.
Yes, the HiiROC process is currently being developed and studied to produce Sustainable Aviation Fuel (SAF).
How the Process Works
Thermal Plasma Electrolysis (TPE): HiiROC’s core technology splits hydrocarbons (like biomethane, natural gas, or flare gas) into clean hydrogen and solid carbon without burning them or emitting carbon dioxide.
Thermal Plasma Reforming (TPR): Building on TPE, this adaptation is being evaluated to create synthetic e-SAF by combining the produced clean hydrogen with carbon dioxide at a lower electricity cost than traditional water electrolysis.
Current Developments
Feasibility Study: HiiROC received grant funding from Scottish Enterprise to study a negative-carbon SAF business in Scotland through its subsidiary Zeleno Ltd and partner Stratus Energy Partners.
Partnerships: The initiative has drawn interest from aviation and energy stakeholders like Airbus, World Kinect, and the Forth Green Freeport to make power-to-liquid SAF more scalable and affordable.
It certainly seems it could be a possible route to SAF.
I should say, that when I worked at ICI at Runcorn, for a period, I had the privilege of sharing an office, with an elderly scientist, who before the Second World War, was closely involved in the development of polythene.
That was a long process, but in the end they got there, mainly because radar needed a top-class insulator for which polythene was the only solution.
Cemex To Install World-First Hydrogen Process At UK Cement Plant
The title of this post, is the same as that of this article on The Chemical Engineer from 2024.
These two paragraphs introduce the article.
CEMEX is set to trial a process developed by Hiiroc that uses plasma to produce hydrogen for greener industrial heat at its cement plant in Rugby, UK.
Cemex is finalising contract details now with UK-based process developer Hiiroc and expects to start engineering studies early next year with hydrogen production set for a “hard deadline” of January 2026. The cement major thinks the process is a better bet for producing hydrogen than water electrolysis because it requires 80% less electricity and wins out over steam methane reforming because it doesn’t produce CO2.
I believe that this process, which has its origins in Hull University, could revolutionise the manufacture of zero-carbon hydrogen.
The article describes its first big application at Cemex’s Rugby cement plant.
There are obviously issues to be solved and the article is mainly an interview with Alfredo Carrato, who is innovation advisor at Cemex Ventures.
These are some thoughts.
HiiROC Is Containerised
The article says this.
Carrato expects the changes required to integrate the process at the Rugby plant to be minimal. One or two of Hiiroc’s containerised process units will be plugged into the grid and pipes installed to carry hydrogen to the existing kiln where a new burner will be installed to combust the hydrogen producing heat to convert limestone to clinker.
It also says this.
If successful, the Rugby plant could see eight or nine of Hiiroc’s modules installed at the site, Carrato said.
There could be a lot of low-carbon cement coming out of Rugby.
But containerisation also means that any factory using natural gas for a lot of heat, can plug in a number of Hiiroc’s containerised process units and decarbonise.
Worldwide Expansion
The article says this.
“We do have plans to expand this across our operations worldwide for a number of reasons. Hydrogen certainly is a relevant vector that we are considering to decarbonise our operations. And second, the modularity of the solution allows for a quick deployment.”
Cemex Aim To Be Net Zero By 2050
The article says this.
Cemex has set itself a target of becoming net zero by 2050. The Hiiroc process can make use of biomethane so could allow Cemex to replace its use of fossil fuel natural gas. It could also use renewable electricity to power its plasma burners. In terms of output, the process produces carbon black which can be used as an additive in its cement-making operations or sold for use in tyres, rubbers, plastics, inks, and toners.
“Because of the stoichiometry, the volume of carbon black is pretty significant, meaning we are not able to take the entirety of what is produced. So, we need to figure out how to also monetise it.”
Hiiroc is searching for alternative markets too. It has partnered with researchers in Europe and the US to investigate how the carbon black from its process could be used in other applications including filters, soil enhancers, and animal feed.
Note.
- The process can run on biomethane, as well as natural gas and chemical plant flare gas.
- The carbon black could be a long-term problem, but I suspect a use will be found.
Having worked in integrated chemical plants, I believe innovative uses for both feedstocks and what to do with the carbon black will be found.
Water Stress
The article says this.
Carrato said: “We’re looking at not only the carbon footprint, but also the stress on water. Water electrolysis has a lot of water demand, whereas technology such as Hiiroc has none. In regions where there’s a lot of water scarcity, we believe that Hiiroc can move the needle [for industrial decarbonisation] way better than water electrolysis.”
Any water problems seem soluble.
Conclusion
Alfredo Carrato of Cemex Ventures seems to be enthusiastic about his charge.
A Land Rover Defender Ambulance
This ambulance was parked outside the Red Cross in Moorfields, whilst I ate my breakfast in the LEON opposite.
Note.
- It was from the Lincolnshire Red Cross.
- It was a very professional conversion.
- Judging by the sign it appeared to be promoting the link between Jaguar Land Rover and the Red Cross.
As an occasional user of an ambulance, I have some views on the design of these vehicles.
Should Ambulances Be Hydrogen Powered?
I asked Google AI this question and received this answer.
Hydrogen power offers significant advantages for ambulances by combining long driving ranges with rapid refuelling times, making it a strong contender for emergency fleets.
The Case For Hydrogen Ambulances
Fast Refuelling: Hydrogen tanks can be refuelled in about five minutes, keeping vehicles ready for back-to-back emergency shifts without long charging downtimes.
Longer Range: Fuel cell and battery hybrid setups (like the ZERRO project) can travel up to 300 miles, which is vital for rural areas or long-distance hospital transfers.
Onboard Power: Hydrogen fuel cells can power heavy medical equipment without draining the main drive battery or requiring extra diesel generators.
The Challenges
Infrastructure Costs: Public hydrogen refuelling stations remain scarce, limiting where vehicles can operate and refuel.
Vehicle Costs: Building and buying hydrogen fuel cell systems is currently more expensive than standard battery-electric or diesel setups.
Electric Competitiveness: Standard battery-electric ambulances are already performing well in urban areas where depots allow for overnight recharging and shorter daily shifts.
Note.
- I have been a passenger in about four or five hydrogen fuel cell-powered buses. All were mouse-quiet with no vibration. This is surely important in an ambulance!
- I used to live next to a London paramedic sixty years ago and he said it was a stressful job. Would a calm environment help to relieve that stress?
- The onboard power capability is surely important and will get more important in the future.
- As more hydrogen-powered vehicles appear on the roads, hydrogen fuelling stations will be less scarce.
The long-range of a hydrogen-powered ambulance might mean that patients were taken to an appropriate hospital immediately.
How Does The Performance Of Electric-Powered And Hydrogen-Powered Ambulances Compare?
I asked Google AI this question and received this answer.
Electric-powered and hydrogen-powered ambulances compare across range, refueling time, energy efficiency, and onboard power capabilities:
Range and Operational Capacity
Electric Ambulances (BEV): Typically offer a range of around 70 to 120 miles on a single charge, which suits local response cars, patient transport, or shorter urban shifts.
Hydrogen-Electric Fuel Cell Ambulances (FCEV): Use hydrogen fuel cells as a range extender to charge onboard batteries, providing a significantly higher extended range of up to 300 miles, which is closer to traditional diesel vehicles for demanding shifts.
Refueling and Downtime
Electric Ambulances: Require time plugged into charging infrastructure to replenish batteries, which can take anywhere from tens of minutes on rapid chargers to hours depending on power limits, creating potential downtime during fleet rotations.
Hydrogen Ambulances: Can be refueled with compressed hydrogen in roughly 5 minutes, allowing for immediate back-to-back operational shifts without prolonged downtime.
Energy Efficiency and Onboard Power
Electric Ambulances: Feature high overall powertrain efficiency (converting over 85% of battery energy into motion) and lower moving-part maintenance costs, but heavy medical equipment loads draw heavily on the primary battery and can restrict operational range.
Hydrogen Ambulances: Offer onboard power off-take capabilities directly from the fuel cell system, enabling high-draw medical equipment to run continuously without draining the main drive energy or requiring a separate noisy generator. However, hydrogen systems have lower overall well-to-wheel thermodynamic efficiency and higher complexity.
Infrastructure and Deployment
Electric Ambulances: Benefit from a rapidly expanding public and depot charging grid, with several NHS trusts already successfully deploying electric response and transport vehicles.
Hydrogen Ambulances: Remain in early trial and prototype phases (such as projects via ULEMCo and HVS) because specialized hydrogen refueling stations are scarce and expensive to build.
I suspect that the nature of the terrain in an area, will also affect the type of power selected.
My Sister’s Burst Aorta
This is a personal observation.
- My sister lives near Colchester General Hospital.
- After her aorta burst, she dialled 999 and an ambulance was dispatched.
- The paramedics corrected assessed her problem and didn’t muck around.
- They decided to take her immediately to Papworth Hospital on the other side of East Anglia.
- The road between the two hospitals is dual-carriageway all the way and possibly with a Police escort, they made the trip in time.
- After several months in hospital, she returned home.
- My sister has now fully recovered.
I believe journeys like this, would be faster and more comfortable in a custom-designed high-performance hydrogen fuel-cell ambulance.
It should be noted that the East Anglian Ambulance Service has been known to station ambulances on the bridges over the dual-carriageways to shorten response times to road accidents.
Are Toyota HiLux Pickups Used As Ambulances?
I asked Google AI this question and received this answer.
Yes, Toyota Hilux pickups are used as ambulances, especially in remote, rural, or off-road environments where standard van-based ambulances cannot travel.
Common Configurations
Canopy / Rapid Response Style: The pickup bed is fitted with a secure, weatherproof canopy or Truckman top to carry a single stretcher and essential emergency gear.
Box-Type Modular Body: A fully enclosed, purpose-built medical compartment is mounted directly onto the Hilux chassis, offering a climate-controlled environment and space for advanced life support (ALS) equipment.
Where They Are Used
Off-Road & Disaster Zones: Mountain rescue teams, humanitarian groups, and military field operations rely on the Hilux’s 4×4 capability and high ground clearance.
Specialized Services: Organizations like wildlife hospitals use adapted Hilux trucks as animal ambulances to reach stranded or injured wildlife in rough terrain. International agencies like the UN and WHO also deploy them in regions lacking paved infrastructure.
I would expect that in designing the next generation Toyota HiLux, Toyota have improved on the design for ambulances.
Will A Hydrogen-Powered toyota HiLux Pickup Make A Useful Ambulance?
I asked Google AI this question and received this answer.
A hydrogen-powered Toyota HiLux pickup can make a useful off-road or specialized utility ambulance, but its practical application as a standard emergency vehicle faces major limits.
Advantages for Ambulance Use
Off-road access: The rugged ladder-frame chassis of the HiLux allows access to remote, rugged, or off-road terrain where standard vans or traditional ambulances cannot go.
Quick refueling: Hydrogen fuel cells refuel in about 3 to 5 minutes, offering much faster turnaround times than battery-electric vehicles.
Clean operation: The fuel cell produces zero tailpipe emissions, creating a quiet, exhaust-free environment suitable for patient transport.
Good payload and towing: It targets a towing capacity of around 5,500 pounds (2,500 kg), handling heavy medical gear better than lighter electric alternatives.
Limitations for Ambulance Use
Cabin space: A pickup truck bed and cab offer less enclosed, climate-controlled volume for patients and attending medical staff compared to standard box ambulances or large vans (like the Toyota Hiace).
Infrastructure gaps: Hydrogen fueling stations remain very rare outside select urban or regional pockets, restricting emergency range and operational zones.
Availability: Toyota is targeting production for the hydrogen HiLux by 2028, meaning the vehicle is not yet available for immediate fleet purchase.
I do think though, that it would be very suitable for some specialist operations.
Jim Ratcliffe Mothballs UK Plants Over ‘Ridiculously High Gas Price’
The title of this post, is the same as that of this article in The Times.
These three paragraphs give more details.
Sir Jim Ratcliffe’s Ineos is mothballing three chemical plants in Hull in response to Britain’s “ridiculously high gas price”.
The plants directly employ 245 people producing acetyls, which are used as raw materials for everything from pharmaceuticals to food and military explosives. Ineos said the sites support almost 4,000 jobs in the wider supply chain across Humberside.
Ineos’s Hull acetyls plants “just cannot compete” as gas prices are now 12 times higher in Britain than in the United States, Ratcliffe said. The plants use gas as a feedstock and also burn hydrogen derived from gas as an energy source to power chemical production.
I don’t think, that this story, is as simple as it seems.
Consider.
- Sir Jim Ratcliffe graduated from the University of Birmingham in 1974 with a degree in chemical engineering.
- The plants in Hull make acetyls.
- The acetyl group has a Wikipedia entry.
- From my own experience, the 1970s was an exciting time for chemical engineering.
- ICI were trying to use a process purchased from BASF to make acetylene, which failed miserably, as all the process did was coat Runcorn in soot.
- Did ICI use the acetylene to make acetyls?
- Google AI says you can make acetyl-containing compounds, such as acetic acid and vinyl acetate, starting from acetylene.
- For a time, I shared an office, with a fellow Liverpool University graduate, who was helping to get the ICI plant working.
In the end the ICI plant was dismantled.
Has Sir Jim Ratcliffe A Connection To HiiROC?
I asked Google AI this question and received this reply.
Yes, Sir Jim Ratcliffe has an indirect financial and strategic connection to HiiROC through his petrochemical company, INEOS.
The INEOS Connection: INEOS backed HydrogenOne Capital Growth—a hydrogen-focused investment fund—which made a £10 million equity investment in HiiROC to develop affordable “turquoise hydrogen” (clean hydrogen produced via thermal plasma electrolysis).
Shared Industrial Projects: HiiROC has collaborated on low-carbon hydrogen projects in the Humberside region close to major INEOS operational footprints, connecting clean-tech hydrogen initiatives with heavy UK industrial chemical hubs.
Note.
- The last paragraph, I clipped from The Times mentioned hydrogen.
- The HiiROC process can use any hydrocarbon gas as feedstock and is five times more energy efficient than traditional electrolysis.
- HiiROC is backed technically by the University of Hull.
- The ICI plant produced loads of soot and HiiROC produces carbon black, so I wonder, if the two processes are by any chance related?
It strikes me that some of the various interests have come up with a route to creating acetyls, that is more efficient.
I suspect Sir Jim Ratcliffe will disclose a clever plan at some time.
What Is The Connection Between The University Of Hull And HiiROC?
I asked Google AI this question and received this reply.
The University of Hull and HiiROC have a collaborative partnership focused on developing clean energy technology.
Nature of the ConnectionTechnology
Collaboration: HiiROC worked collaboratively with the University of Hull (leveraging regional programs like those from the university’s Aura Innovation Centre) to help develop and test Thermal Plasma Electrolysis (TPE).
Clean Energy Innovation: This proprietary TPE technology converts biomethane, flare gas, or natural gas into clean “emerald” hydrogen and valuable solid carbon black without greenhouse gas emissions.
By-Product Research: The partnership includes joint efforts to research potential commercial uses for carbon black, the solid carbon by-product created during HiiROC’s hydrogen-generation process.
Regional Growth: HiiROC established its development and testing facilities in Hull to advance this technology, working alongside local academic and business innovation networks tied to the university.
From my experience in the 1960s at ICI Mond Division in Cheshire, I believe that this could be one of the most important research projects in the UK.
Could INEOS Be Going To Collect All Their Flare Gas In Hull?
Consider.
- The HiiROC process can use any hydrocarbon gas as feedstock.
- This would include chemical plant flare gas, biomethane and natural gas.
- The HiiROC process extracts the hydrogen as hydrogen gas.
- The HiiROC process extracts the carbon as carbon black.
I have seven questions.
- Suppose INEOS collected all the flare gas from their chemical plants in Hull, could they use this as feedstock in a HiiROC process to create hydrogen efficiently?
- Could they collect biomethane from Humberside and mix this with the flare gas?
- Could they bring in extra flare gas from chemical plants elsewhere in the UK and Europe using coastal gas tankers or rail tankers?
- Could INEOS use natural gas, if they were short of flare gas and biomethane?
- Could any excess hydrogen be stored in Aldbrough or Rough gas storage?
- Could any excess hydrogen be sold on to other companies?
- Could hydrogen be used to make the acetyls?
I suspect that all questions have an answer in the affirmative.
Conclusion
I feel that Sir Jim Ratcliffe made a very shrewd investment in HiiROC.
Toyota Confirms Hydrogen Hilux For 2028 With 248 Mile Range
The title of this post, is the same as that of this article on Motor1.
This is the sub-heading.
Hilux FCEV production starts in 2028 for European fleets, with 248 miles of range, strong towing, and five-minute refueling pitches
These two paragraphs give more details.
Toyota just put a number on the hydrogen Hilux, and it is bigger than anything the electric version can manage. At IAA Transportation 2026 in Hannover the automaker outlined plans for a Hilux fuel cell model targeting a 2028 launch for European professional customers.
The target is 248 miles of WLTP range and 5,512 pounds of towing, plus roughly a five-minute refuel when a station is operating normally. That is a work truck pitch built to beat the battery-electric Hilux on the two numbers that matter most to fleets.
It looks to me, that Toyota have done their research on the specification.
I can verify, that a lot of horsey folk and farmers will find it fits their needs well.
Andy Burnham Set For Clash With MPs Over North Sea Oil And Gas
The title of this post, is the same as that of this article in The Times.
This is the sub-heading.
The prime minister must decide whether to approve the Rosebank oilfield and Jackdaw gasfield but will face opposition from backbenchers if he goes ahead
These are the first three paragraphs.
Andy Burnham faces a potential showdown with Labour MPs after suggesting faster extraction of North Sea oil and gas could help pay for the transition to clean energy.
The prime minister is preparing to decide whether to approve the Rosebank oilfield and Jackdaw gasfield after consultations on both projects closed.
Industry sources have told The Times they believe Burnham will approve Jackdaw but may resist calls to go ahead with Rosebank because of opposition from MPs.
These are my thoughts.
My Boiler, Gas And Jackdaw
Consider.
- This year my boiler died. So I spent several thousand pounds, but I did get a new gas boiler with a 12-year guarantee.
- I am now 79, so can this government, or any for that matter, give me a guarantee, that I will live to 91 to get value from my boiler?
- I know enough about heating, as I have installed a couple of systems for myself, to know that my current house is not suitable for a heat pump.
- But it may be suitable for some type of electric data centre boiler like heata, which was invented by British Gas Research. But, I’m not hopeful yet!
- Meanwhile, Centrica have done a large hand-full of deals to keep the country in enough gas to power us through the winter.
- Some of these are MiQ-certified, which is a bit like Organic for methane, except that emissions are kept to a minimum.
- I covered MiQ-certification in What Is MiQ-Certification?.
So provided we don’t get an extreme-left scientifically-incorrect government, led by someone like the lady with pink hair in Hackney, I should be able to keep myself warm in winter.
But would I vote for any party, that was going to cut off my gas supply?
But Centrica have been clever.
- They have plenty of gas storage at Rough.
- Their press releases show they are buying gas according to MiQ.
- Grain LNG Terminal, which they bought last year has an export facility, so any spare gas they have can be exported to a country to replace coal or Russian gas.
- MiQ-certified gas probably fetches a higher price.
- Centrica would be an obvious purchaser for any North Sea gas.
This gives some dates of the players and Jackdaw
- BG Group and Centrica were demerged from British Gas plc in 1997.
- BG Group discovered Jackdaw in 2005.
- BG Group were taken over by Shell in 2015.
If I was the owner of Jackdaw, I would make sure that my gas had the highest MiQ possible.
If I was energy minister, I’d enforce it.
Will Jackdaw Be A Tie-Back To Shearwater?
I’ve read that it might be, so I asked Google AI and received this answer.
Yes, Jackdaw is designed and developed as a 30-kilometer (approx. 18.5 miles) subsea tie-back to the existing Shearwater platform in the central North Sea.
Project Connection Details
Infrastructure: A multi-phase subsea pipeline links the unstaffed Jackdaw wellhead platform directly to the Shearwater hub.
Processing: Hydrocarbons extracted from Jackdaw will be processed and routed through Shearwater before final export onshore to the St Fergus terminal.
Distance: The subsea pipeline spans roughly 30 kilometers (18.5 miles) northwest from the Jackdaw field to the Shearwater installation.
I also found this detailed article on the Chemical Engineer which is entitled Shell To Invest In Shearwater Gas Infrastructure Hub.
Shell certainly seem to be doing comprehensive planning to bring the gas from Jackdaw to the mainland.
- Currently, gas from the Shearwater hub is sent to Bacton in Norfolk.
- After, Jackdaw is connected to Shearwater, the gas will be sent to St. Fergus, which is North of Aberdeen.
- Google AI says that The Shearwater hub is located approximately 140 miles (225 kilometers) east of Aberdeen in the Central North Sea.
It’s probably all in a day’s work for engineers in the North Sea, but it doesn’t sound to be the easiest project to me.
Will The Jackdaw Gas Field Be Used For CO2 Storage?
I felt this could be a possibility, so I asked Google AI, the question and received this answer.
No, the Jackdaw gas field will not be used for CO2 storage.It is an active natural gas extraction project in the North Sea, though CO2 separated from its extracted gas may eventually be routed to external storage.
Field Status and CO2 Handling
Extraction only: The underground reservoirs at Jackdaw contain natural gas and high-pressure/high-temperature hydrocarbons rather than being purposed for carbon storage.
Onshore processing: Gas from the field comes ashore at St Fergus, where carbon dioxide mixed into the raw gas stream is removed during processing.
Broader CCS links: While Jackdaw itself is a producing asset, its operations tie into Shell’s broader involvement with the regional Acorn Carbon Capture and Storage project, which aims to pipe and sequester CO2 elsewhere.
That was a definite no, that Jackdaw will not be used for Carbon Capture and Storage, but the carbon dioxide in the gas may be stored in the Acorn Carbon Capture and Storage project.
Will Centrica Be Applying Just-in-Time-Delivery To Gas Cargoes?
One of the jobs, I was involved in was scheduling container ships for OCL, in the 1970s.
- I’m fairly certain, that ships were speeded up and slowed down, so that ports weren’t overloaded.
- It was all done with my PERT7 project management software, which ran on Time Sharing at Great Portland Street.
I can envisage a clever programmer at Centrica writing a large simulation of all their natural gas deals and calling off gas cargoes, when required.
- Gas tankers would be constantly sailing between the gas fields in the Americas and LNG Terminals like Grain, where the cargo was needed.
- It would be nice to have a local supply of natural gas to fill in the gaps between cargoes, but delaying and speeding up of deliveries would have the same effect.
- I also suspect cargoes could be diverted to Germany, Poland or the highest bidder, when there is a glut of gas.
It could be a classic example of advanced control engineering, but very similar to what OCL were doing fifty years ago.
By applying just-in-time-delivery to gas cargoes, Centrica would reduce the need for storage in the UK.
At least gas doesn’t have a sell-by date!
How Much Liquid Natural Gas Storage Is There At The Grain LNG Terminal?
Google AI gave me this answer to the question in the title of this section.
The Grain LNG terminal on the Isle of Grain in Kent has a total liquid natural gas (LNG) storage capacity of 1.2 million cubic metres (1,200,000 m³) following recent site expansions.
Terminal Storage Overview
Total Capacity: 1.2 million m³ of cryogenic tank space (increased from the original 1.0 million m³ capacity).
Tank Configuration: Consists of massive full-containment cryogenic storage tanks (such as the 190,000 m³ tanks added in phases).
System Throughput: The facility can process up to 15 million tonnes per annum (mtpa), meeting a significant share of the UK’s total gas demand.
It should be remembered that storing gas as liquid reduces the space needed.
What Is The Capacity Of A Typical LNG Carrier?
Google AI gave me this answer to the question in the title of this section.
A typical modern liquefied natural gas (LNG) carrier has a cargo capacity of approximately 174,000 cubic meters (m³).
This size has become the conventional standard for new builds, balancing port compatibility with transport scale, though global fleet capacities range widely from small-scale vessels to massive ultra-large ships.
Vessel Size Categories
Small-scale carriers: Hold roughly 1,000 m³ to 40,000 m³, used for regional distribution and bunkering.
Medium-scale carriers: Range from 40,000 m³ to 80,000 m³.
Conventional large carriers: Standard modern designs cluster around 140,000 m³ to 180,000 m³, with 174,000 m³ dominating recent ship orders.
Maxi-size carriers (Q-Flex and Q-Max): Specialized ultra-large vessels reach capacities between 210,000 m³ and 266,000 m³, primarily built to service long-distance routes out of Qatar.
Grain LNG Terminal can hold about four cargoes from the largest LNG Carriers.
My extensive experience of writing scheduling algorithms, which go back to one I wrote at ICI Mond in 1968, feels that by scheduling the arrival of the ships, there may well be enough storage at Grain LNG Terminal to keep the UK in gas.
I wonder, if for some time, Centrica have known, that they don’t need Rough for natural gas storage, which is why they have ambitions to turn it into hydrogen storage.
