The Anonymous Widower

News From Four Big Projects On The 15th May 2026

Are things hotting up in the offshore wind business in the UK? Or is it just a coincidence?

But these four projects were all announced on the 15th May 2026.

Aberdeenshire Council Greenlights Onshore Plans For 1 GW Scottish Floating Wind Project

The Buchan Offshore Wind consortium, comprising BayWa r.e., Elicio, and BW Ideol, has received planning consent from Aberdeenshire Council for the onshore infrastructure that will connect the proposed 1 GW Buchan floating wind farm to the grid. Commissioning in 2033.

Ocean Winds Receives Full Onshore Planning Consent for 2 GW Caledonia Offshore Wind Farm

Ocean Winds, a 50-50 joint venture owned by EDP Renewables and ENGIE, has received full onshore planning consent for its 2 GW Caledonia offshore wind farm following approval by Aberdeenshire Council’s Infrastructure Services Committee on 14 May. Commissioning in 2032.

UK Grants Development Consent For 3 GW Dogger Bank South Offshore Wind Project.

The UK Department for Energy Security and Net Zero has granted development consent for two Dogger Bank South (DBS) offshore wind farms, Dogger Bank South West and Dogger Bank South East, which are planned to have a combined installed capacity of 3 GW. Commissioning in 2031 (DBS West) and 2032 (DBS East).

RWE and SSE Secure Consent For 1 GW North Falls Offshore Wind Farm

The North Falls Offshore Wind Farm joint venture between RWE and SSE Renewables has been granted development consent for its 1 GW project by the UK Department for Energy Security and Net Zero (DSNEZ). Commissioning in 2030.

It looks like another 7 GW of onshore wind is on its way! The commissioning dates are my best estimates based on past history.

 

May 15, 2026 Posted by | Energy | , , , , , , , , , , , , , | Leave a comment

UK Offshore Wind In 2030 – Calculated May 2026

The next general election is likely to be held in 2029, so how much wind energy will be added during the next Parliament?

The Current Position

The Wikipedia entry for the list of operational wind farms in the UK, says this.

In July 2025, there were offshore wind farms consisting of 2,809 turbines with a combined capacity of 16,035 megawatts.

Due To Be Commissioned In 2026

It would appear these wind farms will come on-line in 2026.

  • Doggerbank A – 1235 MW – Fixed
  • Sofia – 1400 MW – Fixed

This would add 2635 MW to give a total of 18,670 MW.

Due To Be Commissioned In 2027

It would appear these wind farms will come on-line in 2027.

  • Doggerbank B – 1235 MW – Fixed
  • Doggerbank C – 1218 MW – Fixed
  • East Anglia 1 North – 800 MW – Fixed
  • East Anglia 2 – 900 MW – Fixed
  • East Anglia 3 – 1372 MW – Fixed
  • Hornsea 3 – 2852 MW – Fixed
  • Llŷr 1 – 100 MW – Floating
  • Llŷr 2 – 100 MW – Floating
  • Norfolk Boreas – 1380 MW – Fixed
  • Pentland – 100 MW – Floating
  • Whitecross – 100 MW – Floating

This would add 10157 MW to give a total of 28,827 MW.

Due To Be Commissioned In 2028

It would appear these wind farms will come on-line in 2028.

  • Morecambe – 480 MW – Fixed

This would add 480 MW to give a total of 29,307 MW.

Due To Be Commissioned In 2029

It would appear these wind farms will come on-line in 2029.

  • West Of Orkney – 2000 MW – Fixed

This would add 2000 MW to give a total of 31,307 MW.

Due To Be Commissioned In 2030

It would appear these wind farms will come on-line in 2030.

  • Ramplion 2 Extension – 1200 MW – Fixed
  • Norfolk Vanguard East – 1380 MW – Fixed
  • Norfolk Vanguard West – 1380 MW – Fixed
  • Awel y Môr – 1100 MW – Fixed
  • Berwick Bank – 4100 MW – Fixed
  • Outer Dowsing – 1500 MW – Fixed
  • Caledonia – 2000 MW – Fixed
  • N3 Project – 495 MW – Fixed/Floating
  • North Falls – 504 MW – Fixed

This would add 14,659 MW to give a total of 45.966 MW.

Due To Be Commissioned In 2031

It would appear these wind farms will come on-line in 2031.

  • Awel y Môr – 775 MW – Fixed
  • Berwick Bank – 1380 MW – Fixed
  • Dogger Bank SW – 1500 MW – Fixed
  • Spiorad na Mara – 840 MW – Mixed

This would add 4,495 MW to give a total of 50,461 MW.

Due To Be Commissioned In 2032

It would appear these wind farms will come on-line in 2032.

  • Caledonia – 2000 MW – Fixed
  • Dogger Bank SE – 1500 MW – Fixed

This would add 3,500 MW to give a total of 53,961 MW.

Due To Be Commissioned In 2033

It would appear these wind farms will come on-line in 2033.

  • Ayre 1008 MW – Fixed
  • Bowdun – 1008 MW – Fixed
  • Buchan – 960 MW – Floating

This would add 2,976 MW to give a total of 56,937 MW.

Due To Be Commissioned In 2036

It would appear these wind farms will come on-line in 2033.

  • Havbredey – 1,500 MW – Fixed

This would add 1,500 MW to give a total of 58,437 MW.

Capacity Summary

  • 2025 – None – 16,035 MW
  • 2026 – 2635 MW – 18,670 MW
  • 2027 – 10157 MW – 28,827 MW
  • 2028 – 480 MW – 29,307 MW
  • 2029 – 3500 MW – 31,307 MW
  • 2030 – 14155 MW – 45.462 MW
  • 2031 – 4,495 MW – 50,461 MW
  • 2032 – 3,500 MW – 53,961 MW
  • 2033 – 2,976 MW – 56,937 MW
  • 2036 – 1,500 MW – 58437 MW

We’re still be adding capacity into the 2030s.

 

 

 

May 14, 2026 Posted by | Energy | , , , , , , , , , , | 1 Comment

Are Centrica Entering The Bunkering Market For Lowcarbon-Fuelled Ships?

I asked Google AI, the question in the title of this post and received this answer.

Yes, Centrica is actively entering the low-carbon shipping fuel market, specifically by strengthening its ability to supply bio-LNG (liquefied natural gas) for the shipping industry.

Key developments in 2026 indicate a strategic push into this sector:

Bio-LNG Expansion: Centrica Energy has strengthened its bio-LNG bunker fuel offering through ISCC certification.

Strategic Partnerships: Centrica is supporting Gasrec in the UK to supply bio-LNG and bio-CNG to fleets, and is investing in large-scale carbon storage at Morecambe Bay, which can serve shipping.

Decarbonisation Focus:   This move aligns with Centrica’s target to become a net-zero business by 2040 and to support customer emission reductions.

This could be a nice little business.

May 12, 2026 Posted by | Energy, Energy Storage, Transport/Travel | , , , , , , | Leave a comment

Centrica Buys Severn Gas Power Station In South Wales

The title of this post, is the same as that of this article on The Times.

This is the sub-heading.

The owner of British Gas says the plant, acquired from the troubled Calon Energy for £370 million, will help secure supplies during the green transition

These three introductory paragraphs add more details to the story.

The owner of British Gas has acquired the troubled Severn gas power station in south Wales for £370 million after issuing a less than positive future profit guidance.

The combined-cycle gas turbine plant was owned by Calon Energy, which had gone into administration shortly after the start of the pandemic in 2020 when the power station was, for a while, mothballed.

Centrica said it acquired the plant to shore up its energy generation resources and secure electricity supplies during the UK’s green transition.

I think there a lot more to this story, than initially meets the eye.

The Location

The Google Map shows the location of the Severn Power station on the River Usk, to the South of Newport in South Wales.

Note.

  1. Severn power station is indicated by the red arrow in the South-West of the map.
  2. The River Usk enters the sea to the West of the site.
  3. The RSPB Newport Wetlandsare South of the site.
  4. The long rectangle in the middle of the map is the former Llanwern steelworks, which is now a CAF train factory.
  5. Newport is also a major station on the main line between London Paddington and Cardiff.

This second Google Map shows the power station site at a larger scale.

I wouldn’t be surprised, that Centrica could fit other equipment on and around the power station site.

  • Centrica and/or National Grid might want to put an interconnector across the Severn Estuary.
  • There might be a need to connect to wind farms in the Severn Estuary.
  • Centrica are building a bunkering facility for ships running on low carbon fuels at Grain LNG Terminal. Will they build one here?
  • Centrica could build a HiiROC electrolyser to create hydrogen for difficult to decarbonise industries and bunkering ships.

The site has a lot of potential.

May 8, 2026 Posted by | Energy, Energy Storage, Environment, Hydrogen | , , , , , , , , , , , , , , , | 1 Comment

Gas-Fired Power Still Looks A Safe Bet For Centrica In The Renewables Era

I feel rather surprisingly, the title of this post, is the same as this article on the Guardian.

You’d think, that they would be critical of Centrica for keeping the gas power stations going.

But this is the sub-heading.

There will still be a need to have gas in the wings to keep the lights on, so the financials stack up on Severn plant purchase.

So why should Centrica buy a 832 MW closed cycle gas fired power station?

These posts describe, what Centrica have done at Brigg with another closed cycle gas fired power station.

Will Centrica be taking closed cycle gas fired power stations and making them more efficient to provide the back up to wind farms, when wind is having an off day?

I wouldn’t be surprised, if Centrica put a big battery on the two sites, as after all they are a godparent to Highview Power.

Are there any more closed cycle gas fired power stations, that they can acquire?

I asked, Google AI,”How many closed cycle gas fired power stations are there in the uk?” and received this answer.

As of early 2026, there are approximately 35 active combined cycle gas turbine (CCGT) power stations—often referred to as closed-cycle—in the UK.

These plants provide the bulk of the UK’s gas-fired capacity, totaling roughly 30-35 GW along with smaller, single-cycle (OCGT) plants which are used for backup.

Total Capacity: The total capacity of all gas-fired generation (CCGT and others) is approximately 35.7 GW.

Role in Power Mix: CCGTs are highly efficient and provide baseload power, while OCGT plants (about 14+ sites) are typically used for peak demand.

Key Locations: Major plants include Pembroke (RWE), Staythorpe (RWE), Didcot B (RWE), and Connah’s Quay (Uniper).

These plants remain the largest single source of electricity generation on the UK grid, though they are increasingly being paired with carbon capture proposals.

I think, that Engineer Baldrick is now working for Centrica and he has a cunning plan to use efficient CCGT power stations to back up the wind.

Consider.

  • Severn power station is an 832 MW combined cycle power plant running on natural gas, which is located near Newport in South Wales.
  • 4.5 GW of offshore wind is to be built near Port Talbot.
  • Will some hydrogen generated by HiiROC be used to part-fire Severn power station and reduce its carbon footprint.
  • South Wales can easily find space for a couple of Highview 300 MW/3.2 GWh CRYOBatteries.
  • It would be useful to have a good-sized hydrogen store in South Wales.

That mix would surely provide enough reliable power for green steelmaking and a few data centres.

 

 

 

May 8, 2026 Posted by | Energy Storage, Hydrogen, Energy, Artificial Intelligence | , , , , , , , , , , , , | Leave a comment

The Former Unilever Site At Warrington – 6th May 2026

I went past this site twice yesterday on my way to and from Blackpool.

I took these pictures going Northwards.

And I took these pictures going Southwards.

A quick search of the Internet on my phone revealed.

  • It was a former soap works, that had previously been owned by Unilever.
  • The site was now going to be developed as a data centre.

This OpenRailwayMap shows the railways through the area.

Note.

  1. Warrington Bank Quay station is indicated by the blue arrow in the middle of the map.
  2. The Unilever site is to its North-West.
  3. Warrington Bank Quay station is a major station on the West Coast Main Line and will probably be on High Speed Two, which will share tracks with the West Coast Main Line.
  4. The two East-West lines are not electrified.
  5. Warrington West is a relatively new station, that I wrote about in 2020, in The New Warrington West Station.

This OpenRailwayMap shows the railway lines between Liverpool and the coast in the West and the West Coast main Line in the East.

Note.

  1. The Merseyrail third rail network shown in lilac.
  2. Electrified tracks shown in red.
  3. Tracks without electrification shown in black.
  4. Warrington Bank Quay station indicated by the blue arrow.
  5. The West Coast Main Line (WCML) runs North-South at the Eastern edge of the map.
  6. Wigan North Western station is in the North East corner of the map.
  7. Wigan North Western and Warrington Bank Quay stations are both on the WCML.

Five lines connect the Liverpool local network to the WCML.

  1. The top unelectrified line connects the new Headbolt Lane station to Wigan Wallgate station.
  2. The most Northerly electrified line connects Liverpool Lime Street and Wigan North Western stations via Huyton station.
  3. The second electrified line connects Liverpool Lime Street and Manchester via Newton-le-Willows station.
  4. The most Northerly of the bottom pair of unelectrified lines connects Liverpool Lime Street and Manchester via Warrington Central station.
  5. The final line is a freight line between Liverpool and Manchester along the Mersey. This line runs under the WCML

The last line is likely to be upgraded to become Northern Powerhouse Rail between Liverpool Lime Street and Manchester via Manchester Airport.

This picture shows a freight train passing under Warrington Bank Quay station.

This OpenRailway Map shows how the lines cross to the South of Warrington Bank Quay station.

Note.

  1. The electrified North-South line is the West Coast Main Line (WCML).
  2. There is quite a good amount of space.

Could the junction be designed, so that HS2 trains could go between Manchester and London?

 

 

May 7, 2026 Posted by | Artificial Intelligence, Computing, Energy, Transport/Travel | , , , , , , , , , , , , , , , , , , | Leave a comment

National Grid Rollout New Technology To Expand The Capacity Of Existing Power Lines

The title of this post, is the same as that of this press release from National Grid.

These four bullet points act as sub-headings.

  • Latest rollout of Dynamic Line Rating (DLR) technology highlights spare capacity on existing power lines allowing greater power flows

  • New instalments on 585km of key north to south transmission network routes has the potential to save consumers up to £50 million in constraint costs

  • Over the last five years DLR has saved £21million in constraint costs and complemented upgrades to the existing transmission network (such as reconductoring and the use of power flow controllers) which have added over 16GW of new capacity to the existing network.

  • National Grid is unlocking more power from the existing grid faster and more cheaply, using innovative technology to meet increased demand, alongside constructing new infrastructure.

These first three paragraphs of the press release describe National Grid’s use of Dynamic Line Rating.

National Grid has announced a significant expansion of Dynamic Line Rating (DLR) technology across its electricity transmission network in England and Wales. Under a new five-year contract, Dynamic Line Ratings will be deployed across an additional 585km of key north-to-south transmission routes, potentially saving consumers up to £50 million over the next five years.

Meeting the growing demand for electricity requires both new infrastructure and smarter use of what already exists. DLR is an innovative yet proven technology that continuously monitors overhead line conditions to calculate a real-time capacity rating based on actual conductor behaviour and local weather, rather than the fixed conservative assumptions that have historically governed line ratings.

The result is a safe, reliable optimisation of available capacity on existing infrastructure, with the sensors and data analytics platforms allowing for a safe increase of the power carrying capacity of a circuit by an average of 8%. This reduces the need for constraint payments, where a generator is paid to stop generating to avoid overloading the electricity network.

This is an brilliant application of instrumentation, automation and very smart computing, that creates an average of eight per cent more capacity in the National Grid.

It’s like smart motorways for electrons, that from the press release appears to work.

I have some thoughts.

Reconductoring Is Mentioned

I suspect that the grid is highly instrumented and the grid can pick up areas that need to be replaced, but the masses of data a system like this will collect, will only improve their knowledge of the grid and give better predictions of where and how cables need to be replaced. Sophisticated modelling will also indicate, things like whether fatter cables here and there could squeeze more capacity into the network.

In the 1970s, I provided the software for the Water Resources Board to analyse and plan the pipelines and reservoirs for water supply in large parts of England.

Given that over the years, most of the problems over the years with the water industry, seem to apply to sewage, ownership, politics, equipment failure, rather than taps actually running dry, I suspect that Dr. Dimeloe and his team did a magnificent job. I would love to know the truth from one of the team.

As fifty years later, modelling software must be more sophisticated, I suspect a continuous analysis of the grid could give substantial benefits.

More And Better Sensors Will Be Developed

As needs arise, the systems will get more and more sophisticated and I wouldn’t be surprised to see the capacity of the grid increase by more than expected.

There Are 4,000 Miles Of High Voltage Overhead Lines In The UK

So if, National Grid can get an eight percent increase as the press release indicates, they might be able to add the equivalent of 320 miles to the electricity transmission network, without the hassle of applying for planning permission or dealing with Nimbies.

There might also be a cost saving as Google AI indicated that high voltage transmission lines cost around two million pounds per mile.

I Can Envisage Sophisticated Connection Networks For Offshore Wind Farms Using Coastal Or Even Offshore Batteries To Maximise The Energy Generated

Consider.

  • The output of a wind farm varies throughout the day and night.
  • Some of the variation in a wind farm’s output may be predictable.
  • Batteries and/or capacitors are good at smoothing variation in electrical power output and demand.
  • Capacitors are useful for smoothing out high-frequencies.
  • Highview Power are now building a 50 MW/300 MWh and a 500 MW/3.2 GWh battery, that both come with a sophisticated control system, they call a stability island providing inertia (frequency stability), short-circuit strength, and voltage control.
  • Dynamic Line Rating can be applied to the transmission line, that connects the wind farm and the battery to the grid.

Getting all these assets to work as a team, is a challenge some of the world’s best engineer/programmers would relish.

I could envisage, that systems like this could deliver hundreds of mill-pond smooth megawatts, that would be just what data centre owners wanted and needed.

Conclusion

The application of Dynamic Line Rating is going to revolutionise the electricity grid all over the world.

 

 

May 4, 2026 Posted by | Computing, Energy, Energy Storage | , , , , , , , , , , , , , , , | 2 Comments

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.

 

May 4, 2026 Posted by | Energy, Energy Storage | , , , , , , , , , | Leave a comment

Europe: New Fund To Upgrade Solar And Wind Assets With Battery Storage

The title of this post, is the same as that of this article on Review Energy.

This is the sub-heading.

The Aream Group has launched a new European investment vehicle targeting the renewable energy sector, with a strategy that combines power generation, storage and electricity marketing.

These three paragraphs add more details to the story.

The Clean Energy Future Fund II (CEFF II) will focus on integrating renewable generation assets with battery storage systems to improve the use of grid connections, which are increasingly scarce across European markets. According to Markus W. Voigt, Executive Chairman of aream Group, the hybrid model is designed to respond to growing volatility in electricity markets.

“With this hybrid approach, we are leveraging the changes and increased volatility in the European electricity markets for the benefit of our investors,” Voigt said.

The fund will primarily invest in Europe, with a particular focus on Germany, and will build on an existing portfolio of operational assets. A central element of the strategy is the addition of battery storage to solar and wind farms, allowing them to evolve from pure generation assets into providers of grid services.

I have a Google Alert which looks for “Energy Storage Fund” and this story was one of nine substantial stories.

This story talks about €400 million and two others talk about €300 million and AU $ 1.4 billion, respectively.

So hopefully, this money will help to mop up some of the energy wasted, when wind farms are curtailed.

Certainly, these funds don’t seem to have difficulty finding money to invest.

April 30, 2026 Posted by | Energy, Energy Storage, Finance & Investment | , , , , , | Leave a comment

Delta And Centrica Launch Scalable Off-Grid Fuel Cell Power Solution

The title of this post, is the same as that of this news item from Centrica.

The news item is accompanied by this picture.

So who is the happy oriental-looking guy sitting with the equally-happy Robert Booker, who is Chief Strategy and Transformation Officer at Centrica?

He is Charles Tsai, General Manager of Hydrogen Energy BD at Delta Electronics Inc.

Google AI produces this answer to “Who Are Delta Electronics Inc.”

Delta Electronics, Inc. is a Taiwan-based global leader in power and thermal management solutions, founded in 1971. Renowned as the world’s top provider of switching power supplies and DC brushless fans, they focus on energy-efficient, IoT-based smart solutions for industrial automation, EV charging, data centers, and renewable energy.

Core Business Areas

Power Electronics: A global leader in switching power supplies, thermal management, and components for cloud computing and electric vehicles (EVs).

Automation: Offers industrial and building automation systems to enhance manufacturing efficiency.

Infrastructure: Provides data center infrastructure, EV charging solutions, and telecom power systems.

Key Facts and Highlights

Market Position: Often cited as the world’s largest provider of computer power supplies, with significant market share in server power units.

Sustainability Focus: Dedicated to “innovative, clean and efficient energy solutions” with a strong ESG (Environmental, Social, and Governance) focus.

Global Presence: Operates manufacturing plants and R&D centers worldwide, including Taiwan, China, Thailand, Mexico, India, and Europe.

Financials: Publicly listed on the Taiwan Stock Exchange (code: 2308).

Delta Electronics serves industries looking for energy-efficient, AI-ready, and sustainable technology solutions.

Delta Electronics has had an R & D facility in East Kilbride in Scotland for nearly ten years.

This is the sub-heading of Centrica’s news item.

Centrica and Delta Electronics, Inc. today announced an infrastructure partnership to serve the data centre market and energy intensive industries in the UK and Europe, launching with Solid Oxide Fuel Cells (SOFCs) for off-grid energy generation.

These two paragraphs add more detail to the partnership.

This partnership creates a pathway for offering customers competitively priced, on-site power generation, significantly reducing exposure to wholesale electricity market volatility and grid capacity constraints. The partners plan to establish a demonstration site in the UK within the next 12 months, with a medium-term goal of delivering MW-scale, rapidly deployable ‘gas-to-power’ solutions within the next three to five years.

Delta’s SOFCs, licensed by British solid oxide technology leader Ceres, provide stable, low-carbon energy fuelled by natural gas and reach 60% electrical efficiency – significantly higher than the open-cycle gas turbines typically used for on-site and back up generation (35%-42%). These cells are designed to meet the growing power demands of data-intensive digital infrastructure in the UK and Europe which underpin economic growth, digital sovereignty and the energy transition.

This partnership appears to be a partnership of three world-leading companies doing what they do best, to efficiently satisfy the enormous power need for data centres and energy intensive industries.

  • Centrica will make sure, that there is enough natural gas. They have a strong reputation for trading gas and source it from all over the world.
  • Ceres will provide the Solid Oxide Fuel Cells (SOFCs), that will efficiently convert this natural gas into electricity. Ceres’s SOFCs are fifty percent more efficient than open-cycle gas turbines, which is a large improvement.
  • Delta Elctronics then work their high power electronic wizardry to supply the electricity.

Nothing is said about what happens to all the carbon dioxide. It will certainly be captured and will probably be of food grade, but this could be the next piece of the jigsaw that Centrica are putting together.

April 29, 2026 Posted by | Artificial Intelligence, Energy, Hydrogen | , , , , , , , , | Leave a comment