Centrica Business Solutions Delivers Significant Energy Savings For The Pirbright Institute
The title of this post, is the same as that of this press release from Centrica.
These three paragraphs outline the project.
Centrica Business Solutions has partnered with The Pirbright Institute to deliver sustainable on-site technology that will help reduce its net energy use by more than 10 per cent by 2026.
Centrica installed a new Combined Heat and Power Plant (CHP), which will provide around 75 per cent of Pirbright’s future power needs. The CHP uses natural gas to generate electricity and hot water at the site, with its exhaust gases also used to feed into a heat recovery generator to provide steam. It means CHP technology is over twice as efficient as conventional power sources and can lower organisational reliance on the Grid.
The Institute, which is dedicated to the study of infectious diseases of farm animals, has already devised an energy plan which has introduced energy-saving upgrades across the Surrey campus, including the closure of energy-inefficient buildings, the introduction of efficient lighting and a programme to raise staff awareness of energy consumption.
The system is still powered by natural gas.
Liverpool University
I was an undergraduate at Liverpool University and according to this page on their web site, which is entitled Sustainability, they seem to be following a similar route to the Pirbright Institute.
With a heading of Energy And Carbon, this is the mission statement.
The University’s ambition is to be a climate-resilient campus, that has minimal negative and maximum positive environmental impact, achieving net zero carbon by 2035. We monitor energy and carbon across the entire University as part of the Climate plan and in support of the Sustainability Strategy and Strategy2026 net zero carbon targets.
One section of the page has a title of The Green Recovery with Clarke Energy at the University’s Energy Centre, where this is said.
The University of Liverpool generates up to 90% of its campuses electricity needs on site in the Energy Centre, through CHP. Clarke Energy help the University operate CHP in the most efficient way, keeping us on track with technological developments, such as how the CHP can be adapted to take different fuel blends.
Although there is a nod to different fuel blends, I suspect that the system, like that at Pirbright, is currently powered by natural gas.
Clarke Energy, is headquartered in Liverpool and is a division of Kohler.
Centrica And HiiROC
CHP systems are becoming more common and like these two systems, they are generally powered by natural gas.
In Plans Submitted For Hydrogen Pilot Plant At Humber Power Station, I describe how Hull-based start-up; HiiROC are going to help fuel a gas-fired power station with a hydrogen blend.
This is a paragraph from this article on Business Live, which describes Centrica’s relationship with HiiROC.
It comes as the owner of British Gas has also increased its shareholding in the three-year-old business to five per cent. Last November it was one of several investors to pump £28 million into HiiRoc alongside Melrose Industries, HydrogenOne, Cemex, Hyundai and Kia, who joined existing strategic investors Wintershall Dea and VNG.
HiiROC’s system can take any hydrocarbon gas from biomethane, through chemical plant waste gas to natural gas and convert it to hydrogen and carbon black.
Carbon black has a large number of manufacturing uses and can also be used in agriculture to improve soil.
It looks to me, that HiiROC’s systems will be a simple way to convert natural gas-powered CHPs to zero carbon.
Firm Develops Jet Fuel Made Entirely From Human Poo
The title of this post, is the same as that of this article on the BBC.
This is the sub-heading.
A new aviation company has developed a type of jet fuel made entirely from human sewage.
These are the first three paragraphs.
Chemists at a lab in Gloucestershire have turned the waste into kerosene.
James Hygate, Firefly Green Fuels CEO, said: “We wanted to find a really low-value feedstock that was highly abundant. And of course poo is abundant.”
Independent tests by international aviation regulators found it was nearly identical to standard fossil jet fuel.
It certainly seems to have a lot going for it.
I have some other thoughts.
What About Disposable Nappies?
I wrote Are Disposable Nappies A Wasted Resource?, about making hydrocarbon fuels from disposable nappies.
Should Disposable Nappies Be Collected Separately?
My food waste is collected separately in a special bin. Hackney Council say this is what happens to food waste.
Food waste from households in Hackney is sent to an anaerobic digestion facility in south east England, where it’s turned into renewable energy to power homes and biofertiliser to be spread on local farmland to grow crops.
Surely, a similar or appropriate process could be used for disposable nappies.
Biomethane From Sewage Works
In Centrica Signs UK Biomethane Agreement With Yorkshire Water And SGN Commercial Services, I wrote about how Centrica have found a way to distribute biomethane from sewage works using the UK’s gas grid.
Could Firefly take the solids and Centrica the biomethane?
Given that water companies are regularly blamed for spilling sewage could there be an opportunity for a large sewage works to be a major producer of green fuels for agriculture, aviation, industry and road transport.
Centrica Energy, Bord Gáis Energy And Mitsubishi Power Announce Development Of Europe’s First Ammonia Fired Power Generation Facility
The title of this post, is the same as that of this press release from Centrica.
This is the sub-heading.
Centrica plc and Mitsubishi Power Europe Limited “Mitsubishi Power Europe” have signed a Memorandum of Understanding (MOU) to explore the development, construction, and operation of Europe’s first-ever ammonia-fired power generation facility at Bord Gáis Energy’s Whitegate Combined Cycle Gas Turbine (CCGT) power station in Cork, Ireland.
These four paragraphs outline the project.
The project is being led by Centrica through its Bord Gáis Energy and Centrica Energy businesses and Mitsubishi Power Europe and would become Europe’s inaugural ammonia-fired power generation facility and one of only two such facilities in the world.
The utilisation of low carbon ammonia as a clean and sustainable fuel source for power generation has the potential to provide security of supply while reducing greenhouse gas emissions. Low carbon ammonia has a higher volumetric density than hydrogen, enabling the utilisation of low carbon hydrogen in a form which is easy to transport and store, resulting in a fuel that can be combusted with no carbon emissions at point of use. Its use as a fuel is a promising long-term energy solution for the transition to a low-carbon energy value chain.
Bord Gáis Energy’s facility at Whitegate CCGT power station would serve as a global demonstration site for ammonia-fired power generation technology, providing insight into the feasibility and scalability of low carbon ammonia as a green fuel and shaping the future of power generation worldwide, with low carbon ammonia being sourced through Centrica Energy’s global trading network.
Following the signing of the MOU, the project team is being established to commence project feasibility assessments. Upon the successful outcome of this assessment, extensive local stakeholder engagement will commence.
Note.
- No mention of the size of the new power station is given in the press release.
- Whitegate power station is a 445 MW combined cycle gas turbine (CCGT), that was built in 2010.
- It can meet ten percent of Ireland’s electricity demand.
I have a few thoughts.
Will The Existing Power Station Be Converted To Ammonia Or Will A New Ammonia-Fired Power Station Be Built Alongside?
Consider.
- If the second station doesn’t work, there’s no reduction in power.
- If a replacement station doesn’t work, ten percent of Ireland will be in the dark.
- Ireland will be needing more power in the next few years.
- A second power station can be appropriately-sized.
- Japanese don’t like to lose face!
Prudence probably says that building a second station alongside is the least risky route.
Wind Power In Ireland
This Wikipedia entry is entitled Wind Power In Ireland.
This is the first paragraph.
As of 2021 the island of Ireland has 5,585 megawatt and the Republic of Ireland has 4,309 MW of installed wind power nameplate capacity, the third highest per capita in the world. In 2020 wind turbines generated 36.3% of Ireland’s electrical demand, one of the highest wind power penetrations in the world.
There is also one 500 MW interconnector between the islands of Great Britain and Ireland, with another similar-sized one under construction.
As the wind doesn’t blow all the time, the island of Ireland will need some low-carbon backup.
Why Ammonia?
This paragraph from the press release gives several reasons.
The utilisation of low carbon ammonia as a clean and sustainable fuel source for power generation has the potential to provide security of supply while reducing greenhouse gas emissions. Low carbon ammonia has a higher volumetric density than hydrogen, enabling the utilisation of low carbon hydrogen in a form which is easy to transport and store, resulting in a fuel that can be combusted with no carbon emissions at point of use. Its use as a fuel is a promising long-term energy solution for the transition to a low-carbon energy value chain.
There may also be secondary issues here.
If you read the Applications section in the Wikipedia entry for ammonia, you will realise, what a useful chemical ammonia is.
As Ireland has a lot of agriculture, a fertiliser plant could be located close to the power station.
If the ammonia was green ammonia, then this will help to decarbonise the island of Ireland.
Where Will The Green Ammonia Come From?
These posts deal with the production and distribution of green ammonia.
- Could West Africa Become A Green Energy Powerhouse?
- H2U Eyre Peninsula Gateway Hydrogen Project Begins Largest Green Ammonia Plant
- KEPSA Signs Large-Scale Green Energy Projects MoU In Kenya
- Namibia Is Building A Reputation For The Cheapest Green Hydrogen
- Uniper To Make Wilhelmshaven German Hub For Green Hydrogen; Green Ammonia Import Terminal
Note.
- A continent with a lot of renewable energy like Africa or Australia can create lots of green ammonia.
- As the press release says, ammonia is easier to transport and store compared to hydrogen.
- The press release says that low carbon ammonia will be sourced through Centrica Energy’s global trading network.
- Fortescue Future Industries is mentioned in several posts, as producers of green hydrogen and green ammonia.
- Centrica is big enough to stand up to Andrew “Twiggy” Forrest and Fortescue Future Industries.
As in a few years, we will have many GWs of renewable energy, could we be making green ammonia for the Irish?
This news story on the UK Research and Innovation web site is entitled Designs For Green Ammonia Plant Become Reality.
This is the sub-heading.
Science and Technology Facilities Council (STFC) researchers are building a small-scale plant to generate ammonia using only renewable energy sources.
These two paragraphs outline the story.
Ammonia is a promising carbon-free fuel source of the future and so if successful, the plant has the potential to considerably advance the UK’s net zero ambitions.
It marks the second phase of the Ammonia Synthesis Plant from Intermittent Renewable Energy (ASPIRE) initiative which will be led by STFC in conjunction with the University of Bath, Johnson Matthey, and Frazer-Nash Consultancy.
The UK Research and Innovation news story has this description of the ASPIRE technology.
Current commercial ammonia synthesis is optimised for near steady production requiring constant power.
The first phase of ASPIRE however saw the design of a patented modular reactor and thermal management system that should enable operation from an intermittent renewable power supply.
The new plant will have three core elements:
- a pressure swing adsorption system which extracts nitrogen from air
- a modular electrolyser which splits hydrogen from water
- a synthesis loop that uses the modular reactor and a thermal management system to combine hydrogen and nitrogen to make ammonia
This will enable the entire production process to operate autonomously, powered by a small wind turbine and series of solar canopies with an ammonia generation rate proportional to the available renewable power.
There is even this quote from a Dr. Alan Partridge.
Thanks to the incredible work on this initiative by the team at Rutherford Appleton Laboratory as well as the University of Bath and private sector partners, we are closer than ever to producing industry-scale green ammonia for the UK and the world.
Perhaps, this technology will allow the island of Ireland to make all the green ammonia it needs.
Will Centrica Be Going Into The Green Ammonia Business?
The Centrica press release says they will be dealing in green ammonia for the benefit of Ireland. So Yes!
Conclusion
The news story on the UK Research and Innovation web site is a must-read.
As we have so much renewable energy in the UK, some company will build an ASPIRE-based green ammonia plant in the UK.
Centrica’s Rough Storage Facility Pumps Gas Into Grid To Meet Increased Demand
The title of this post, is the same as that of this press release from Centrica.
This is the sub-heading.
The UK’s largest gas storage facility, Rough, has released stored gas into the grid to help the UK both manage higher heating demand during the current cold weather and keep prices down. This is the first time Rough has released gas this winter.
These three paragraphs describe how Centrica are using Rough and how they will use it in the future.
This year, Centrica has filled Rough with the equivalent of 18 LNG tankers. Rough provides enough energy to heat over 3 million homes, every day, all winter, keeping families warm and bills down.
Rough is the UK’s largest gas storage facility. It stopped storing gas in 2017 but was re-opened for gas storage in October 2022, and its capacity was doubled in the summer of 2023. The facility, which is 18 miles off the coast of East Yorkshire, now provides half of the UK’s total gas storage.
Centrica’s long-term ambition is to turn the Rough gas field into the largest long duration low carbon energy storage facility in the world, capable of storing both natural gas and hydrogen.
It does seem that Centrica have handled the Rough facility well.
But I do feel that Centrica are playing a bigger game.
- In Lhyfe And Centrica To Develop Offshore Renewable Green Hydrogen In The UK, I talk about how Centrica will produce hydrogen offshore.
- Would this hydrogen be conveniently produced near to Rough?
- Rough allow Centrica to buy gas at a low price and sell high. Rough could be a neat little profit centre?
- I suspect lessons learned at Rough, could be applied to other gas storage facilities?
- Centrica have taken a substantial stke in HiiROC, who are developing a new way of producing green hydrogen.
- In Centrica Partners With Hull-Based HiiRoc For Hydrogen Fuel Switch Trial At Humber Power Plant, I talk about how Centrica are helping HiiROC with full scale trials.
I certainly like what they’re doing.
Bristol-Based Manufacturer And Centrica Agree Solar Power Purchase Agreement
The title of this post, is the same as that of this article on BusinessLive.
These three paragraphs outline the story.
A Bristol-based architectural aluminium manufacturer has agreed a power purchase agreement and long term lease of 7,000 solar panels on the roof of its UK headquarters.
Smart Architectural Aluminium (Smart) agreed the deal with Centrica Business Solutions, which will see the 2.94MW installation provide Smart with green energy for the next 25 years whilst servicing 20% of the sites current energy needs.
Centrica Business Solutions has started construction on the 7,000 solar panel array, across the roofs of three buildings at the manufacturing site in Yatton, near Bristol. The 2.94MW installation is the result of a long -term lease agreement between Smart and Centrica Business Solutions, which will see Centrica lease the roof space, finance the project and agree a power purchase agreement with Smart.
Some cynics will look at this deal and think that someone is getting ripped off.
- But the project starts with a non-productive asset; three roofs, which Centrica cover with solar panels.
- Most of the electricity generated will go to Smart and be paid for, as they would do, if they get it from the grid.
- Smart gets paid for the lease of the roofs.
- Centrica gets paid for any electricity that is fed into the grid.
- The leasing company gets paid by Centrica.
Centrica would appear to be the company taking the risk and if they do their sums correctly, they should make a profit.
‘Phantom’ Power Projects Are Holding Back The UK’s Energy Security – Centrica Report
The title of this post, is the same as that of this press release from Centrica.
These are the three bullet points.
- New report shows queue for new energy projects is blocked by developers that may not even have land rights and haven’t applied for planning consents
- Estimated size of these power projects in the queue is 62GW, roughly one fifth of all power in the queue
- Centrica CEO argues such ‘phantom’ projects should have Construction Agreements terminated if developers miss key milestones – and urges Ofgem to give National Grid ESO the power to remove projects from the existing grid queue
This is the first two paragraphs.
A new independent report, commissioned by Centrica, has revealed the extent of the power projects holding back the UK’s energy security and creating risk around hitting net zero.
The report examined the UK’s existing queue for Transmission Entry Capacity (TEC) – the queue for connecting new projects to the transmission grid – and discovered that it is up to four times oversubscribed. Not only that, but this oversubscription has become significantly worse in the last few years.
The report found these three totals.
- There are currently 371GW of projects in the queue, enough to significantly improve the UK’s energy security.
- Around 114GW worth of projects have listed their connection date as before 2029.
- But around 62GW of these projects are only in the scoping phase and developers may not even have secured land rights or applied for planning consent.
This is both good and bad news!
Here Is The Good News!
Currently, the UK is using 37 GW of electricity, of which 32 GW are generated in the UK, 5 GW is being imported through interconnectors and around 6 GW are coming from renewables.
So this means that when we build all the 371 GW in the queue, we’ll have around eleven times the electricity we are using today.
Of the 114 GW of projects listed for connection before 2029, it looks like 62 GW won’t be delivered, as they haven’t secured land rights or applied for planning consent.
But that still means that as much as 52 GW could be delivered by 2029.
Even this reduced level of new projects still increases the amount of electricity that can be generated by nearly 150 %.
If I’m being ultra pessimistic, I would say that the average capacity factor of the extra capacity was 50 %, so we’d only be adding 26 GW, so the electricity, that can be generated would only rise by around 70 %.
I suspect all in the UK can live with these paltry increases.
Here Is The Bad News!
This is a paragraph from the report.
The report suggests that the oversubscribed queue, and longer wait for connections. has a damaging effect on the investments that could drive the UK’s energy transition and energy security.
Developers and investors will decamp to countries, where they be sure of getting a return on their time and money.
Think of having two supermarkets close to you live, where one is professional and one is chaotic. Where would you shop?
The congestion caused by phantom projects must be solved.
Ofgem’s Solution
This is the solution in the press release.
Ofgem is exploring rule changes (CMP376) to address queue issues and is expected to decide these before 10 November. These rule changes would grant the ESO the ability to remove projects from the queue if they miss key milestones. Ofgem is currently considering whether to apply this rule change to just new projects entering the queue, or whether the rule change should also be applied to projects already in the queue.
They can probably come up with a solution.
An Alternative Method From My Past
In 1969, I worked for ICI, where one of my jobs was building specialist instruments for chemical plants.
Most instruments, that were designed by the group I belonged to, included a chassis on which the components and electronics were mounted. So we had a workshop and about seven or eight staff at our disposal to build the chassis and the parts outside of our skills. As they were used by several groups in the building, where we were all based, the workshop was very busy and everything was delivered late.
Eventually, a manager decided to get a grip on the situation.
He insisted, that the workshop would not do what you wanted if your delivery date was as soon as possible, rather than a date agreed by both parties.
The results were amazing and everything was delivered on the agreed date.
With the renewable energy connection queue, I am sure, that if a procedure was developed, that only allowed fully-planned projects with an agreed completion date to enter the queue, then the problems of phantom projects would be solved.
It might also reduce the cost of developing these renewable projects.
Centrica Signs UK Biomethane Agreement With Yorkshire Water And SGN Commercial Services
The title of this post, is the same as that of this news item from Centrica.
These three paragraphs outline the story.
Yorkshire Water, an essential water and wastewater services provider for the Yorkshire Region, and Centrica Energy Trading, have today announced signing a 15-year agreement to offtake biomethane production and manage shipping, trading, and balancing of production from two plants developed by SGN Commercial Services.
SGN, a leading manager of natural gas and green gas distribution networks in Scotland and the south of England will design, develop and operate the biomethane gas-to-grid sites, which once operational, will produce approximately 125GWh of biomethane annually — enough to heat more than 10,000 UK households.
Biogas will be produced as a by-product of Yorkshire Water’s sewage wastewater treatment processes, where Centrica will offtake production from the site and subsequently manage shipping, trading, and balancing of the green gas. Biomethane will be injected into the UK grid to displace natural gas, providing cleaner and more resilient gas supplies that reduces dependency on outside energy imports.
SGN Commercial Services are a wholly-owned subsidiary of SGN.
This mission statement is on the home page of their web site.
Our safety-first culture provides bespoke commercial solutions and green gas services to our clients, allowing them to better meet their business needs today and in the future.
In an energy market which is prioritising de-carbonisation and net-zero solutions, we can help navigate a clear pathway for your business to achieve its goals both responsibly and cost-effectively.
It looks to me, that SGN Commercial Services will design, develop and operate the biomethane gas-to-grid sites, so that the biomethane from the sewage works can be fed into Centrica’s main UK gas grid.
You could argue, that every sewage works and landfill producing large amounts of methane, should have one of these connections.
What would be the repercussions if SGN Commercial Services were asked to connect all these sites to the gas grid?
- How much gas would be collected?
- How many houses could be heated?
- How much of the greenhouse gas; methane would not be released into the atmosphere?
This is a cunning plan, that is worthy of Baldrick at his best.
Over a period of time, domestic gas consumption will fall as houses are fitted with heat pumps and other green methods for heating.
Could this mean, that as time goes on, more and more of our domestic consumption of gas is satisfied by net-zero gas from waste sources?
Does HiiROC Fit In Anywhere?
This article on UKTN is entitled Meet HiiROC, The Startup Making Low-Cost Hydrogen Free From Emissions.
There is a section, which is called How Does HiiROC Work?, where this is said.
The company’s hydrogen generation units use feedstock gases such as methane, flare gas or biomethane at high pressure and with a very high electrical field between an anode and cathode.
This dissembles the tightly bound molecules into hydrogen and carbon atoms, with both coming out as a plasma (like a gas). The carbon is instantly cooled and solidified as pure carbon, which means no carbon dioxide is formed, in a quenching process to stop it from reforming back into the input gas.
The end product is hydrogen and carbon black, a material used in rubber tires, inks and paint.
It’s a material that has wide industrial use, but current production methods create large amounts of CO2 and other environmentally harmful biproducts.
“Our process is emission-free,” says HiiROC co-founder and CEO Tim Davies. “Because all you’ve got is hydrogen and solid carbon – they are the two products.”
For every kilogram of hydrogen produced using HiiROC units, you’re left with three kilograms of carbon black. This, however, is a potentially valuable, clean solid by-product and does not contribute to global warming unlike processes that create carbon dioxide gas.
Read the full article on UKTN, as it is full of very interesting information.
It says this about distributing hydrogen to a number of industries.
Lots of industries need hydrogen, which means HiiROC has a broad range of potential customers.
Their smallest machine can produce up to 100 kilograms of hydrogen per day. But due to their modular design and small size, they can easily be stacked up to increase output, making them scalable for businesses requiring large-scale industrial hydrogen production.
So at one end of the scale, it could support a hydrogen filling station, or a farmer wanting to use hydrogen to go carbon-free and at the other, it could support an energy intensive process like hydrogen steelmaking. All that is needed is a suitable hydrocarbon gas feed.
Last night on the BBC, a program called What They Really Mean For You, was about electric cars.
The program flagged up a shortage of graphite for making the batteries for electric cars.
So seeing that HiiROC hydrogen systems, could be producing tonnes of carbon black could this be converted into battery-grade graphite?
Google says yes!
This article on Sciencing is entitled How To Turn Carbon Into Graphite.
Conclusion
As Centrica own a substantial portion of HiiROC and are lending the company a gas-fired power station for full scale trials, I believe that Centrica is up to something, that will have three strong benefits for the British public.
- They will be able to keep their gas boilers for longer.
- Hydrogen supplied by HiiROC’s devices will provide hydrogen in the required quantities to where it is needed.
- The carbon black produced by HiiROC’s devices, when turned into graphite will be a valuable feedstock for giga-factories making batteries.
Engineering is the science of the possible, whereas politics is dreams of the impossible.
Centrica To Build Largest Battery Storage Project To Date
The title of this post, is the same as that of this news item from Centrica.
These three paragraphs outline the news.
Centrica Business Solutions has secured the development rights to a 65MW two-hour battery storage plant in Perthshire, Scotland, its largest battery storage acquisition to date.
The site in Abernethy is located near a connection for North Sea offshore wind farms and will help manage grid capacity by charging when demand for power is low, and discharging when demand is at its highest.
Once connected to the grid in 2028, the 65MW two-hour battery will be able to store enough electricity to power 130,000 homes for an hour – the equivalent to a town the size of Aberdeen. The discharge could happen up to four times a day.
This map shows the site of the substation at Abernethy.
It seems a site with enough space for a 65 MW/130 MWh battery.
But is that a railway running past the site in the South-East corner of the map?
Yes! It is the single-track unelectrified railway that is used by trains to go between Edinburgh and Perth.
- There are stations at both ends of the single-track section at Ladybank and Perth.
- Abernethy substation looks like it is about halfway between the two end stations.
This page on Scotland’s Railway is entitled Fife Electrification and lists these four phases.
- Haymarket and Dalmeny
- Kinghorn and Thornton North
- Thornton and Lochgelly
- Thorton and Ladybank
The page also says that the electrification will support BEMUs (Battery Electric Multiple Units)
I feel that the electrification to Ladybank and Centrica’s battery could be linked.
- If the electrification was extended a few miles to Abernethy substation, this would surely be a reliable way to power the electrification.
- It would also be ideally placed, if Perth and Ladybank were to be electrified.
- The new battery would surely smooth out any deviations in the power supply.
I certainly don’t expect that Centrica will object to a new customer.
Electrification Between Edinburgh And Ladybank
Consider.
- Edinburgh and Ladybank is 39 miles and takes a couple of minutes over an hour.
- Once, the four phases of the electrification are complete, only the 13.6 miles between Dalmeny and Kinghorn, will be without electrification.
- I doubt that Dalmeny and Kinghorn will ever be electrified, as it includes the Forth Rail Bridge.
- Dalmeny and Kinghorn is 13.6 miles and takes around twenty-four minutes.
It looks like the BEMUs will be under wires for 25.4 miles and nearly forty minutes, which will be more than enough to charge the trains.
Edinburgh And Aberdeen
In Thoughts On Batteries On A Hitachi Intercity Tri-Mode Battery Train, I said this about services between Edinburgh and Aberdeen.
Consider.
-
- The gap in the electrification is 130 miles between Edinburgh Haymarket and Aberdeen.
- There could be an intermediate charging station at Dundee.
- Charging would be needed at Aberdeen.
I think Hitachi could design a train for this route.
The 25.4 miles of new Fife electrification between Haymarket and Ladybank will reduce gap in the electrification to 105 miles and ensure trains leaving Ladybank for Aberdeen had a full battery.
Centrica Bolsters UK’s Energy Security By Doubling Rough Storage Capacity
The title of this post, is the same as that of this news item from Centrica.
These are the first three paragraphs.
Following further engineering work and investment, Centrica has announced increased gas storage capacity at Rough, the UK’s largest gas storage facility.
The facility, which is 18 miles off the coast of East Yorkshire, stopped storing gas in 2017 but was re-opened for gas storage in October 2022. Rough now provides half of the UK’s total gas storage.
At the time of reopening Rough for gas storage it was able to store approximately 30 billion cubic feet (bcf) of gas for UK homes and businesses. Further investment in the facility means Rough will now be able to store up to 54 bcf of gas, boosting the UK’s energy resilience for the coming winter – this would provide the equivalent volume of gas to heat 2.4 million homes over winter.
This work and investment has increased the storage capacity by a massive eighty percent.
The news item finishes with this quote from Centrica Group Chief Executive, Chris O’Shea.
We stand ready to invest £2 billion to repurpose the Rough field into the world’s biggest methane and hydrogen storage facility, bolstering the UK’s energy security, delivering a net zero electricity system by 2035, creating 5,000 skilled jobs and decarbonising the UK’s industrial clusters by 2040. But to do this we need the right regulatory support framework. This world class North Sea asset has the potential to help the UK economy return to a position of being a net exporter of energy once again.
As East Yorkshire also boasts the Aldbrough Gas Storage in the salt formations under Hull, the area will have plenty of gas to keep them warm in the winter.
World’s First Offshore Hydrogen Production Project Yields First Kilograms Of Green Hydrogen
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
The offshore hydrogen production platform that Lhyfe is testing in France, named Sealhyfe, began producing its first kilograms of hydrogen on 20 June after it was towed last month to the SEM-REV offshore test site which is connected to BW Ideol’s floating wind turbine Floatgen.
These two paragraphs introduce the article.
Sealhyfe is capable of producing up to 400 kilograms of hydrogen per day.
With the start-of-production milestone now reached, the platform has entered the second phase of testing, which focuses on producing hydrogen in offshore conditions, after eight months of being tested at a quay in the Port of Saint-Nazaire, starting in September 2022.
The setup features a 1 MW electrolyser.
This may only be a small start, but I do feel that we’ll see more offshore hydrogen production.
According to Lhyfe And Centrica To Develop Offshore Renewable Green Hydrogen In The UK, Centrica and Lhyfe seem to be co-operating.
It should be noted that this year, I’ve written seven posts involving Offshore Hydrogen Production.
The Anonymous Widower 