RWE Acquires 4.2-Gigawatt UK Offshore Wind Development Portfolio From Vattenfall
The title of this post, is the same as that of this press release from RWE.
These three bullet points, act as sub-headings.
- Highly attractive portfolio of three projects at a late stage of development, with grid connections and permits secured, as well as advanced procurement of key components
- Delivery of the three Norfolk Offshore Wind Zone projects off the UK’s East Anglia coast will be part of RWE’s Growing Green investment and growth plans
- Agreed purchase price corresponds to an enterprise value of £963 million
These two paragraphs outline the deal.
RWE, one of the world’s leading offshore wind companies, will acquire the UK Norfolk Offshore Wind Zone portfolio from Vattenfall. The portfolio comprises three offshore wind development projects off the east coast of England – Norfolk Vanguard West, Norfolk Vanguard East and Norfolk Boreas.
The three projects, each with a planned capacity of 1.4 gigawatts (GW), are located 50 to 80 kilometres off the coast of Norfolk in East Anglia. This area is one of the world’s largest and most attractive areas for offshore wind. After 13 years of development, the three development projects have already secured seabed rights, grid connections, Development Consent Orders and all other key permits. The Norfolk Vanguard West and Norfolk Vanguard East projects are most advanced, having secured the procurement of most key components. The next milestone in the development of these two projects is to secure a Contract for Difference (CfD) in one of the upcoming auction rounds. RWE will resume the development of the Norfolk Boreas project, which was previously halted. All three Norfolk projects are expected to be commissioned in this decade.
There is also this handy map, which shows the location of the wind farms.
Note that there are a series of assets along the East Anglian coast, that will be useful to RWE’s Norfolk Zone development.
- In Vattenfall Selects Norfolk Offshore Wind Zone O&M Base, I talked about how the Port of Great Yarmouth will be the operational base for the Norfolk Zone wind farms.
- Bacton gas terminal has gas interconnectors to Belgium and the Netherlands lies between Cromer and Great Yarmouth.
- The cable to the Norfolk Zone wind farms is planned to make landfall between Bacton and Great Yarmouth.
- Sizewell is South of Lowestoft and has the 1.25 GW Sizewell B nuclear power station, with the 3.2 GW Sizewell C on its way, for more than adequate backup.
- Dotted around the Norfolk and Suffolk coast are 3.3 GW of earlier generations of wind farms, of which 1.2 GW have connections to RWE.
- The LionLink multipurpose 1.8 GW interconnector will make landfall to the North of Southwold
- There is also the East Anglian Array, which currently looks to be about 3.6 GW, that connects to the shore at Bawdsey to the South of Aldeburgh.
- For recreation, there’s Southwold.
- I can also see more wind farms squeezed in along the coast. For example, according to Wikipedia, the East Anglian Array could be increased in size to 7.2 GW.
It appears that a 15.5 GW hybrid wind/nuclear power station is being created on the North-Eastern coast of East Anglia.
The big problem is that East Anglia doesn’t really have any large use for electricity.
But the other large asset in the area is the sea.
- Undersea interconnectors can be built to other locations, like London or Europe, where there is a much greater need for electricity.
- In addition, the UK Government has backed a consortium, who have the idea of storing energy by using pressurised sea-water in 3D-printed concrete hemispheres under the sea. I wrote about this development in UK Cleantech Consortium Awarded Funding For Energy Storage Technology Integrated With Floating Wind.
A proportion of Russian gas in Europe, will have been replaced by Norfolk wind power and hydrogen, which will be given a high level of reliability from Suffolk nuclear power.
I have some other thoughts.
Would Hydrogen Be Easier To Distribute From Norfolk?
A GW-range electrolyser would be feasible but expensive and it would be a substantial piece of infrastructure.
I also feel, that placed next to Bacton or even offshore, there would not be too many objections from the Norfolk Nimbys.
Hydrogen could be distributed from the site in one of these ways.
- By road transport, as ICI did, when I worked in their hydrogen plant at Runcorn.
- I suspect, a rail link could be arranged, if there was a will.
- By tanker from the Port of Great Yarmouth.
- By existing gas interconnectors to Belgium and the Netherlands.
As a last resort it could be blended into the natural gas pipeline at Bacton.
In Major Boost For Hydrogen As UK Unlocks New Investment And Jobs, I talked about using the gas grid as an offtaker of last resort. Any spare hydrogen would be fed into the gas network, provided safety criteria weren’t breached.
I remember a tale from ICI, who from their refinery got a substantial amount of petrol, which was sold to independent petrol retailers around the North of England.
But sometimes they had a problem, in that the refinery produced a lot more 5-star petrol than 2-star. So sometimes if you bought 2-star, you were getting 5-star.
On occasions, it was rumoured that other legal hydrocarbons were disposed of in the petrol. I was once told that it was discussed that used diluent oil from polypropylene plants could be disposed of in this way. But in the end it wasn’t!
If hydrogen were to be used to distribute all or some of the energy, there would be less need for pylons to march across Norfolk.
Could A Rail Connection Be Built To The Bacton Gas Terminal
This Google Map shows the area between North Walsham and the coast.
Note.
- North Walsham is in the South-Western corner of the map.
- North Walsham station on the Bittern Line is indicated by the red icon.
- The Bacton gas terminal is the trapezoidal-shaped area on the coast, at the top of the map.
ThisOpenRailwayMap shows the current and former rail lines in the same area as the previous Google Map.
Note.
- North Walsham station is in the South-West corner of the map.
- The yellow track going through North Walsham station is the Bittern Line to Cromer and Sheringham.
- The Bacton gas terminal is on the coast in the North-East corner of the map.
I believe it would be possible to build a small rail terminal in the area with a short pipeline connection to Bacton, so that hydrogen could be distributed by train.
There used to be a branch line from North Walsham station to Cromer Beach station, that closed in 1953.
Until 1964 it was possible to get trains to Mundesley-on-Sea station.
So would it be possible to build a rail spur to the Bacton gas terminal along the old branch line?
In the Wikipedia entry for the Bittern Line this is said.
The line is also used by freight trains which are operated by GB Railfreight. Some trains carry gas condensate from a terminal at North Walsham to Harwich International Port.
The rail spur could have four main uses.
- Taking passengers to and from Mundesley-on-Sea and Bacton.
- Collecting gas condensate from the Bacton gas terminal.
- Collecting hydrogen from the Bacton gas terminal.
- Bringing in heavy equipment for the Bacton gas terminal.
It looks like another case of one of Dr. Beeching’s closures coming back to take a large chunk out of rail efficiency.
Claire Coutinho And Robert Habeck’s Tete-a-Tete
I wrote about their meeting in Downing Street in UK And Germany Boost Offshore Renewables Ties.
- Did Habeck run the RWE/Vattenfall deal past Coutinho to see it was acceptable to the UK Government?
- Did Coutinho lobby for SeAH to get the contract for the monopile foundations for the Norfolk Zone wind farms?
- Did Coutinho have a word for other British suppliers like iTMPower.
Note.
- I think we’d have heard and/or the deal wouldn’t have happened, if there had been any objections to it from the UK Government.
- In SeAH To Deliver Monopiles For Vattenfall’s 2.8 GW Norfolk Vanguard Offshore Wind Project, I detailed how SeAH have got the important first contract they needed.
So it appears so far so good.
Rackheath Station And Eco-Town
According to the Wikipedia entry for the Bittern Line, there are also plans for a new station at Rackheath to serve a new eco-town.
This is said.
A new station is proposed as part of the Rackheath eco-town. The building of the town may also mean a short freight spur being built to transport fuel to fire an on-site power station. The plans for the settlement received approval from the government in 2009.
The eco-town has a Wikipedia entry, which has a large map and a lot of useful information.
But the development does seem to have been ensnared in the planning process by the Norfolk Nimbys.
The Wikipedia entry for the Rackheath eco-town says this about the rail arrangements for the new development.
The current rail service does not allow room for an extra station to be added to the line, due to the length of single track along the line and the current signalling network. The current service at Salhouse is only hourly during peak hours and two-hourly during off-peak hours, as not all trains are able to stop due to these problems. Fitting additional trains to this very tight network would not be possible without disrupting the entire network, as the length of the service would increase, missing the connections to the mainline services. This would mean that a new 15-minute shuttle service between Norwich and Rackheath would have to be created; however, this would interrupt the main service and cause additional platforming problems. Finding extra trains to run this service and finding extra space on the platforms at Norwich railway station to house these extra trains poses additional problems, as during peak hours all platforms are currently used.
In addition, the plans to the site show that both the existing and the new rail station, which is being built 300m away from the existing station, will remain open.
. As the trains cannot stop at both stations, changing between the two services would be difficult and confusing, as this would involve changing stations.
I feel that this eco-town is unlikely to go ahead.
Did RWE Buy Vattenfall’s Norfolk Zone To Create Green Hydrogen For Europe?
Consider.
- Vattenfall’s Norfolk Zone is a 4.2 GW group of wind farms, which have all the requisite permissions and are shovel ready.
- Bacton Gas terminal has gas pipelines to Europe.
- Sizewell’s nuclear power stations will add security of supply.
- Extra wind farms could be added to the Norfolk Zone.
- Europe and especially Germany has a massive need for zero-carbon energy.
The only extra infrastructure needing to be built is the giant electrolyser.
I wouldn’t be surprised if RWE built a large electrolyser to supply Europe with hydrogen.
Would You Buy A Battery Energy Storage System From Rolls-Royce?
I don’t often click on adverts that appear in web pages.
But I had to click on one from Rolls-Royce mtu, which advertised Battery Energy Storage Systems.
I wonder what the Honourable Charles Rolls would have thought of adverts on the Internet for the company he jointly founded?
I suspect he would have liked the idea, as Rolls was very much a promoter of motoring and aviation and opened one of the first car dealerships in the UK, according to his Wikipedia entry.
The Wikipedia entry for his business partner; Sir Henry Royce starts with this sentence.
Sir Frederick Henry Royce, 1st Baronet, OBE (27 March 1863 – 22 April 1933) was an English engineer famous for his designs of car and aeroplane engines with a reputation for reliability and longevity.
He is also described as a perfectionist.
This sentence from the Wikipedia entry, describes how he started the design of the legendary “R” engine.
In October 1928, he began design of the “R” engine while walking with some of his leading engineers on the beach at West Wittering, sketching ideas in the sand. Less than a year later, the “R” engine, designed in his studio in the village, set a new world air speed record of 357.7 miles per hour and won the Schneider Trophy of 1929.
Later with help from the maddest person my father ever met (his words, not mine!) ; Lady Houston, the Supermarine S.6B won the trophy in 1931 and then broke the world speed record at over 400 mph. Not bad for a seaplane. Take the floats off an S.6B and you almost have a Spitfire.
The Wikipedia entry also describes how the “R” engine was developed into what many engineers believe was the finest internal combustion engine of all time; the Rolls-Royce Merlin.
Following the success of the “R” engine, it was clear that they had an engine that would be of use to the Royal Air Force. As no Government assistance was forthcoming at first, in the national interest they went ahead with development of what was called the “PV-12” engine (standing for Private Venture, 12-cylinder). The idea was to produce an engine of about the same performance as the “R”, albeit with a much longer life. Rolls-Royce launched the PV-12 in October 1933 and the engine completed its first test in 1934, the year after Royce died. The PV-12 became the Rolls-Royce Merlin engine.
Where would we have been in the Battle of Britain without the Merlin engine?
Since 1969, the engineers at Rolls-Royce have followed Sir Henry’s example of perfection and developed the revolutionary RB-211 into the modern day Trent, which is now about to take a big leap into a low-carbon future with the UltraFan.
If the quality of Rolls-Royce mtu’s Battery Energy Storage System matches the levels of perfection Rolls-Royce achieved with the Merlin and the Trent, then I suspect that Sir Henry would have given his approval.
This picture is shown on the web page for the Battery Energy Storage System.
These two paragraphs introduce, what Rolls-Royce mtu are calling the mtuEnergyPack.
In today’s world of economic growth and increasing populations, the demand for electricity is soaring. Governments and industries globally shift to distributed renewable energy, challenging centralized grids. To adapt to this changing energy landscape, the mtuEnergyPack offers an ideal solution.
It integrates renewable sources like solar and wind power, paving the way for future-ready sustainable power systems. The mtu EnergyPack is a scalable, all-in-one solution for autonomous off-grid facilities. It ensures reliable power through peak shaving, load-shifting, and grid stabilization, making it suitable for various applications.
These are my thoughts.
What Is The Output And The Storage Capacity?
This paragraph on this page gives this answer.
It efficiently stores electricity from distributed sources and delivers on demand. The mtu EnergyPack is available in different sizes: The QS and the QL, ranging from 200 kVA to 2,000 kVA, and from 312 kWh to 2,084 kWh, and the QG for grid scale storage needs, ranging from 4,400 kVA and 4,470 kWh to virtually any size.
It seems that you specify your requirements and Rolls-Royce mtu should be able to satisfy it.
What Devices Can Be Connected?
This paragraph on this page gives this answer.
The mtu EnergyPack serves as a key component in enhancing the reliability and profitability of microgrids and energy systems. It stores electricity generated by distributed power sources, including gensets, wind turbines, or solar panels, and delivers it when needed.
In the 1970s, when I was working at ICI, others in the section were working on a system called MEDIA, where every sensor on a chemical plant was connected to the central computer, through its own analog-to-digital computer. It would now be called plug-and-play by some.
I believe that Rolls-Royce mtu are using similar ideas to connect equipment to the control computer.
These are my thoughts about connecting various equipment.
- Hydrogen-powered generators and electrolysers as Rolls-Royce mtu are using at Duisburg, which I wrote about in Rolls-Royce Makes Duisburg Container Terminal Climate Neutral With MTU Hydrogen Technology.
- Could Rolls-Royce’s beer keg-sized 2.5 MW electrical generator based on a Super Hercules engine, be connected?
- Could a Rolls-Royce Trent be connected?
- Could one of Rolls-Royce’s small modular nuclear reactors be connected?
- In Rolls-Royce To Play Key Role In US Department Of Defense Nuclear Microreactor Program, I talk about developing a 1-5 MW nuclear reactor for US Department of Defense. Could these be connected?
I don’t see why every device can’t work to the same protocol.
What Is The Power Density Like?
This paragraph on this page gives this answer.
The mtu EnergyPack’s compact battery system designs suit projects with limited space and logistical restrictions.
In ‘Spirit of Innovation’ Stakes Claim To Be The World’s Fastest All-Electric Vehicle, I talked about Rolls-Royce’s record-breaking electric plane called Spirit of Innovation.
Has what has been learned about energy storage in the confined spaces of an aeroplane been applied to a Battery Energy Storage System?
What Do Rolls-Royce mtu Consider To Be Important Features?
On this page, they list these features.
- Power Density
- Digitally Connected
- Multilevel Safety
- Black Start Capability
- Scalability
- Ultra-Fast Response
- Flexible Use
- Plug-And-Play Installation
The design seems to have everything covered.
Can Similar Systems Be Designed By Others?
I would expect that similar systems can be designed, as technology like batteries is available to all and the operation is only as good as the software controlling the various components of the system.
But similar systems will be without the famous Rolls-Royce logo.
Could One Of These Systems Decarbonise A Village?
I once lived in a village with about fifty houses and perhaps a hundred inhabitants.
- There was an old World War Two airfield, that could probably accommodate a small wind farm of perhaps 20 MW.
- There were a couple of barns and large sheds, that could have solar panels similar to those I described in Bedford Depot’s Massive Solar Roof Helps Thameslink On Way To Net Zero.
I suspect an mtuEnergyPack could control all these inputs and provide the village with the following.
- Enough electricity to power all the needs of the inhabitants, businesses and their vehicles.
- If an electrolyser were to be provided, it could probably produce enough hydrogen to power every boiler and hydrogen-powered vehicle.
Note.
- Farmers would like the local availability of hydrogen, as it will be ideal for tractors and agricultural machinery.
- I actually believe that if a village had a reliable and affordable hydrogen supply, that a large proportion of the inhabitants would switch to hydrogen-powered vehicles.
There would still be the National Grid there for backup.
Conclusion
If I needed an mtuEnergyPack, I’d certainly give one a close look.
Bedford Depot’s Massive Solar Roof Helps Thameslink On Way To Net Zero
The title of this post, is the same as that of this article on RailUK.
These four paragraphs give full details of the project.
Work has begun installing one of Bedford’s biggest solar arrays – on the roof of Govia Thameslink Railway’s (GTR’s) train depot, in Cauldwell Walk.
Almost 1,000 photovoltaic panels (932) will generate 322 MWh of electricity a year – enough to power 120 homes every year, saving more than 66 tonnes of CO2e. They form part of GTR’s commitment to become carbon ‘net zero’ for all its energy needs by 2050.
The solar roof – one of four at different depots across GTR’s vast 11 county network – is being installed by not-for-profit community climate action group Energy Garden.
When it comes online in the New Year, Energy Garden will sell half the solar electricity to GTR to power the depots and plough profits from selling what’s left over into community development projects – Energy Garden already works with more than 50 community groups.
This Google Map shows the location of Bedford Cauldwell Park TMD with respect to Bedford station.
Note.
Bedford station is at the top of the map.
Bedford Cauldwell Park TMD is marked by the red arrow.
This second map shows the depot to an enlarged scale.
Note.
- The map appears to show several roofs, that could be candidates for solar panels.
- At least one shed sells cars. Do they sell electric ones?
As the rail depot appears to be the largest building of its type in the centre of Bedford, in the future will it be serving as a advert for Energy Garden?
This project sounds like a good idea.
And I like the way it’s financed.
Ørsted Greenlights 2.9 GW Hornsea 3 Offshore Wind Farm
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
Ørsted has taken the final investment decision (FID) on what the company says is the world’s single largest offshore wind farm, the 2.9 GW Hornsea 3, which is expected to be completed around the end of 2027.
These are the two introductory paragraphs.
In July 2022, Ørsted was awarded a contract for difference (CfD) for Hornsea 3 at an inflation-indexed strike price of GBP 37.35 per MWh in 2012 prices.
The CfD framework permits a reduction of the awarded CfD capacity. The company said it will use this flexibility to submit a share of Hornsea 3’s capacity into the UK’s upcoming allocation round 6.
With all the work, that Ørsted have done to protect kittiwakes, which I wrote about in Kittiwake Compensation, the company seems to have been taking the development of this wind farm carefully and this statement from the wonderfully-named Mads Nipper, Group President and CEO of Ørsted indicates that the UK Government has been persuasive in times, that are not totally favourable to wind farm developers.
Offshore wind is an extremely competitive global market, so we also welcome the attractive policy regime in the UK which has helped secure this investment. We look forward to constructing this landmark project, which will deliver massive amounts of green energy to UK households and businesses and will be a significant addition to the world’s largest offshore wind cluster.
But the article also has this paragraph.
According to Ørsted, most of Hornsea 3’s capital expenditure was contracted before recent inflationary pressures, securing competitive prices from the supply chain, adding that the larger wind turbines and the synergies with Hornsea 1 and 2 lead to lower operating costs.
It looks like Ørsted, may have taken advantage of Siemens well-publicised financial woes and got a good price for the over two hundred turbines.
This page on the Hitachi web site, describes their part in Hornsea 3, where this is said.
Hitachi Energy has supported Ørsted with the grid connection of Hornsea One and Hornsea Two, but Hornsea 3 will be the first phase to use HVDC application in the Hornsea cluster.
The overall HVDC system, including the offshore platform, is delivered in partnership with Aibel. Hitachi Energy will supply two HVDC Light® converter systems, while Aibel will deliver two HVDC offshore converter platforms. The platform is based on Hitachi Energy’s modular HVDC system including its advanced control and protection system, MACH™. As the HVDC offshore market grows and becomes more complex, Hitachi Energy will continue to develop solutions with its customers and partners to enable a more flexible offshore grid of the future.
Hitachi Energy is supplying four HVDC converter stations, which convert AC power to DC for transmission in the subsea cables, then reconvert it to AC for integration into the onshore grid. Two of the converter stations will be installed on offshore platforms and two at mainland grid connections.
Note.
- Hitachi are pushing their electrical innovation hard.
- Hitachi and Ørsted have worked together on Hornsea 1 and 2.
- What better place is there for Hitachi to test their new modular HVDC system, than on one of the world’s largest wind farms?
- Hitachi appear to say, they like to develop with customers and partners.
It looks to me, that Ørsted may well have got new improved technology at an advantageous price.
This is the last paragraph of the article.
The Hornsea zone will also include the Hornsea 4 project, which could have a capacity of up to 2.6 GW. The wind farm received its development consent order from the UK government earlier in 2023 and is now eligible for forthcoming CfD allocation rounds.
So will Hornsea 4 be a slightly smaller version of Hornsea 3 using the same suppliers?
- There could be savings in the design and manufacturing of the electrical systems, foundations, sub-stations and turbines.
- Could for instance, Hitachi’s modular HVDC result in savings in converters and sub-stations, if the two wind farms shared infrastructure?
- I’m sure that Siemens, Hitachi and the other suppliers will be happy to just keep rolling.
- It would be an ideal follow-on.
It looks to me, that by using good design and management, and established suppliers, Ørsted have managed to get the costs of Hornsea 3 and Hornsea 4 to a level, where the venture is profitable.
Pipeline Of UK Energy Storage Projects Grows By Two-Thirds Over Last 12 Months
The title of this post, is the same as that of this press release from RenewableUK.
These four paragraphs summarise the data.
A new report released today by RenewableUK shows that the pipeline of energy storage projects which are operational, under construction, consented or being planned has increased by more than two-thirds over the last year in terms of capacity.
Batteries play a key role in our modern flexible energy system, helping grid operators to finely balance the supply of electricity to meet demand at all times.
Our EnergyPulse Energy Storage report shows that the total pipeline of battery projects has increased from 50.3 gigawatts (GW) a year ago to 84.8GW, an increase of 68.6% (34.5GW).
Operational battery storage capacity has grown to 3.5GW, and the capacity of projects under construction has reached 3.8GW. A further 24.5GW has been consented, 27.4GW has been submitted in the planning system and 25.7GW is at an early stage of development but yet to be submitted. This chart shows the total UK battery portfolio in megawatts (MW).
Note.
- I find the bare statistics very heartening, as how often do you find any industry, that will be positive for the future of the planet, that increases in size in a year by 68.6 %.
- Having been involved a couple of times in my life, with funding high growth markets, I suspect that in part this growth is happening, because banks, insurance and other financial companies are prepared to fund schemes that are proposed.
It is worth reading the press release in full, as it flags up are several interesting points.
Getlink To Enable The Doubling Of Direct High Speed Rail Services From The UK Over The Next 10 Years Via The Channel Tunnel
The title of this post, is the same as that of this press release from Getlink.
This is the sub-heading.
This doubling will be achieved by reducing the “time to market” from 10 to 5 years for operators who intend to launch new services between London and Cologne, London and Frankfurt, London and Geneva, London and Zurich.
These three paragraphs introduce the press release.
On 6 May 2024, Eurotunnel, a wholly owned subsidiary of Getlink, will celebrate 30 years since the opening of the Channel Tunnel and the introduction of the first LeShuttle and LeShuttle Freight rail services linking Folkestone (Kent)to Coquelles (Pas-de-Calais). This year will also mark the 30th anniversary of the first direct rail links between London and Paris, and London and Brussels.
Three decades after this pioneering step forward in Europe’s rail network, and in the wake of the development of the recently introduced link between London and Amsterdam, Eurotunnel is aiming to further accelerate the low-carbon mobility of people between the UK and continental Europe by doubling the number of new direct destinations from London via the Channel Tunnel over the next 10 years.
The reduction in the time needed to launch new services to just 5 years is the fruit of the work by Eurotunnel, the infrastructure manager and keystone of the cross-Channel high-speed links, in cooperation with partners from across the European ecosystem (infrastructure managers, authorities, manufacturers, regulators).
Getlink will use these four steps towards simplification.
- Market research carried out by Eurotunnel to identify destinations.
- Standardisation of Tunnel regulations with the relevant authorities.
- Integration of tunnel specific criteria with manufacturers in their standard rolling stock offering.
- Preparing cross-Channel connections with network operators and stations.
It will be so good to have more services between London and Europe.
Great Western Railway Updates EHRT On Its Upcoming Operational Trial Of Fast Charge Tech
The title of this post, is the same as that of this article on Electric and Hybrid Rail Technology.
This is the sub-heading.
Great Western Railway’s senior program manager, Sonya Johns, speaks to Electric & Hybrid Rail Technology about the firm’s progress on developing ex-Vivarail Fast Charge technology for battery-powered trains, ahead of operational trials due to commence in 2024.
The article is a must-read as it describes the progress since First Group, acquired the assets and intellectual property of Vivarail and its Fast Charge battery train technology.
This paragraph describes the components of the Fast Charge technology.
The Fast Charge system consists of three key components: retractable charging shoe gear, which is mounted to the underframe of the train; short (4m) charging rails mounted between the underframe of the train; and the Fast Charge Battery Bank (FCBB) installed beside the track, acting as an energy buffer between the train and the grid.
This paragraph outlines the benefits of the system.
The Fast Charge system has several benefits, according to Johns, including high charging power, enabling the train to be recharged in around 10 minutes; a standard DNO connection, avoiding costly power supply upgrades; full automation, with no driver interaction required; low safety risk (the charging rails are never live unless fully covered by the train); and minimal disruption during installation, as the FCBB is manufactured offsite and the charging rails are attached to existing sleepers.
This sounds like a system, that has been designed by someone fed up with regulators saying no to innovative ideas.
Other points from the article include.
- The shoe gear has been designed to be easily installed on any rolling stock.
- The one-year trial of the Fast Charge technology and the Class 230 battery train on the West Ealing and Greenford line will commence in spring 2024.
- GWR will capture and analyze data during the trial to understand how the technology performs in different conditions.
The article finishes with this paragraph.
The work, according to GWR, is part of its commitment to reduce the carbon emissions of its train fleet with a view to removing all diesel-only traction from the network by 2040, in line with the Government’s Transport Decarbonisation Plan.
Adrian Shooter would have been pleased if he was here to see it.
Vestas and Vattenfall Sign 1.4 GW Preferred Supplier Agreement For UK Offshore Wind Project And Exclusivity Agreements For 2.8 GW For Two Other UK Projects
The title of this post, is the same as that of this press release from Vestas.
These are the first two paragraphs.
Vattenfall, one of Europe’s largest producers and retailers of electricity and heat, and Vestas have signed agreements to elevate the partnership between the two companies and their offshore wind business towards 2030. The agreements are another step in the right direction for offshore wind energy in the UK and follow the UK Government’s recent announcement about the parameters for the next Contracts for Difference Auction round, which sent a very positive signal to renewable energy investors.
The agreements for the three projects include a preferred supplier agreement (PSA) for the 1,380 MW Norfolk Vanguard West project, comprising 92 of Vestas’ V236-15 MW offshore wind turbine. Vattenfall and Vestas have further signed exclusivity agreements for the Norfolk Vanguard East and Norfolk Boreas projects with a total installed capacity of 2,760 MW. The two latter projects will potentially feature up to 184 V236-15 MW turbines. Once installed, the agreements also include that Vestas will service the projects under long-term Operations and Maintenance (O&M) service contracts. The agreements are another step forward for what will be one of the largest offshore wind zones in the world, with a capacity to power over 4 million UK homes.
It looks like Norfolk Boreas is back on Vattenfall’s list of active projects.
Vattenfall’s Norfolk zone now includes the following.
- Norfolk Vanguard West – 92 x V236-15 MW – 1380 MW
- Norfolk Vanguard East – 92 x V236-15 MW – 1380 MW
- Norfolk Boreas – 92 x V236-15 MW – 1380 MW
Note.
- All turbines appear identical.
- The deal includes long-term Operations and Maintenance (O&M) service contracts.
- 276 identical turbines plus service contracts looks like a good deal for Vestas.
Since I wrote Vattenfall Stops Developing Major Wind Farm Offshore UK, Will Review Entire 4.2 GW Zone in July 2023, which has this sub-heading.
Vattenfall has stopped the development of the Norfolk Boreas offshore wind power project in the UK and will review the way forward for the entire 4.2 GW Norfolk Zone, the Swedish energy company revealed in its interim report.
I have written the following posts.
- November 2023 – Aker Solutions Gets Vattenfall Nod To Start Norfolk Vanguard West Offshore Platform
- November 2023 – Norfolk Boreas Windfarm Work Could Resume After Energy Price Rise
- December 2023 – SeAH To Deliver Monopiles For Vattenfall’s 2.8 GW Norfolk Vanguard Offshore Wind Project
- Earlier in March 2023, I wrote Vattenfall Selects Norfolk Offshore Wind Zone O&M Base
It appears that with the deal announced with Vestas, Vattenfall now have everything they need to develop 4.2 GW of offshore wind.
- The O & M base will be Great Yarmouth.
- SeAH will build the monopile foundations on Teesside. Will all monopiles be identical?
- An energy price rise could change the cash flow of the project.
- Aker Solutions will build the offshore substations.Will all sub-stations be identical?
- Vestas will build the wind turbines.Will all turbines be identical?
Nothing has been said since July 2023 about how the power will be brought ashore.
In February 2022, I wrote Norfolk Wind Farms Offer ‘Significant Benefit’ For Local Economy, where I published this map from Vattenfall, which shows the position of the farms and the route of the cable to the shore.
Note.
- The purple line appears to be the UK’s ten mile limit.
- Norfolk Boreas is outlined in blue.
- Norfolk Vanguard West and Norfolk Vanguard East are outlined in orange.
- Cables will be run in the grey areas.
- Cables to deliver 4.1 GW across Norfolk to the National Grid, will bring out the Nimbys in droves.
Landfall of the cables will be just a few miles to the South of the Bacton gas terminal.
In SeAH To Deliver Monopiles For Vattenfall’s 2.8 GW Norfolk Vanguard Offshore Wind Project, I asked if there could be an alternative approach.
Consider.
- If Vattenfall develop all three wind farms; Boreas, Vanguard East and Vanguard West, they will have 4.2 GW of capacity, when the wind co-operates.
- But East Norfolk is not noted for industries that need a large amount of electricity.
- I also feel, that the locals would object to a steelworks or an aluminium smelter, just like they object to electricity cables.
But would they object to a 4 GW electrolyser?
Could this be Vattenfall’s alternative approach?
- A giant electrolyser is built close to the landfall of the cable to the wind farms.
- The hydrogen could be piped to Bacton, where it could be blended with the UK’s natural gas.
- Bacton also has gas interconnectors to Balgzand in the Netherlands and Zeebrugge in Belgium. Could these interconnectors be used to export hydrogen to Europe?
- The hydrogen could be piped to Yarmouth, where it could be exported by tanker to Europe.
There would be only a small amount of onshore development and no overhead transmission lines to connect the wind farms to the National Grid.
There would be even less onshore development, if the electrolyser was offshore.
From their decisions, Vattenfall seem to have a new plan.
Thousands Pay More Tax In ‘Chaotic’ Yousaf Budget
The title of this post, is the same as that of this article in The Times.
It has this sub-heading.
Efforts to plug £1.5bn funding hole put Scotland at a disadvantage, say business leaders
I have a feeling that the rise in income tax will have unintended consequences.
The UK’s Current Hydrogen Plans
Last week, the UK Government announced grants for eleven big hydrogen projects, around the UK, with two in Scotland. The new Scottish electrolysers will be playing a large part in decarbonising the Scotch whisky industry and HGVs.
I wrote Major Boost For Hydrogen As UK Unlocks New Investment And Jobs to describe the investments scope and benefits.
The Government estimated that these grants will create 700 jobs, across the UK.
How many quality high-paid jobs will this funding create in Scotland? As two of the eleven projects are based in Scotland, it could be around 127 quality jobs.
More UK Hydrogen Plans Are On The Way
The Government also indicated that this was only the first stage of bringing hydrogen production to the UK, so I will expect more high-paid quality jobs will be created.
Projected UK Offshore Wind Power
This Wikipedia entry is a list of all installed, under-construction and proposed offshore wind farms in the UK.
Aggregating the new unbuilt wind farms says the following capacity will very likely be installed in the UK in the next few years.
- Scotland – 32, 750 MW.
- England – 25,558 MW
- Wales – 700 MW
As more proposals have been called for, particularly in the Celtic Sea, I don’t think it would be unreasonable to add perhaps another 10,000 MW.
Wind farms are also proposed for around the island of Ireland and in the waters of the Channel Islands.
Upgrading Of The National Grid
These three posts could well be forerunners of other posts, I will write in the next few months.
- National Grid Fast-Tracks Overhead Line Upgrade Project To Help Accelerate Connection Dates Of 175 Clean Energy Projects
- National Grid To Accelerate Up To 20GW Of Grid Connections Across Its Transmission And Distribution Networks
- National Grid’s London Power Tunnels Breakthrough Completes £1 Billion Project’s Tunnelling Activity
National Grid is increasing its capacity at a fast pace and will need a large number of quality engineers.
Crossrail And Electrical Engineers/Electricians
I suspect we’ll find, that when a report on the late delivery of Crossrail is published, an electrician shortage will get some of the blame.
I have friends, who are electricians. Because of the shortage of trained electricians, they were offered fortunes to work on Crossrail.
Do We Have Enough Engineers?
For all the reasons I have outlined, our path to net-zero will need a lot of trained electrical engineers and electricians and just as Crossrail showed, when there is a shortage of labour in a particular area, remuneration rises.
Electrical engineers and electricians in the British Isles will be able to pick and choose the jobs they take, just as they did with Crossrail and the other major projects being built at the same time.
Effects On Scotland
If you were an engineer, who had skills and could work on these projects, would you prefer to work on a project, where the tax rate was lower?
Scotland’s tax rise will harm their decarbonisation ambitions.
Surely, the Greens should have vetoed a tax increase, which will inevitably slow their progress to net-zero?
Or are Greens a tad short of the grey matter?
Conclusion
I believe the Scottish government has shot itself in the foot.








