Bidders Circle ‘Elvis Airport’ A Decade After The SNP Bought It For £1
The title of this post, is the same as that of this article in The Times.
This is the sub-heading.
Prestwick has cost taxpayers millions since it was nationalised by the SNP in 2013. A consortium plans a bid, but can the Nats let go of Sturgeon-era stateism?
These are the first two paragraphs.
It was always going to be difficult keeping a lid on the arrival of Elvis Presley at a US military base in Prestwick, Ayrshire. “Where am I?” he asked as he stepped off the plane and into the biting wind that whipped off the Firth of Clyde.
March 3, 1960 was a momentous day for the screaming youngsters who engulfed the American singer as he set foot on British soil for the first and only time. For Presley, it was his last stop on his return from Germany after two years of military service. For Prestwick, it meant being immortalised in British trivia for its brief flirtation with The King.
But now it appears that a consortium has a plan for the airport and has made a bid.
These are my thoughts.
Prestwick Airport
Prestwick Airport, which is 32 miles SouthWest of Glasgow, is an airport that has seen busier times.
This OpenRailwayMap shows the Airport.
Note.
- The airport has two runways at right angles.
- The longer runway is 3,000 metres long.
- The red line is the electrified Ayrshire Coast Line, which runs between Glasgow Central and Ayr.
- There is a station at the airport.
- The black line going across the map is an unelectrified railway line, which eventually leads to the West Coast Main Line.
The airport does have four very useful assets.
- A very long runway capable of handling the largest and heaviest aircraft.
- A railway station.
- Plenty of space.
- The airport has plenty of available landing and take-off slots.
I also suspect that a rail connection could be developed to the West Coast Main Line.
Prestwick As A Cargo Airport
Someone commenting in The Times, suggested that Prestwick could become a cargo airport.
- The main runway could accommodate the largest and heaviest cargo aircraft.
- There is space for stands for large aircraft and warehouses.
- A rail link to the electrified West Coast Main Line could be built.
The airport could have a very high capacity.
A Rail Connection To The West Coast Main Line
This could be very beneficial for air-cargo at Prestwick.
- It would be less than ninety miles to the West Coast Main Line.
- It is only single-track as British Rail removed the second track.
- Cargo Services could be run all over the UK mainland.
- There could even be an airport service from Carlisle.
A zero-carbon rail service for freight, passengers and staff from both Glasgow and Carlisle would enhance the green credentials of the airport.
Where Would Planes Fly?
It looks like a modern freighter aircraft like a Boeing 747-8F could fly at maximum weight to nearly all the USA.
But because Prestwick Airport is further North, It does possibly have a wider range of airports, it can reach.
What Is The Closest Airport In North America?
The two airports on Newfoundland; Gander and St. John’s are probably the two closest being about 2,000 miles from Prestwick.
- Both airports have long runways.
- I suspect a rail terminal could be arranged at the airport to take cargo through the Chunnel to Europe.
- Could USAF Galaxies even be used to bring over American tanks and guns for Ukraine? The range of a Galaxy at maximum weight is 2,600 miles.
- They could be delivered by rail to Ukraine.
I suspect there will be times, where the shorter routes could be useful.
Could Cargo Change Planes At Prestwick?
On some routes like perhaps New York and India, might it be more efficient to change planes at Prestwick.
Could Cargo Planes Refuel At Prestwick?
Planes can only fly so far and is Prestwick in the right place to refuel a long flight?
Prestwick Could Be A Viable Cargo Airport For North America?
I am convinced that Prestwick and North American could be a viable air cargo route.
Zero-Carbon Air Cargo
In the next few years, Scotland will have much more electricity, than it needs, due to all the wind farms in the seas around the country and much of the spare electricity could be converted into hydrogen.
So does a cargo operator plan to run zero-carbon aircraft powered by hydrogen between North America and Prestwick?
- Remember it’s only 2,000 miles between St. John’s or Gander and Prestwick.
- The ideal aircraft to convert to hydrogen, must surely be an Airbus A 380, as there’s a lot of space in the fuselage for a hydrogen tank.
- Cargo could be brought to Prestwick in zero-carbon trains from all over the UK.
Amazon might like the idea of zero-carbon parcels across the pond!
Could An Airbus A380 Be Converted To Hydrogen?
This article on Simple Flying is entitled Airbus Plans A380 Hydrogen Flights In 2026 After Successful Power On Of ZEROe Engine.
The header picture shows a visualisation of an Airbus A 380, with a fifth engine with a propeller mounted on the top of the fuselage. The A 380 will be testing this electric engine, so that it can be fitted in the ZEROe Turboprop sometime around 2030.
This is a visualisation of the ZEROe Turboprop.
Note,
- The hydrogen tank will probably be behind the passenger compartment.
- The A 380, that will be testing the engine is no ordinary A 380. It is the very first and Airbus use it as a flying laboratory for new technology.
- I wouldn’t bet against one of its next jobs, is to test turbofan engines running on hydrogen.
I wouldn’t be surprised that in a few years, Airbus demonstrate an A 380 flying between Europe and North America on hydrogen.
A Zero-Carbon Air Bridge Between Europe And North America
Or does Westjet fancy a zero-carbon shuttle service, which would appeal to the Gretas of this world?
It has been rumoured, that the possible buyers of Prestwick are linked to Westjet.
As soon, as someone announces, a flight like this across the Atlantic, I’ll be signing up!
If the worse should happen, which I think would be unlikely, it would surely be a less painful death, than that of my wife’s from a rare cancer.
Conclusion
There are certainly, possibilities at Prestwick.
Is Alstom’s Proposal For A Service Between London Euston And Wrexham Part Of A Cunning Plan?
Alstom have built and introduced into service between Buxtehude and Cuxhaven in Germany, the Coradia iLint hydrogen-powered train. The prototype has performed demonstrations in Austria, Canada, The Netherlands and Saudi Arabia.
This picture shows a Coradia iLint in Germany.
In the UK, Alstom had a plan to convert redundant Class 321 trains into a fleet of hydrogen-powered trains called Breeze, which I wrote about in Hydrogen Trains Ready To Steam Ahead, in January 2019.
This visualisation is from Alstom.
I suspect it didn’t appeal to train companies, as no orders appear to have been received.
But you can’t criticise Alstom for not trying, as in November 2021, they signed an agreement with Eversholt Rail Group to develop a hydrogen-powered Aventra, which I wrote about in Alstom And Eversholt Rail Sign An Agreement For The UK’s First Ever Brand-New Hydrogen Train Fleet.
This visualisation is from Alstom.
Visually, it looks just like any other Aventra and much better than the previous Breeze design.
In March 2018, I wrote Bombardier Bi-Mode Aventra To Feature Battery Power, which was based on this article in Rail Magazine.
These are a few points from the article.
- Development has already started.
- Battery power could be used for Last-Mile applications.
- The bi-mode would have a maximum speed of 125 mph under both electric and diesel power.
- The trains will be built at Derby.
- Bombardier’s spokesman said that the ambience will be better, than other bi-modes.
- Export of trains is a possibility.
- Bombardier’s spokesman also said, that they have offered the train to three new franchises. East Midlands, West Coast Partnership and CrossCountry.
Have Alstom looked at what they bought from Bombardier and decided the following train is possible, if they add some of their technology?
- A train the size needed by the customer, up to a length of at least ten cars.
- 125 mph under 25 KVAC overhead electrification.
- 100 mph with 750 VDC third rail electrification.
- Running on hydrogen away from electrification.
- 100 mph maximum speed running on hydrogen.
- A range of perhaps 500 miles, if it can emulate the hydrogen-powered Coradia iLint.
A train with this specification would have several applications in the UK.
- Fully-electric routes.
- Electric routes with perhaps a hundred miles of unelectrified track.
- Scenic routes, where the Nimbies wouldn’t like electrification.
These points should also be born in mind.
- There are now 110 mph Aventras in service with West Midland Trains on the West Coast Main Line.
- I recently came back from Cardiff to London in a twelve-car Class 387 train and there wasn’t too many unhappy passengers. It was certainly better than a rail replacement bus. I wrote about the trip in Cardiff To Reading In A Class 387 Train.
- Alstom believe you can certainly fit their hydrogen gubbins in an Aventra.
- The hydrogen gubbins appear to be from Cummins, who have a worldwide support network.
- Cummins can also supply complete hydrogen support systems. A truck can refuel the train, at one end of the route?
- Alstom have been doing the market research with the hydrogen-powered Coradia iLint, so I suppose they know what the market needs.
Could Alstom, with help from Cummins, have a zero-carbon 200 kph train and support systems, which has a hydrogen range of up to a thousand kms for export markets like the United States, Africa, Australia, India and South America?
Two big world-leading companies are surely better than one!
But Alstom has one big problem!
How do you fully test a 125 mph hydrogen-powered train?
- I know with aircraft, if you change the engine type on an existing aircraft, you only have to certify the engine and this is done on a Supplementary Type Certificate.
- Is it the same with trains, so a 110 mph Class 730 train, which is in service with West Midlands Trains, could be the basis of certifying a hydrogen-powered Aventra?
- The Coradia iLint was only a change from diesel to a hybrid hydrogen-electric engine, so was it certified this way?
- With the Coradia iLint, it seemed to go into service quite quickly, so did it do much of the testing in service?
I looks to me, that London Euston and Wrexham is an ideal route for a hydrogen bi-mode 125 mph train.
- The route has electrified sections, some of which have high operating speeds.
- The route has a convenient hydrogen supply from INEOS at Runcorn at the Northern end.
- Change between hydrogen and electric power would always take place in a station.
- A round trip needs less than 200 miles of running on hydrogen.
- South of Nuneaton, no hydrogen is used, so the train will be like a Class 730 train, that already uses the route.
- There are depots that can service Aventras on the route.
It is certainly a possibility, that the London Euston and Wrexham service will be used to test and showcase Alstom’s new Hydrogen Aventra.
Alstom Plans To Operate Its Own Passenger Train Service In The UK For The First Time
The title of this post, is the same as that of this press release from Alstom.
These two bullet points, act as sub-headings.
- Alstom is partnering with SLC Rail to form a new open access rail operation between North Wales, Shropshire, the Midlands and London
- Formal application now being submitted to the Office of Rail and Road (ORR) with passenger service sought from 2025
These are the first three paragraphs.
Alstom, global leader in smart and sustainable mobility, plans to operate a new passenger rail service across England and Wales. Working in partnership with consultancy SLC Rail, the open access operation will be known as Wrexham, Shropshire and Midlands Railway (WSMR).
As the country’s foremost supplier of new trains and train services, and a leading signalling and infrastructure provider, Alstom will operate its own rail service in the UK for the first time.
WSMR is seeking to introduce direct connectivity to and from North Wales, Shropshire, the Midlands and London that doesn’t exist today, linking growing communities and businesses, and making rail travel more convenient, enjoyable and affordable.
I can’t remember a service proposal being put forward by a train manufacturer since the privatisation of UK’s railways in the 1990s.
This is some more information and my thoughts.
The Route
This paragraph from the press release, describes the route.
The proposal envisages a service of five trains per day in each direction Monday to Saturday, with four travelling both ways on Sundays. Trains will stop at Gobowen, Shrewsbury, Telford Central, Wolverhampton, Darlaston, Walsall, Coleshill Parkway, Nuneaton and Milton Keynes on their journey between Wrexham General and London Euston.
Note.
- The proposed call at the new Darlaston station.
- The route is electrified between Euston and Nuneaton and Walsall and Wolverhampton.
- Much of the route North of Nuneaton is on tracks with a maximum speed of 70-80 mph.
The route is in these sections.
- Euston and Nuneaton – 96.7 miles – electrified
- Nuneaton and Walsall – 26.7 miles
- Walsall and Wolverhampton – 6.7 miles – electrified
- Wolverhampton and Shrewsbury – 29.7 miles
- Shrewsbury and Wrexham General – 30.3 miles
That is a total of 190.1 miles or 380.2 miles round trip.
I suspect that the service will need bi-mode trains.
Should The Service Call At Wellington?
This article on the BBC is entitled Rail Company Urged Not To Forget Wellington.
This is the sub-heading.
A rail company which is bidding to bring back a direct service between Shropshire and London has been urged not to forget a town.
These are the first three paragraphs.
Wrexham, Shropshire and Midlands Railway said it was preparing to apply to the government to run the service.
Trains would stop at Gobowen, Shrewsbury, Telford, Wolverhampton, Walsall, Coleshill and Nuneaton.
But Telford and Wrekin Council said the omission of Wellington as a stop was “short-sighted”.
Although Wellington is smaller than than Shrewsbury and Telford, it looks like a bit of analysis would provide a solution, that would be acceptable for all parties.
The Trains
In the press release, this phrase is used.
positive impact to both communities and the environment.
I can’t see any more electrification being erected on the route, so the trains will need to be bi-mode.
- Bi-mode diesel trains won’t have a positive impact on the environment.
- As the route between Wolverhampton and Wrexham General is not electrified, a battery-electric train would need a range of at least 60 miles or 120 miles for the round trip, if there were no charging at Wrexham General.
- But Alston are developing a Hydrogen Aventra, which I wrote about in Alstom And Eversholt Rail Sign An Agreement For The UK’s First Ever Brand-New Hydrogen Train Fleet.
So could Alstom be using this route to trial and showcase their new Hydrogen Aventra?
I believe that the route will be very suitable for a hydrogen train.
- Changeover between electric and hydrogen power can always take place in a station.
- All hydrogen refuelling could be performed at one end of the route.
- A large proportion of the UK’s green hydrogen is produced by INEOS at Runcorn, which is less than fifty miles from Wrexham. A refuelling tanker could supply the train, as they do on some hydrogen routes in Germany.
- London has only small amounts of hydrogen infrastructure.
I suspect that refuelling will be done at the Wrexham end of the route.
This Alstom visualisation shows the train.
But it is only a three-car train.
- That is not a problem, as Aventras can be lengthened as required to the length required for the number of passengers.
- Some Aventras, like the Class 701 trains for South Western Railway, have even been ordered as ten-car trains.
- Two three-car trains may also be the ideal capacity, running as a six-car train.
So capacity will not be a problem.
If it is assumed that Alstom’s trains for the WSMR route, can use the overhead wires, where they exist, each trip between Wrexham General and London will require a total of 86.7 miles or 140 kilometres of running on hydrogen.
- A round trip will therefor require 280 kilometres of running on hydrogen.
- But between London Euston and Nuneaton, it will just be another electric train.
- I suspect that like the similar Class 730 train, it will be capable of 110 mph on the West Coast Main Line.
- Alstom’s Coradia iLint hydrogen train has a range of around a 500-800 kilometres on hydrogen.
- The WSMR trains will probably be 100 mph trains using hydrogen on a route, where that speed is possible.
So if a Hydrogen Aventra has a similar range to the Coradia iLint, it will be able to do two round trips before refuelling.
How Long Will The Service Take?
West Midlands Trains, who use the similar Class 730 trains take one hour and eleven minutes between London Euston and Nuneaton with a single stop at Milton Keynes Central.
As the WSMR trains will use the same route, I suspect the same time can be used.
As Nuneaton and Wrexham General are 93.4 miles apart a table can be created showing the time for the rest of the journey for different average speeds
- 50 mph – 1 hour 52 minutes – 3 hours 3 minutes.
- 60 mph – 1 hour 33 minutes – 2 hours 44 minutes.
- 70 mph – 1 hour 20 minutes – 2 hours 31 minutes.
- 80 mph – 1 hour 10 minutes – 2 hours 21 minutes.
Note.
- The first time is the Nuneaton and Wrexham General time and the second time is the overall journey time.
- Typical Avanti West Coast services via Crewe and a change at Chester, take between two-and-a-half and three hours.
I suspect, if the WSMR trains can keep the speed up through the Midlands, that two hours and 30 minutes could be possible.
Could The Hydrogen Aventra Run At 125 mph Under The Wires?
In March 2018, I wrote Bombardier Bi-Mode Aventra To Feature Battery Power, which was based on this article in Rail Magazine.
These are a few points from the article.
- Development has already started.
- Battery power could be used for Last-Mile applications.
- The bi-mode would have a maximum speed of 125 mph under both electric and diesel power.
- The trains will be built at Derby.
- Bombardier’s spokesman said that the ambience will be better, than other bi-modes.
- Export of trains is a possibility.
- Bombardier’s spokesman also said, that they have offered the train to three new franchises. East Midlands, West Coast Partnership and CrossCountry.
Have Alstom looked at what they bought from Bombardier and decided the following train is possible?
- Five-cars or what the customer needs.
- 125 mph under the wires.
- Running on hydrogen away from the wires.
- 100 mph on tracks without electrification.
Obviously, maximum speeds would depend on track limits.
Looking at 125 mph Avanti West Coast trains that have a Milton Keynes stop between London Euston and Nuneaton, they can reach Nuneaton ten minutes quicker than West Midlands Trains 110 mph Class 730 trains.
Two hours and 30 minutes between London Euston and Wrexham is looking increasingly possible.
Are we seeing an audacious proposal from Alston to sell new trains to CrossCountry and a host of other franchises?
Conclusion
London Euston and Wrexham would appear to be an excellent route for an Aventra-based hydrogen train.
- It can probably cruise at 110 mph on the West Coast Main Line between London Euston and Nuneaton.
- All switchovers between electrification and hydrogen can be performed in electrified stations.
- Hydrogen would only be used North of Nuneaton.
- The train can be refuelled at Wrexham General, with fuel supplied from INEOS at Runcorn.
- Given the typical 1000 km. range of hydrogen trains, a train can probably do three round trips without refuelling.
I can see this being a service with an excellent operational record.
National Gas To Trial Gravitricity’s H2 Storage Solution
The title of this post, is the same as that of this article on The Engineer.
This is the sub-heading.
Gravitricity’s H2FlexiStore system for underground hydrogen storage could see a pilot built in 2025 after National Gas secured Ofgem funding to explore the technology.
There is then a graphic, which gives a good visual explanation.
The patented system uses lined geological shafts to store up to 100 tonnes of pressurised hydrogen at 220 bar, equivalent to about 3.33GWh of energy. Unlike natural storage such as salt caverns and disused gas fields, the shafts can be sited anywhere. Gravitricity has previously stated its preference for co-locating the storage near to renewable generation and potential major consumers of hydrogen such as heavy industry.
I can see that this simple system can have a lot of diverse uses.
In Centrica Completes Work On 20MW Hydrogen-Ready Peaker In Redditch, I talked about how Centrica had refurbished a decommissioned peaker plant.
One of these stores would keep a 20 MW peaker plant running for a week.
It would also work well with a HiiROC hydrogen system.
Hydrogen Start-Up Can Expand Thanks To Northern Powerhouse Fund
The title of this post, is the same as that of this article in The Times.
This is the sub-heading.
Suiso’s technology for extracting clean fuel has been found to produce lower emissions and use less energy than common alternatives
These three paragraphs describe the finances and outline the their hydrogen generator.
Suiso, a South Yorkshire-based company developing a hydrogen generator, has raised £3 million from the Northern Powerhouse Investment Fund (NPIF).
The company plans to create generators as big as shipping containers that could power factories, hospitals and warehouses or be used at filling stations to fuel hydrogen-powered vehicles.
The new funds come from the asset manager Mercia’s equity finance fund, which is part of the NPIF, and Mercia’s enterprise investment scheme.
This paragraph describes the technology.
Suiso uses novel microwave technology to extract hydrogen from natural gas or biogas, capturing the carbon in the form of carbon black, which can be used to make tyres, batteries and inks. In 2023 the company was one of the winners of a government competition to provide technology to supply hydrogen energy.
These are my thoughts.
Suiso And HiiROC
Suiso are taking a similar route to HiiROC.
- The base feedstock is natural gas, which is mainly methane or CH4, with four planet-saving hydrogen atoms and a very naughty carbon one.
- Clever technology is then applied to the methane atoms and the carbon atom doesn’t like it, so they let go of the hydrogen atoms.
- It is then a matter of physically separating the carbon black from the hydrogen.
The difference between the two processes is that Suiso use microwave technology and HiiROC use plasma technology.
HiiROC claim their process will work with any hydrocarbon gas from biomethane through off-gas from a chemical plant to natural gas.
So I suspect, that as Suiso says it will work with biomethane, both technologies will work with virtually any hydrocarbon gas.
Uses Of Carbon Black
This Wikipedia entry gives a lot of information on carbon black.
There is a section, which is entitled Common Uses, where this is said.
The most common use (70%) of carbon black is as a pigment and reinforcing phase in automobile tires. Carbon black also helps conduct heat away from the tread and belt area of the tire, reducing thermal damage and increasing tire life. Its low cost makes it a common addition to cathodes and anodes and is considered a safe replacement to lithium metal in lithium-ion batteries. About 20% of world production goes into belts, hoses, and other non-tire rubber goods. The remaining 10% use of carbon black comes from pigment in inks, coatings, and plastics, as well as being used as a conductive additive in lithium-ion batteries.
Carbon black is added to polypropylene because it absorbs ultraviolet radiation, which otherwise causes the material to degrade. Carbon black particles are also employed in some radar absorbent materials, in photocopier and laser printer toner, and in other inks and paints. The high tinting strength and stability of carbon black has also provided use in coloring of resins and films. Carbon black has been used in various applications for electronics. A good conductor of electricity, carbon black is used as a filler mixed in plastics, elastomer, films, adhesives, and paints. It is used as an antistatic additive agent in automobile fuel caps and pipes.
There is another section, which is entitled Use in Lithium-Ion Batteries, where this is said.
Carbon black is a common conductive additive for lithium ion batteries as they have small particle sizes and large specific surface areas (SSA) which allow for the additive to be well distributed throughout the cathode or anode in addition to being cheap and long-lasting. Unlike graphite, which is one of the other common materials used in chargeable batteries, carbon black consists of crystal lattices that are further apart and promotes Li+ intercalation because it allows more pathways for lithium storage.
Carbon black has a low density that allows for a large volume of it to be dispersed so that its conductive effects are applied evenly throughout the battery. Furthermore, its arrangement of randomly distributed graphite-like crystals improves battery stability because of the decrease in the potential barrier of lithium intercalation into graphite, which ultimately affects the performance of cathodes.
Carbon black does seem to be very useful.
Suiso’s Web Site
This is Suiso’s web site.
The page is headed About Us and this is said.
Suiso is a developer of a low energy near zero emission microwave-driven methane cracking process for onsite generation of Hydrogen.
Hydrogen, the most abundant element in the universe, is rapidly emerging as a sustainable solution for the decarbonisation of the economy and a key piece of the energy transition picture in UK, Europe and around the world.
The cost and practical issues with generating and distributing Hydrogen has held back its use in most economies. Suiso’s technology uses existing electrical, natural/bio gas assets and infrastructure to produce clean low cost hydrogen. By transforming stranded ‘brown’ assets into vital hydrogen infrastructure, Suiso helps reduce CO2 emissions and enables countries throughout the world to meet challenging greenhouse gas emissions targets, quickly and cost effectively.
Suiso’s technology allows its generating units to be positioned anywhere there is a supply of natural/bio gas and electricity. Being located at the point of use eliminates the costly distribution (by truck or pipe) of H2 to the customer – delivering significant cost reductions. This allows it to offer competitively priced H2 for small to medium sized applications in developed and developing countries., including:
- H2 Fueling stations
- Biomethane (H2) conversion/decarbonisation for grid injection
- Light industrial applications
- Domestic H2 supply for small communities/towns
- Demand management/System top up
- Emergency H2 supply
It will design, build and supply these generators directly or via licensees to markets throughout the world.
Conclusion
I like this company.
Centrica Completes Work On 20MW Hydrogen-Ready Peaker In Redditch
The title of this post, is the same as that of this press release from Centrica.
This is the sub-heading.
Construction is complete on Centrica’s new 20MW hydrogen-blend-ready gas-fired peaking plant in Worcestershire, transforming the previously decommissioned Redditch power plant.
These paragraphs give more details of the project.
The plant is designed to support times of high or peak demand for electricity. Peaking plants only operate when production from renewables can’t meet demand, supporting the energy transition by maintaining a stable electricity supply. The Redditch site can power the equivalent of 2,000 homes for a full day, helping to maintain stability and reliability on the grid.
The plant is capable of using a blend of natural gas and hydrogen, futureproofing the site and supporting the UK’s transition towards a decarbonised energy system.
The Redditch peaking plant forms part of Centrica’s plans to invest between £600m – £800m a year until 2028 in renewable generation, security of supply, and its customers, including building out a portfolio of flexible energy assets. That includes the redevelopment of several legacy power stations, including the Brigg Energy Park in to a power generation and battery storage asset, and the first power station in the UK to be part-fuelled by hydrogen.
I also wrote Centrica Business Solutions Begins Work On 20MW Hydrogen-Ready Peaker In Redditch, about this project.
HiiROC
I wonder if this power station will be fitted with a HiiROC system, which will split the natural gas into two useful products; hydrogen and carbon black.
I wrote about HiiROC in Centrica Partners With Hull-Based HiiRoc For Hydrogen Fuel Switch Trial At Humber Power Plant.
I can see lots of HiiROC systems creating a hydrogen feed, to decarbonise various processes.
Whose Engines Are Used At Redditch?
Centrica still haven’t disclosed, whose engines they are using.
Riding Into the Future: Germany’s Pioneering Hydrogen-Powered Tram Project
The title of this post, is the same as that as this article on bnn Breaking.
This is the sub-heading.
Explore Germany’s groundbreaking project to develop a fuel cell-powered tram, leading the charge in sustainable urban mobility and reimagining the future of public transportation.
These are the first two paragraphs.
In the quiet, industrious corners of Germany, a revolution is unfolding on the tracks of public transportation. A consortium led by Hörmann Vehicle Engineering, alongside partners Heiterblick, Flexiva Automation & Robotik, and Technische Universität Chemnitz, has embarked on a groundbreaking journey to conceptualize, design, and test what could be the world’s next leap in eco-friendly mass transit: a hydrogen-powered tram. The project, aptly named the Hydrogen Tram for Next Generation, merges the realms of innovation, sustainability, and practicality, aiming to redefine urban mobility in ways we’ve only begun to imagine.
The project’s heart beats with a simple yet ambitious goal: to create a fuel cell-powered tram that doesn’t just exist as a prototype but thrives as a model for future public transportation. This initiative isn’t just about building a tram; it’s about reimagining the entire ecosystem surrounding urban mobility. From devising a robust refueling strategy to simulating operations and testing the fuel cell system, the collaborators are leaving no stone unturned. The project, with a generous €8 million budget, is buoyed by support from the federal government’s national hydrogen and fuel cell technology innovation program. This isn’t merely an experiment; it’s a statement of intent by Germany to lead the charge in sustainable transit solutions.
I have a few thoughts.
Chemnitz
These pictures show Chemnitz and its trams.
Note.
- Chemnitz used to be called Karl Marx Stadt.
- Chemnitz has some hybrid trams and tram-trains.
- I described how the Chemnitz trams work in Chemnitz Trams And The Chemnitz Model.
Chemnitz could be a very suitable place to try out the technology.
Hence, the involvement of Chemnitz University in the project doesn’t surprise me.
Tram-Trains
This article on Railway Gazette International, which is entitled Hydrogen Tram Development Project Underway, is also about the same project.
This is the first paragraph.
The Hydrogen Tram for Next Generation project has been launched to develop a fuel cell-powered vehicle which would enable services to be extended into new areas and tram-train routes created without the need for electrification.
It looks like this was added in the translation.
Tram Trains In South London
In The Third-Rail Tram-Train, I postulated using third-rail tram trains to extend the London Tramlink.
Since then Merseyrail have tried to extend, their third-rail electrified network and been told they couldn’t.
I have written these posts about using tram-trains to extend the London Tramlink.
- Could There Be A Tram-Train Connection At Reeve’s Corner?
- Would Third-Rail Tram-Trains Affect The Design Of The Proposed Streatham Interchange Station?
- The Cranleigh Line
- Thoughts On The Sutton Loop Line
- Could Third-Rail Tram-Trains Work The Epsom Downs Branch?
- Could Third-Rail Tram-Trains Be Used To Increase Services In South London?
- Could Beckenham Junction To Birkbeck Be Run Using Third-Rail Tram-Trains?
- Could Tram-Trains Be Used To Advantage In Croydon?
So would a hydrogen-powered tram-train be useful technology to extend the London Tramlink?
It just could be!
Zero-Carbon Between Manchester and Sheffield
This OpenRailwayMap shows the electrification across the Pennines.
Note.
- Red lines are electrified with 25 KVAC overhead.
- Mauve lines are tram lines electrified with 750 VDC overhead.
- The mauve lines in the West are the Manchester Metrolink.
- The mauve lines in the East are the Sheffield Supertram
- Black lines are not electrified.
- Red and black lines are currently being electrified.
- The blue arrow at the bottom of the map indicates Buxton.
- To the North of Buxton, the line linking Manchester and Sheffield is the Hope Valley Line.
- Running North-East from Manchester is the main TransPennine route between Leeds and Manchester via Dewsbury and Huddersfield.
This OpenRailwayMap shows the TransPennine route between Morley and Mossley stations.
Note.
- Colours are as before.
- Morley station is in the North-East corner of the map.
- Huddersfield station is indicated by the blue arrow in the middle of the map.
- Mossley station is in the South-West corner of the map.
In a few years time, there will be 25 KVAC overhead electrification all the way between Leeds and Manchester via Dewsbury and Huddersfield.
This OpenRailwayMap shows the routes around Manchester and Sheffield and the connecting routes between Barnsley, Huddersfield, Manchester and Sheffield.
Note.
- Colours are as before.
- The blue arrow at the bottom of the map indicates Buxton.
- The line to Stocksbridge runs North-West from Sheffield.
- To its East the Penistone Line runs to Huddersfield via Barnsley.
- Manchester has a series of lines to the East that need to be electrified.
How many of these lines could be integrated into the tram systems of Manchester and Sheffield, by the use of hydrogen-powered tram-trains?
Hydrogen-powered tram-trains could share lines with battery-electric trains.
Tram-trains could run from say Cathedral in Sheffield to Piccadilly Gardens in Manchester.
Using self-powered trains would cut the need for expensive infrastructure.
The possibilities are endless and carbon free.
Conclusion
Hydrogen-powered trams and tram-trains could be a valuable tool for decarbonising trams and trains.
Iberdrola Preparing Two East Anglia Offshore Wind Projects For UK’s Sixth CfD Round
The title of this post, is the same as that of this article on offshoreWIND.biz.
This is the sub-heading.
ScottishPower Renewables, Iberdrola’s company in the UK, is getting the East Anglia One North and East Anglia Two offshore wind projects ready for the upcoming auction round for Contracts for Difference (CfD).
These three paragraphs give more details.
This is according to project updates Iberdrola published as part of its financial results for 2023.
Iberdrola says “good progress is being made in the key engineering and design work” for the two projects and, while they were not presented in the UK’s fifth CfD Allocation Round (AR5), preparations are being made to take part in Allocation Round 6 (AR6).
The two offshore wind farms are part of the GBP 6.5 billion (around EUR 7.6 billion) East Anglia Hub project, which also includes East Anglia Three, currently in construction and expected to start delivering electricity in 2026. The 1.4 GW East Anglia Three was awarded Contract for Difference in July 2022.
It is now possible to build a table of Iberdrola’s East Anglian Hub.
- East Anglia One – 714 MW – Commissioned in 2020.
- East Anglia One North – 800 MW – To be commissioned in 2026.
- East Anglia Two – 900 MW – To be commissioned in 2026.
- East Anglia Three – 1372 MW – To be commissioned in 2026.
Note.
- East Anglia One is the largest windfarm in Iberdrola’s history
- These four wind farms are connected to the shore at Bawdsey on the River Deben.
These wind farms are a total of 3786 MW.
In addition there are RWE’s three Norfolk wind farms.
- Norfolk Boreas – 1386 MW – To be commissioned in 2027.
- Norfolk Vanguard East – 1380 MW – To be commissioned before 2030.
- Norfolk Vanguard West – 1380 MW – To be commissioned before 2030.
These wind farms are a total of 4146 MW, with a grand total of 7932 MW.
What Will Happen To The Electricity?
Consider.
- It is a lot of electricity.
- The good people of Norfolk are already protesting about the cables and pylons, that will connect the electricity to the National Grid.
- The good people of Suffolk will probably follow, their Northern neighbours.
- The wind farms are owned by Spanish company; Iberdrola and German company; RWE.
I wonder, if someone will build a giant electrolyser at a convenient place on the coast and export the hydrogen to Europe by pipeline or tanker.
- The ports of Felixstowe, Great Yarmouth and Lowestoft could probably handle a gas tanker.
- The Bacton gas terminal has gas pipelines to Belgium and The Netherlands.
In addition, there are various electricity interconnectors in use or under construction, that could send electricity to Europe.
- National Grid’s Lion Link to the Netherlands.
- NeuConnect to Germany from the Isle of Grain.
Whoever is the UK’s Prime Minister in 2030 will reap the benefits of these East Anglian and Norfolk wind farms.
In addition.
- The Hornsea wind farm will have tripled in size from 2604 MW to 8000 MW.
- The Dogger Bank wind farm will have grown from 1235 MW to 8000 MW.
- There is 4200 MW of wind farms in Morecambe Bay and around England.
They would be so lucky.
Wrightbus Hydrogen Coach Planned For 2026
The title of this post, is the same as that of this article in Bus&Coach Buyer.
This is the sub-heading.
Wrightbus‘ planned hydrogen coach is expected to be in production by 2026.
These are the first three paragraphs.
Jean-Marc Gales, Wrightbus CEO, told B&CB that a prototype model intended to demonstrate the powertrain is expected towards the end of the year.
Jean-Marc said: “The concept is ready, the predevelopment work has been done, so we are confident we can launch it in 2026.”
He says the vehicle is aimed at operators that do long distance coach journeys. “Hydrogen coaches can do up to 1,000km range and in five to ten years we will see a much higher proportion of hydrogen coaches than electrical,” he said.
Jean-Marc Gales also said this about the design challenge.
Jean-Marc said: “If you build a hydrogen coach, it’s a technical tour de force. Coach operators require six to ten cubic metres of luggage space. You need at least 50 to 60 seats and disability access and enough packaging space to put the tanks and the hydrogen cooling system and the fuel cells in. But we can do it, we have the technical expertise with fuel cells; we have the best engineers on the market for fuel cell buses. We have millions of miles with electrical and fuel cell vehicles in service since we launched them.
I haven’t ever used coaches much, but in the UK, there are some well-established long-distance markets.
These are some typical driving distances.
- Plymouth and Sunderland – 334 miles – 537 km.
- Brighton and Liverpool – 216 miles – 347 km.
- London and Edinburgh – 332 miles – 534 km.
- London and Paris – 213 miles – 343 km.
- London and Gdansk – 804 miles – 1294 km.
Note.
- Away football and fans of other sports use coaches and a 1,000 km range would certainly be needed to get Plymouth supporters to all away matches and back.
- The London and Scottish Market has been strong all my life.
- London and Gdansk would be an interesting trip in a coach. If you need one, look for Sinbad Coaches.
I certainly believe that Jean-Marc Gales and Wrightbus, are developing the technology for a worthwhile market.
Newquay Station – 9/10th February 2024
These pictures show Newquay station.
Note.
- It is a small one-platform station.
- It has a few facilities.
- It is located on the main street in the centre of the town.
This Google Map shows Newquay station.
Newquay station appears to have a very long platform.
- This page on Railway Data gives a length of 242 metres.
- It should accommodate a nine-car Class 802 train.
- The station is also close to the beach.
It looks to me that Newquay station is ready for a big surfing festival.
I have a few thoughts.
Adding A Second Platform
These pictures show the space alongside the current single track. At least for a five-car train.
Note.
- I would expect that adding a second platform could be easily done by a competent and experienced construction company.
- There would need to be new track and a set of points, so that a train could use either platform.
- Signalling would be added, so both platforms could be used, either separately or at the same time.
I also expect that the Tregoss Loop would need to be commissioned before the second platform.
Adding Charging For Battery-Electric Trains
Consider.
In GWR Trialling Transformative Ultra-Rapid Charging Train Battery, I talked about the installation of the Vivarail/GWR Fast Charge system at West Ealing station.
In Decarbonising The Mid-Cornwall Metro, I talked about using the Vivarail/GWR Fast Charge system or hydrogen to decarbonise the Mid-Cornwall Metro.
This picture shows the Vivarail/GWR Fast Charge system at West Ealing station.
I feel there would be no problem fitting one of these in one or both of the platforms at Newquay.
But I do feel that the best way to decarbonise services to Newquay, would be to fully-electrify Par station with 25 KVAC overhead wires.
- Mid-Cornwall Metro services would charge their batteries using a pantograph, every time that they reversed in the station.
- Long distance battery-electric services through the station would top up their batteries during a stop at the station.
- Locomotives with batteries will be increasingly used on freight services and charging may be needed for the locomotives used from china clay trains.
Note.
- Par and Falmouth Docks is 30.8 miles.
- Par and Newquay is 20.8 miles.
- Par and Penzance is 44.8 miles
- Par and Plymouth is 34.7 miles.
- Par and Truro is 19 miles.
Par would appear to be a station, that could be easy to electrify and is conveniently placed in the heart of services through Cornwall.
The Anonymous Widower 