Could Doncaster Sheffield Airport Become A Hydrogen Airport?
I asked Google AI, what is the current status of Doncaster Sheffield Airport and received this reply.
Doncaster Sheffield Airport (DSA) is currently in a state of active, public-funded redevelopment after closing in late 2022 due to financial issues, with plans to reopen for passenger flights by late 2027 or 2028, following significant funding (around £160m) secured by the South Yorkshire Mayoral Combined Authority (SYMCA) for the City of Doncaster Council to take over operations and rebuild commercial viability, with freight and general aviation potentially returning sooner.
This Google Map shows the location of the airport.
Note.
- The distinctive mouth of the River Humber can be picked out towards the North-East corner of the map.
- Hull and Grimsby sit in the mouth of the Humber.
- The red arrow indicates Doncaster Sheffield Airport.
- Leeds is in the North-West corner of the map.
- The towns and city of Doncaster, Rotherham and Sheffield can be picked out to the West of the airport.
This second Google Map shows a close-up of the airport.
On my visit to NASA in the 1980s, where an Artemis system was used to project manage the turnround of the Space Shuttle, I was asked questions by one of NASA’s support people about RAF Finningley. Nothing too technical, but things like what is Doncaster like.
When I asked why, they said there’s a high chance that a Space Shuttle could land at RAF Finningley, as it has one of the best runways for a very heavy aircraft in Europe.
Looking at the runway, it is a long and wide runway that was built for heavy RAF nuclear bombers like Valiants, Victors and Vulcans.
I believe that we will eventually see hydrogen- and/or nuclear-powered airliners flying very long routes across the globe, just as a nuclear-powered example, attempted to do in the first episode of the TV series Thunderbirds, which was called Trapped in the Sky and has this Wikipedia entry.
Just as the Space Shuttle did, these airliners and their air-cargo siblings will need a large runway.
Doncaster Sheffield Airport already has such a runway.
These hydrogen- and nuclear-powered aircraft will make Airbus A 380s look small and will need runways like the one at Finningley.
But I don’t think we’ll ever see nuclear-powered aircraft in the near future, so the aircraft will likely be hydrogen.
Other things in favour of making Doncaster Sheffield Airport, an airport for long range hydrogen aircraft include.
- The airport is close to the massive hydrogen production and storage facilities being developed on Humberside at Aldbrough and Rough.
- The airport could be connected to the Sheffield Supertram.
- The airport could be connected to the trains at Doncaster station, which has 173 express trains per day to all over the country.
- The airport would fit well with my thoughts on hydrogen-powered coaches, that I wrote about inFirstGroup Adds Leeds-based J&B Travel To Growing Coach Portfolio
- The airport might even be able to accept the next generation of supersonic aircraft.
- The airport could certainly accept the largest hydrogen-powered cargo aircraft.
- The Airport isn’t far from Doncaster iPort railfreight terminal.
Did I read too much science fiction?
I have some further thoughts.
Do Electric Aircraft Have A Future?
I asked Google AI this question and received this answer.
Yes, electric aircraft absolutely have a future, especially for short-haul, regional, and urban air mobility (UAM), promising quieter, zero-emission flights, but battery limitations mean long-haul flights will rely more on hydrogen-electric or Sustainable Aviation Fuels (SAF) for the foreseeable future. Expect to see battery-electric planes for shorter trips by the late 2020s, while hybrid or hydrogen solutions tackle longer distances, with a significant shift towards alternative propulsion by 2050.
That doesn’t seem very promising, so I asked Google AI what range can be elected from electric aircraft by 2035 and received this answer.
By 2035, fully electric aircraft ranges are expected to be around 200-400 km (125-250 miles) for small commuter planes, while hybrid-electric models could reach 800-1,000 km (500-620 miles), focusing on short-haul routes due to battery limitations; larger, long-range electric flight remains decades away, with hydrogen propulsion targeting 1,000-2,000 km ranges for that timeframe.
Note.
- I doubt that many prospective passengers would want to use small commuter planes for up to 250 miles from Doncaster Sheffield airport with hundreds of express trains per day going all over the UK mainland from Doncaster station.
- But Belfast City (212 miles), Dublin (215 miles) and Ostend (227 miles), Ronaldsway on the Isle of Man (154 miles) and Rotterdam(251 miles) and Schipol 340 miles) may be another matter, as there is water to cross.
It looks like it will be after 2035 before zero-carbon aircraft will be travelling further than 620 miles.
My bets would be on these aircraft being hydrogen hybrid aircraft.
What Will The Range Of Hydrogen-Powered Aircraft In 2040?
I asked Google AI this question and received this answer.
By 2040, hydrogen-powered commercial aircraft are projected to have a range that covers short- to medium-haul flights, likely up to 7,000 kilometers (approximately 3,780 nautical miles), with some models potentially achieving longer ranges as technology and infrastructure mature.
The range of these aircraft will vary depending on the specific technology used (hydrogen fuel cells versus hydrogen combustion in modified gas turbines) and aircraft size.
It looks like we’ll be getting there.
This Wikipedia entry is a list of large aircraft and there are some very large aircraft, like the Antonov An-225, which was destroyed in the Ukraine War.
A future long-range hydrogen-powered airline must be able to match the range of current aircraft that will need to be replaced.
I asked Google AI what airliner has the longest range and received this reply.
The longest-range airliner in service is the Airbus A350-900ULR (Ultra Long Range), specifically configured for airlines like Singapore Airlines to fly extremely long distances, reaching around 9,700 nautical miles (18,000 km) for routes like Singapore to New York. While the A350-900ULR holds records for current operations, the upcoming Boeing 777-8X aims to compete, and the Boeing 777-200LR was previously known for its exceptional range.
I believe that based on the technology of current successful aircraft, that an aircraft could be built, that would be able to have the required range and payload to be economic, with the first version probably being a high-capacity cargo version.
Electric Freight: A Solution To The WCML Capacity Conundrum
The title of this post is the same as that of this article on Rail Engineer.
These two paragraphs introduce the article.
Network Rail considers the West Coast Main Line (WCML) to be the busiest mixed traffic railway in Europe. It carries 125mph passenger trains from London to the West Midlands, North West, and Scotland and is used by 90% of intermodal UK rail freight which has a maximum speed of 75mph. Traffic on the line has been steadily increasing. In 1994 there were seven daily passenger trains from Glasgow to London. Now there are 26.
In 2006 Network Rail commissioned an in-depth study to find the best way of providing additional capacity as, with increasing traffic, the WCML between London and the North West was forecast to be full by 2020. The study found that the provision of a new high-speed line was the best solution and was the basis for the development of the HS2 project. The 2006 study correctly forecast that the WCML will by now be at full capacity south of Crewe, yet following the curtailment of HS2 two years ago there are no proposals to address the capacity issue between Rugby and Crewe that was identified 20 years ago.
David Shirres, puts forward a solution that involves electric freight locomotives and faster freight wagons.
I can add some knowledge of what British Rail were doing in the 1970s to solve the problem of freight on the West Coast Main Line all those years ago.
This picture shows a PACE 231R.
In the early 1970s, I was lucky enough to work with one of these amazing machines. They were probably one of the most powerful analogue computers ever built, that could solve a hundred simultaneous differential equations at once using thermionic valve circuitry. Their most famous application was at NASA, where two of these machines formed the analogue half of the moon-landing simulator.
There were a handful of these powerful beasts in the UK at ICI Plastics, where I worked, British Motor Corporation, Cambridge University and British Rail Research at Derby.
At the time, British Rail were trying to run freight trains faster and the four-wheel freight wagons of the time were derailing with an unwanted regularity. So the problem was given to British Rail Research and the problem was put on the PACE 231R. The problem was solved and the lessons learned were applied to the Mark 3 Coach and the InterCity 125.
After privatisation, the research went to the National Railway Museum and out of curiosity a few years ago, I tried to look at it, but was told it was commercially sensitive to Bombardier. It is my belief, that if this research were to be continued at one of our best universities, that faster freight bogies could be developed, that would help to create the extra freight paths needed on the WCML.
South West Freight Set For Resurgence
The title of this article is the same as that of a feature article in the November Edition of Modern Railways.
One of the topics, the article discusses is lithium mining in Cornwall and its transport from the South West.
I started by asking, Google AI, where lithium is mined in Europe, and received this answer.
Portugal is the only country in the EU currently mining lithium, with the Barroso project being the main focus of future production. However, there are multiple other European countries with significant lithium deposits that are expected to begin mining in the near future, including the Czech Republic, Finland, France, Germany, Spain, and Serbia.
So Cornish lithium will be one of several sources, but surely ideal for UK batteries.
The Modern Railways article has two paragraphs, which describe lithium mining in Cornwall.
But it’s the potential for lithium that may be the most exciting development for rail freight in the region. Cornish Lithium plans to extract it from an open pit at Trelavour, near St Austell, and it is adamant that rail will be vital for its plans to come to fruition. Trelavour is next to the Parkandillack china clay processing plant, and Cornish Lithium plans to use this to bring in essential materials. The volumes are significant – an estimated 180,000 tonnes per year of input are anticipated, most if not all brought in by rail, and the site’s output of around 8,000 tonnes per year could also go by rail. It is hoped the first traffic could run to the site before the end of Control Period 7 in March 2029 in a project that could run for 20 years.
It isn’t just Cornish Lithium seeking to extract this ‘white gold’ from Cornwall. Imerys British Lithium is extracting lithium and producing lithium carbonate, initially at a pilot site in Roche – with the aim of producing around 21,000 tonnes of the material every year for 30 years.
In total the two sites will produce 790,000 tonnes of lithium ores over thirty years, which when averaged is about 72 tonnes per day.
I then asked Google AI, where the lithium will be processed and refined and received this answer.
Lithium from Cornwall will be processed and refined at demonstration and full-scale plants located within the county. Specifically, Cornish Lithium has a demonstration plant in St Dennis and plans to build a full-scale plant there to produce refined lithium hydroxide. Similarly, the British Lithium project, a joint venture with Imerys, is developing a pilot plant and full-scale processing facility in the St Austell area to produce lithium carbonate from granite, says BBC News.
That seems a very comprehensive answer from a computer!
This Google Map shows the area of Cornwall between St. Dennis and St. Austell.
Note.
- St. Austell is in the South-East corner of the map.
- St. Dennis is in the North-West corner of the map.
- Trelavour appears to be just South of St. Dennis.
- In the middle of the map, are the china clay workings.
Although rail is mentioned, it looks like new tracks will have to be laid.
The Modern Railways article says this about using rail.
Should these plans come to fruition, it seems likely rail will play a part in the supply chain. It is not much of an exaggeration to suggest that Cornwall’s lithium deposits offer a generational opportunity for the Duchy, and by extension, for rail freight.
But, if I’m right about the daily amount being around 72 tonnes, then not many trains will be needed.
I have a few further thoughts.
How Much Will The Lithium Be Worth?
I asked Google AI, what is a tonne of lithium metal worth and got this answer.
A tonne of battery-grade lithium metal is worth approximately $77,962 to $80,398 USD, with an average of about $79,180 USD. The price fluctuates significantly based on market conditions, and the value can differ for industrial-grade lithium metal or other lithium compounds like carbonate or hydroxide.
Assuming a price of $80,000, then a day’s production is worth $5,760,000 and a year’s production is worth about $2 billion.
This could be a massive Magic Money Mine for Rachel from Accounts.
Will The Royal Albert Bridge Cope With The Extra Trains?
The Modern Railways article says this.
While there is excitement about the potential from Cornwall’s new and revived minerals industries, there are caveats. One is the train weight limit on the Royal Albert Bridge, Saltash.
Note.
- A five-car Class 802 train weighs 243 tonnes and I’ve seen pairs in Cornwall.
- Other trains may be heavier, but if the lithium refining is done in Cornwall, the lithium trains won’t be too heavy.
As lithium is the lightest metal, is it sensible to perform the processing and refining in Cornwall and leave the unwanted rocks in the Duchy?
Unlocking Efficiency With Cryogenic Cooling Of GaN Traction Inverters
The title of this post, is the same as this insight on the Ricardo web site.
This is the introduction.
As the mobility sector accelerates toward zero-carbon propulsion, hydrogen fuel cell systems (HFCS) are emerging as a cornerstone technology for aviation, marine, and long-haul road transport. Among the most promising innovations in this space is the use of liquid hydrogen (LH₂) not only as a fuel source but also as a cryogenic coolant for electric powertrains. This dual-purpose approach offers transformative potential in system efficiency, packaging, and weight reduction—especially when paired with Gallium Nitride (GaN) semiconductors.
It is a very simple concept, but it appears to give worthwhile efficiency gains.
This was the article’s conclusion.
Ricardo’s cryogenic GaN inverter concept represents a bold leap toward ultra-efficient, lightweight, and integrated hydrogen propulsion systems. While challenges remain in materials, packaging, and reliability, the experimental results are compelling. With efficiencies nearing 99.8% and mass reductions over 50%, cryogenic cooling could redefine the future of electric mobility.
As the hydrogen economy matures, innovations like this will be pivotal in delivering clean, scalable, and high-performance solutions across all mobility sectors.
I very much suggest, that you take the time to read the whole insight.
Using The Concept In a Liquid Hydrogen Carrier
This Wikipedia entry describes the design and operation of an ocean-going liquid hydrogen carrier.
This is a paragraph.
Similar to an LNG carrier the boil off gas can be used for propulsion of the ship.
Ricardo’s concept would appear to be advantageous in the design of liquid hydrogen carriers and I would expect, it could also be applied to the design of LNG carriers.
I would not be surprised to see liquid hydrogen and LNG carriers were the first application of Ricardo’s concept.
This Wikipedia entry describes the Suiso Frontier, which is the world’s only liquid hydrogen carrier.
I believe that Ricardo’s concept could lead to the construction of a more of these ships. Will they mean that liquid hydrogen carriers will deliver hydrogen from sunny climes to places like Europe, Japan, Korea and Canada.
The concept would also enable efficient small liquid hydrogen carriers, that could deliver hydrogen on routes like the North of Scotland to Germany.
Using The Concept In A Railway Locomotive
I could see freight locomotives being designed as a large liquid hydrogen tank with appropriately-sized fuel cells and added electrical gubbins.
- They would be self-powered and would not require any electrification.
- They would be much quieter than current diesels.
- They could pull the heaviest freight trains, between Europe and Asia.
- They could even pull passenger trains, if an electrical hotel supply were to be arranged.
- They could be designed with very long ranges.
But above all they would be zero-carbon.
Note that I’ve written about long freight routes before.
- China, Russia And The EU’s Intermarium Bloc
- How To Move 100,000 Containers A Year Between Germany And China
- Georgia, Azerbaijan and Iran Discuss New Freight Corridor To link India And Europe
- Finland And Norway To Explore Building Arctic Rail Link
- A New Gateway To China: Europe Prepares For The Launch Of Baku–Tbilisi–Kars Railway
I believe that a long-distance liquid-hydrogen locomotive, that was based on the Ricardo concept, would be ideal for some of these routes.
A Specialised Hydrogen Delivery Train
In April 2022, I wrote The TruckTrain, where this is a simple description of the concept.
The Basic Design Concept
The leaflet on their web site describes the concept.
This visualisation at the bottom of the leaflet shows four TruckTrains forming a train carrying twelve intermodal containers, each of which I suspect are 20 feet long.
I believe that the TruckTrain concept could be converted into a hydrogen delivery train.
- It would be an appropriate length.
- It would be powered by the on-board hydrogen.
- The hydrogen would be stored as liquid hydrogen.
It would be able to go most places on the UK rail network.
Conclusion
Ricardo’s concept could revolutionise the use of hydrogen.
Yarmouth Harbour To Be ‘Completed’ In £60m Project
The title of this post, is the same as that of this article on the BBC.
This is the sub-heading.
A major port is set to expand to prepare for construction work linked to several national infrastructure projects.
These first two paragraphs, which give more details.
Peel Ports said it would invest between £50m and £60m in Great Yarmouth’s Outer Harbour by developing the southern terminal, creating a roll-on roll-off (RORO) lift ramp and a large storage area.
Port director Richard Goffin said the construction work, which is set to begin in 2026, would “complete” the port as laid out in a business case in the early 2000s.
This image from Peel Ports Group shows how the Port of Great Yarmouth will look after the the proposed development.
And this Google Map shows the port as it is today.
Note.
- The large triple shed, with the cross-wise middle section can be picked out in both the image and the map.
- The label by the shed says Origin Fertilisers, so I suspect the three objects on the quayside, which are visible in both the image and the map could be conveyors for loading and unloading ships with fertiliser.
- The two breakwaters are visible in both the image and the map.
It looks like the development would mainly involve filling in the Southern part of the current harbour.
With only a quick look and scant details, it looks to me, that it is a development that could be easily realised.
I have some thoughts.
Rail Access To The Port
There is no rail access to the port and I couldn’t see how it could be provided, without demolishing half of the town.
But there are carriage sidings at Great Yarmouth station, which are described in this Wikipedia entry like this.
New sidings were provided at the western end of the station to cope with the additional services operating into the station, following the closure of the M&GN system. It is a crescent-shaped site between the A47 road and Wherryman’s Way at the northernmost point of the River Yare, about 1⁄4 mi (400 m) north-west of the station. It had fallen out of use in the 1980s when Norwich Crown Point depot was built.
In 2010, the unused sidings were purchased by Great Yarmouth Borough Council; they were intended for use as a freight terminal, despite the lack of rail connection to the town’s port. It was hoped that 10,000 tonnes of sugar cane per week would be carried from Yarmouth to Cantley. The need to use a lorry shuttle between the docks and the rail yard, along with a £3.2 million quote for replacing the sidings at Cantley, saw the plan dropped.[19]
In May 2020, Eastern Rail Services commenced a lease with Norfolk County Council and Network Rail for Yarmouth Vauxhall sidings. Managing director James Steward said the siding “matched ERS’s requirement for an East Anglian site to base its rolling stock.” Following extensive de-vegetation works, Direct Rail Services 37402 became the first locomotive in 19 years to run into the sidings on 26 May 2020, followed the next day by it delivering five former Greater Anglia Mark 3 coaches for storage. On 6 July 2020, ERS was authorised a licence exemption permitting them to operate trains within the site
The Port of Great Yarmouth appears to be keen to do its part in the construction of Sizewell C. Could components for the power station, be brought into the port through the new roll-on/roll-off berth and then transferred to rail in the former carriage sidings?
This 3D Google Map shows the carriage sidings.
Most of the rolling stock appears to be retired Mark 2 and M3 coaches.
Road Access To The Port
This Google Map shows Great Yarmouth and the Port and roads in the area.
Note.
- The red arrow indicates Great Yarmouth station.
- The Port of Great Yarmouth is in the South-East corner of the map.
- The A 47 runs down the West side of the town.
- The River Yare runs from the railway station to the sea, just below the port.
There is a road on the East bank of the River Yare, that connects to the A 47 and could easily connect to a rail cargo terminal to the North-West of the station in the derelict carriage sidings.
I can certainly see Nimbies not liking the new roll-on/roll-off ferry creating traffic in the town.
The Construction Of Sizewell C
Sizewell C is very similar to Hinckley Point C and this extract from the Wikipedia entry for Hinckley Point C describes some of that power station’s construction.
In March 2017, EDF, after the Office for Nuclear Regulation (ONR) gave approval to start building, the building of the first parts of the plant proper began with a network of tunnels to carry cabling and piping. Work was also under way on a jetty to land building materials, a seawall, and accommodation blocks.
In January 2018, EDF said that they were on track to start generating electricity by 2025 and that they planned to start constructing above-ground structures for the power station by June 2019.
The approximate 2,000 cubic metres (71,000 cu ft) concrete pour for the first reactor started on 11 December 2018. It was completed over a 30-hour period, creating the first part of the unit one 4,500 tonne base, a platform 3.2 metres (10 ft 6 in) thick. The reactor building will be built on the (to be completed) platform. This construction start marks the first new reactor build in the UK after a 30-year break, and the second PWR in the UK, after Sizewell B.
Completion of the base for the first reactor, the final 8,954 cubic metres (316,200 cu ft) of concrete, was achieved in June 2019. Completion of the base for the second reactor, 8,991 cubic metres (317,500 cu ft) of concrete, was achieved in June 2020.
Construction utilises the world’s largest crane, the Sarens SGC-250 double ring crane, which is responsible for lifting Hinkley Point C’s heaviest components. More than 600 heavy fabrications, including the five major parts of each unit’s steel containment liner and dome, are positioned by the SGC-250. The crane, named Big Carl, was delivered in modular form, consisting of over 400 deliveries.
In February 2023, the first nuclear reactor pressure vessel was delivered to site via the Bristol Channel Hinkley-dedicated wharf at Combwich. The pressure vessel was built in France in 2022 by Framatome.
In May 2024, the first of the 520 tonne steam generators was delivered to site in the same manner as the reactor pressure vessel.
Note.
- A good proportion of the power station and the materials to build it were brought in by sea.
- The size of everything is huge.
- Big Carl seems to make appearances in all big projects.
- According to the BBC, Peel Ports are spending £60million on a new roll-on/roll-off terminal, 350 metres of quay and ten hectares of high quality storage space.
I wouldn’t be surprised, if they have the contract for Sizewell C’s logistics, that Peel Ports will be laughing all the way to the bank.
If nothing else, after Sizewell C is completed, they will have a high-class port facility at the end of the A 47 from Birmingham, Leicester, Peterborough and Norwich, which could open up possible ferry routes to Europe.
Between Great Yarmouth And Sizewell
If the components come in to Great Yarmouth on trailers on the RORO ferries from France, they could be taken to Sizewell on the A 12 road.
Smaller components may be taken by road, but I wouldn’t rule out a transfer to rail in the carriage sidings at Great Yarmough, as I indicated earlier.
Inside A Class 99 – The UK’s Most Powerful Locomotive
The title of this post, is the same as the title of this YouTube video.
This locomotive and its siblings, which can run on both electrification and diesel is the future of rail freight in the UK and GB Railfreight have ordered thirty of them.
Hopefully, by the end of the year, I’ll see one of these locomotives running along the North London Line, through Highbury & Islington and Dalston Kingsland stations.
At the present time, there are 480 Class 66 diesel freight locomotives in the UK. A substantial amount of carbon emissions would be saved, if as many as possible of Class 66 locomotives as possible were replaced by Class 99 locomotives.
These Class 99 locomotives will literally turn the rail freight business upside down.
Can These Locomotives Be Converted from Diesel To Hydrogen Power?
Stadler or Cummins have not said, but Cummins are decarbonising the company.
Already, large American trucks fitted with the latest Cummins engines can be converted to hydrogen. I write about this in Cummins Debuts Integrated HELM Drivetrain At IAA.
Cummins are also supplying Wrightbus with engines for the next generation of low-emission bus, as I wrote about in Wrightbus StreetDeck Ultroliner Next-Gen To Get Cummins Power.
Did Stadler fit a Cummins diesel engine in a Class 99 locomotive, as they know that every Class 99 locomotive or similar locomotives for other markets can be converted to hydrogen?
It is strange but very heartening, that when we have an American President, who thinks that climate change is fake news, one of the United States, largest and most iconic companies is leading the charge to decarbonisation.
Footage Released Of East West Rail’s First Commercial Freight Train
The title of this post, is the same as that of this news item from Network Rail.
These four paragraphs give detail to the story.
The inaugural journey was part of a dual first, as it also saw the entry into service of Maritime Transport’s Northampton Gateway Terminal.
This Easter Network Rail completed its work there to join the 35-acre freight facility directly to the West Coast Main Line via the Northampton Loop.
The modern junction design allows freight trains to enter and exit the site at speeds of up to 40mph, which is eight times faster than conventional freight connections.
Clearing the railway junction much faster will significantly improve both passenger and freight journeys – as it reduces the impact on other services running on the main line.
This OpenRailwayMap shows the location of Maritime Transport’s Northampton Gateway Terminal.
Note.
- The red track running diagonally across the bottom half of the map is the West Coast Main Line.
- The orange track running North-South is the Northampton Loop of the West Coast Main Line.
- The blue arrow indicates Northampton station.
- The grey line running diagonally across the map, vaguely parallel to the West Coast Main Line is the M1 Motorway.
- The SEGRO Logistics Park Northampton Gateway is indicated between the Northampton Loop and the M1 Motorway.
This Google Map shows the layout of the logistics park to a larger scale.
Note.
- The Northampton Loop of the West Coast Main Line running North-South across the map.
- The M1 Motorway running between the North-West and South-East corners of the map.
- Junction 15 is the M1 junction in the South-East corner of the map which connects the logistics park and the A45 to the M1.
- Junction 15A is the M1 junction in the North-West corner of the map which connects the A43 and Northampton services to the M1.
- There is probably space to add more warehouses and other facilities.
The logistics park is well connected to both rail and road.
This second Google Map shows the rail connection to the logistics park in more detail.
From this map, it appears that Network Rail have met their objective outlined in this paragraph of the news item.
The modern junction design allows freight trains to enter and exit the site at speeds of up to 40mph, which is eight times faster than conventional freight connections.
As only freight trains and slower passenger trains use the Northampton Loop, I would expect that freight trains should be able to enter and leave the logistics park with the minimum of disruption to traffic on the Northampton Loop.
The Route Of Yesterday’s Train
These three paragraphs from the Network Rail news item describe the route.
The first commercial freight train has travelled along the East West Rail line as part of its journey into a new strategic rail freight interchange in Northampton.
Shortly after 13:00 yesterday (Monday 16 June) the service* from Didcot came onto the new infrastructure at Oxford, travelling the 35 miles to Milton Keynes to connect with the West Coast Main Line.
It marked the first time East West Rail infrastructure has been used for commercial freight, after many months of signaller training and train driver learning since the £1.2bn railway was completed in October 2024.
This OpenRailwayMap shows the route from Didcot to Milton Keynes.
Note.
Didcot Parkway station is in the South-West corner of the map.
Milton Keynes Central is in the North-East corner of the map and marked with a blue error.
The route is via Oxford, Oxford Parkway, Bicester Village, Winslow and Bletchley.
This video shows the train passing Winslow.
Arriving In Liverpool Lime Street Station – 10th May 2025
Liverpool Lime Street station has one of the more spectacular approaches of British railway stations, as these pictures show.
These sections describe the approach.
Crossing The Mersey
You cross the Mersey at Runcorn on the Ethelfreda or Britannia Bridge, which is described in this Wikipedia entry.
It was completed in 1868 and hopefully in a few years, it will be carrying High Speed Two trains between London and Liverpool.
On your right as you cross the Mersey to Liverpool is the Silver Jubilee road bridge, which is a through arch bridge that opened in 1961 to replace a historic transporter bridge. I am just a little bit too young to have seen the transporter bridge.
Further to your right, you can see the Mersey Gateway Bridge, which is a cable-stayed bridge, that opened in 2017 and is described in this Wikipedia entry.
Drax’s Biomass
As you approach Lime Street station, you pass through Edge Hill, where there are the GB Railfreight sidings, where the biomass trains for Drax power station are marshalled for their journey across the Pennines. These Drax trains seem to be one of the few freight trains in the UK, that carry advertising. Tesco trains also do, but their’s is just big letters.
In Do Cummins And Stadler Have a Cunning Plan?, I talked about the possible conversion at some date in the future of GB Railfreight’s new electro-diesel Class 99 locomotives to electro-hydrogen locomotives. These locomotives will surely be ideal for hauling Drax’s biomass trains across the Pennines.
I do believe that these Class 99 locomotives are the future of heavy freight trains in the UK. In Iarnród Éireann Looks At Diesel Loco Replacement Options, I write about speculation, that Stadler may build a version for the Irish.
Through The Edge Hill Cutting
From Edge Hill a deep cutting through the sandstone takes you into Lime Street station.
It looked good in the sun, but the first time I arrived in the city to start my studies at Liverpool University, it was chucking it down and the cutting was very dark and wet.
It was a very different welcome to that, which I got yesterday.
My Train Arrived In Platform 10
Liverpool Lime Street has two cast iron train sheds.
- The Western shed has platform 1 to 5 and generally handles trains from the East.
- The Eastern shed has platform 6 to 10 and generally handles trains from the South.
Note.
- Changing between trains is just a step-free walk across the station concourse.
- Both sections have their own taxi rank and full-size clock.
- The Ticket Office is in the Western train shed.
I just walked from my train to the Ticket Office, bought a Lancashire Day Ranger ticket and then walked fifty metres to my next train.
How many stations have such an easy change of trains?
Is Liverpool Lime Street Station Ready For High Speed Two?
Consider.
- I travelled North in an 11-car Class 390 train, which is 265.3 metres long and can carry 607 passengers.
- As the last pictures show, the train fitted easily into platform 10.
- High Speed Two plans to send 200 metre classic-compatible trains to Liverpool Lime Street, with each having a capacity of up to 528.
It looks to me, that these High Speed Two classic-compatible trains will fit into Liverpool Lime Street station, at any platform that currently accepts an eleven-car Class 390 train.
Looking on Real Time trains over the last few days, I’ve found eleven-car Class 390 trains using platforms 9, 10 and 6.
It seems that Network Rail’s engineers have done a superb job to turn the Grade II Listed station, into one of the best operationally.
Silvertown Tunnel Increases Network Resilience But It Comes At A Cost, Says Logistics UK
The title of this post, is the same as that of this article on UK Haulier.
This paragraph summarises the view of Chris Yarsley of Logistics UK.
Following the opening of the Silvertown tunnel in London, Logistics UK Senior Policy Manager – Road Freight Regulation Chris Yarsley says it will increase network resilience and make journey times more predictable, but feels the high toll charges penalise essential delivery vehicles who have no alternative means of servicing the capital.
Click this link to see all my Silvertown Tunnel posts.
Note.
- I have been through the Silvertown Tunnel a number of times now and I have only seen one large truck and a couple of vans in the tunnel.
- I have also seen no congestion at any of the entrances to the tunnels.
It certainly seems to have been well-designed.
How Many Cars Can You Get In A Station?
This morning, I took this sequence of pictures in Denmark Hill station.
Note.
- The train had started at Toton
- The train was going to Dollands Moor in Kent.
- The train would then be transhipped through the Channel Tunnel.
- It will be a distance of 207.4 miles in the UK. Will that be classed as delivery mileage only?
I did think about calling this set of pictures – Japanese-designed cars, built in Derby, going between Toton and Europe, via Denmark Hill.
The Anonymous Widower 