Brand New Battery Technology To Be Trialled On TransPennine Train
The title of this post, is the same as that of this press release from Hitachi.
These three bullet points, act as sub-headings.
- First-ever trial in the UK to replace a diesel engine with a battery on an intercity train is underway.
- Pioneering collaboration between Angel Trains, TransPennine Express, Turntide Technologies and Hitachi Rail.
- Hitachi Rail has built a battery using the North East supply chain, with one battery unit predicted to reduce emissions and fuel costs by as much as 30%.
These are my thoughts on some of the paragraphs in the press release.
The First Paragraph
This is the first paragraph.
Testing of the UK’s first intercity battery train commenced earlier today. The battery, which generates a peak power of more than 700kw, has now been successfully retrofitted onto a TransPennine Express ‘Nova 1’ train (five-carriage intercity Class 802), ahead of the trial on Transpennine routes this summer.
Each of the three diesel power packs in on of TransPennine Express’s Class 802 trains can generate 700 kW, so the battery packs can provide the same power as the current Rolls-Royce mtu diesel power packs.
The Third Paragraph
This is the third paragraph.
The single battery unit is incredibly powerful, storing enough electricity to power more than 75 houses for a day. This impressive energy and power density will deliver the same levels of high-speed acceleration and performance, while being no heavier than the diesel engine it replaces.
This equity of high-speed acceleration and performance is to be expected, as the train power and weight is the same, if the power is diesel engines or batteries.
The Fourth Paragraph
This is the fourth paragraph.
The installation of a battery will reduce emissions and improve energy efficiency. It is predicted to reduce emissions and fuel costs by as much as 30% on a Hitachi intercity train.
I would assume that this improvement in emissions and fuel costs, is due to the use of regenerative braking to recharge the batteries, when the train slows down.
The Fifth Paragraph
This is the fifth paragraph.
Most importantly for passengers, the trial will test how intercity trains can enter, alight and leave non-electrified stations in zero-emission battery mode to improve air quality and reduce noise pollution.
As the trains enter a non-electrified station, the regenerative braking will recharge the batteries to both power the train in the station and accelerate the train on its way.
The Seventh Paragraph
This is the seventh paragraph.
The trial will provide real-world evidence to inform the business case for a 100% -battery-electric intercity train, capable of running up to 100km in battery mode. This remarkable range means this battery technology could be deployed to cover the final non-electrified sections of intercity routes in the coming years. It will also demonstrate how battery technology can reduce infrastructure costs by reducing the need for overhead wires in tunnel sections and over complex junctions.
Note that 100 kilometres is 62.1 miles.
You can never do too much real world testing!
These are my further thoughts.
Acceleration And Braking Under Battery Power
This graph from Eversholt Rail, shows the acceleration and deceleration of a five-car Class 802 electric train.
As Hitachi have said in the press release that.
- The weight of a battery pack is the same as a diesel engine.
- The power of a battery pack is the same as a diesel engine.
The acceleration and braking curve for a Class 802 train, with a single traction battery will surely be the same.
Would this mean, that if a battery-electric train replaced a diesel-electric train, the timetable would be the same?
What would be the effects, if a second diesel engine were to be replaced with a battery pack?
- The train would still weigh the same.
- The train’s performance would still be the same.
- The train would have 1400 kW of power available, but I doubt this could be used efficiently, as it might exceed the train’s performance limits.
- The train would have enough electricity for a 200 kilometre or 124.3 mile range.
There might be a need for a sophisticated control system to set the power mode, but in my experience of riding in the cab of an InterCity 125 and a Boeing 747, drivers or pilots have enough intelligence and fingers to control systems with multiple engines.
What would be the effects, if a third diesel engine were to be replaced with a battery pack?
- The train would still weigh the same.
- The train’s performance would still be the same.
- The train would have enough electricity for a 300 kilometre or 186.4 mile range.
The range is sufficient for a lot of routes.
London And Beverley
Consider.
- This route has 44.3 miles of unelectrified track between Temple Hirst Junction and Beverley.
- One battery range is 100 kilometres or 62.1 miles.
- As the trains have three slots for battery packs or diesel engines, they could always carry a diesel engine for emergencies.
The route could be run in one of two ways.
- By using one battery, that would be charged at Beverley.
- By two batteries, that would be charged on the main line to the South of Temple Hirst Junction. One battery would be used in each direction.
Note.
- The second method would not require any new infrastructure at Beverley or Hull.
- All batteries would be identical 100 km batteries.
- Trains would just swap an appropriate number of diesel engines for batteries.
The service could run as soon as the trains had the power transplants.
Using The Lincoln Diversion
In Extra Luggage Racks For Lumo, I also talked about Lumo taking the diversion via Lincoln.
Consider.
- This route is 88.5 miles of unelectrified track.
- It would be possible to be handled by a Class 802 train with two battery packs.
- Hull Trains will need battery packs to get to Beverley.
- Some LNER services will use battery packs.
Perhaps trains will use one battery to Lincoln and one from.
Crewe And Holyhead
In October 2023, the government said, that the North Wales Coast Line would be electrified.
Consider.
- Crewe and Holyhead are 105.5 miles apart.
- The route currently has no electrification.
- It has been planned to electrify the 21.1 miles between Crewe and Chester for some time.
- A lot of the route West of Chester may arouse the wrath of the Nimbies and be politically difficult to electrify, as castles and electrification don’t mix.
- Llandudno Junction station might be a station, where trains could be charged.
- Shotton and Chester stations need rebuilding.
- The line is not short of electric power, because of Electric Mountain and the windfarms along the coast.
- The route will soon be served by Hitachi Class 805 trains.
I believe the North Wales Coast Line could be one of those routes, which Hitachi’s partial electrification might be ideal.
I also believe that, it could be an extension of High Speed Two from Crewe, which provided a zero-carbon route between London and Ireland.
Conclusion
I can see if the tests perform as expected, that there will be some battery express trains running soon.
Contracts Signed For Eastern Green Link 2 Cable And Converter Stations
The title of this post, is the same as that of this press release from National Grid.
These four bullet points, act as sub-headings.
- Eastern Green Link 2 (EGL2) is a 525kV, 2GW high voltage direct current (HVDC) subsea transmission cable from Peterhead in Scotland to Drax in England delivered as a joint venture by National Grid and SSEN Transmission
- The joint venture has signed a contract with the Prysmian Group to supply around 1,000km of cable for the project and a contract with Hitachi Energy and BAM for the supply of converter stations at either end of the subsea cable
- Contract signing is a significant milestone for the project as it progresses towards the delivery phase
- EGL2 will be the longest HVDC cable in the UK and the UK’s single largest electricity transmission project ever, providing enough electricity to power two million UK homes
This paragraph outlines the project.
EGL2, a joint venture between SSEN Transmission and National Grid Electricity Transmission (NGET), has reached another milestone in the development of a new subsea electricity superhighway after sealing contracts this week with specialist HVDC cable supplier, Prysmian, and with Hitachi Energy and BAM for the supply of converter stations at either end of the project.
These four paragraphs add more detail.
EGL2 will see the creation of a 525kV, 2GW HVDC subsea transmission cable from Peterhead in Scotland to Drax in England. The longest HVDC cable in the UK and the UK’s single largest electricity transmission project ever, it will provide enough electricity to power two million UK homes.
Prysmian has confirmed it has the capability to deliver the project with its manufacturing facilities for the production of the HVDC cable and its cable laying vessels for the installation in the timescale required for EGL2 to meet its targeted energisation date in 2029, supporting the timely delivery of this project and mitigating risks associated with global constraints in the HVDC supply chain.
Hitachi Energy is partnering with BAM to provide the engineering works and technology for the HVDC converter stations which form the terminals for the HVDC cable and convert direct current to the alternating current used in the onshore transmission network. This latest milestone is another significant step as the project moves towards delivery and, following final approval from Ofgem, work is expected to commence later this year, with a targeted operational date of 2029.
The subsea HVDC cable system is approximately 436km in length with new converter stations at either end to connect it into the existing transmission network infrastructure. HVDC technology provides the most efficient and reliable means of transmitting large amounts of power over long distances subsea.
Note.
- EGL2 can handle 2 GW.
- There is a targeted operational date of 2029.
- Eastern Green Link 2 now has its own web site.
- Most of these links now seem to be HVDC.
A map in the press release, shows the undersea route may be shorter.
It also appears to me, that moving electricity around the UK under the sea, is possibly the most environmentally-friendly and least intrusive way to do it.
We already have four HVDC interconnectors.
There will be many more,
Battery Traction Trial Ahead As TransPennine Express Fortunes Improve
The title of this post, is the same as that of this article on Railway Gazette International.
This is the sub-heading.
Overcrowding and short-notice cancellations at state-owned TransPennine Express have declined since the December timetable change, prompting Managing Director Chris Jackson to suggest the operator is in a ‘better place’.
It is a must-read article and the section called Battery Power Trial, says this.
Meanwhile, the Class 802 trainset which was damaged in a shunting accident in March 2022 remains out of traffic. Although No 802 207 has now been repaired, it will not be returning to service yet, as it is receiving modifications for use as a battery testbed.
This will see a 6 m long, 2·2 m wide battery module installed in place of one of the existing engines, which will improve fuel efficiency by using two diesel powerpacks rather than three.
The battery module will provide top-up power for peak demand and give regenerative braking capability when operating in diesel mode, which the trains currently do not have. Arrival and departure at stations is also to be trialled in battery mode to assess noise and air-quality improvements. The train is planned to re-enter traffic in December.
‘We’re supplying that unit to support what we think is a sensible industry scheme to look at whether we can do something to move from bi-mode to tri-mode, which could be beneficial for the industry from a green perspective’, Jackson confirms.
That looks to be a good plan, but I can’t help feeling that battery power for the Class 802 trains has been a long time coming.
This press release from Hitachi is entitled Hitachi And Eversholt Rail To Develop GWR Intercity Battery Hybrid Train – Offering Fuel Savings Of More Than 20%, which announced the project was published on the 15th December 2020.
It will be four years from when Hitachi and Eversholt Rail said go, before the prototype is running.
Is this why LNER bought their new trains from CAF?
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.
My First Ride In A Class 397 Train – 15th November 2023
I took these pictures during my first ride in a Class 397 train, between Wigan North Western and Liverpool Lime Street stations.
Note.
- Reading the plates, the total weight of the train is 188.4 tonnes.
- There are 268 seats.
- The ride wasn’t bad at all.
- Seats were comfortable.
Build quality was about the same as a Hitachi train.
The Data Sheet For Hitachi Battery Electric Trains
Was I just slow to spot this data sheet or has it only just been released?
You can download a copy from this page on the Hitachi web site.
In a section on the page, which is entitled Intercity Battery Trains, this is said.
A quick and easy application of battery technology is to install it on existing or future Hitachi intercity trains. Adding just one battery reduces emissions by more than 20% and offers cost savings of 20-30%.
Our intercity battery powered trains can cover 70km on non-electrified routes, operating at intercity speeds at the same or increased performance. Hitachi Rail’s modular design means this can be done without the need to re-engineer or rebuild the train and return them to service as quickly as possible for passengers.
These are my initial thoughts.
Plug-and-Play
It looks like the train is plug-and-play.
A diesel engine will be swapped for a battery-pack and the train’s computer controls the power sources accordingly.
Hitachi’s Battery Philosophy Explained
This is said on the data sheet.
Battery technology has the potential to play a significant role in the future of sustainable rail mobility, setting
the rail industry on the path to full intercity decarbonisation by 2050.
Installing batteries on intercity trains can complement electrification and provide a low emission alternative
to domestic air travel.Our retrofit solution for intercity trains offers phased replacement of diesel engines at the time that they would
have been due for their regular heavy maintenance overhaul, replacing each engine in turn until trains are fully battery electric. The solution delivers fuel cost savings and lowers CO2 emissions by at least 20% for every engine replaced, and a 20% reduction in whole life maintenance costs – well within the battery’s life span of 8-10 years.
Performance On Battery Power
The data sheet gives these bullet points.
- 750kW peak power
- Weight neutral.
- At least 20% lower CO2 emissions
- 70km on non-electrified routes
- 20% reduction in whole life maintenance costs
- Up to 30% fuel cost savings
- Zero emissions in and out of stations
- Charge on the move
- 10 year life span
Note.
- 750 kW peak power, is around the power of the diesel-engine, that will be replaced.
- I wouldn’t be surprised that powerwise, the battery pack looks like a diesel engine.
- Weight neutral means that acceleration, performance and handling will be unchanged.
- Batteries are easier to maintain than diesels.
- It is stated that a train can be fully-decarbonised.
I have a feeling these trains are no ordinary battery-electric trains.
Seventy Kilometre Range On Battery
Seventy kilometres is 43.5 miles.
This may not seem much, but the data sheet says this.
Our battery hybrid trains can cover 70km on non-electrified routes, operating at intercity speeds at the same
or increased performance. By identifying the routes with short non-electrified sections of 70km or less, we could
see the replacement of existing diesel trains with fully battery-operated trains on those routes within a year.
And, using battery power to avoid electrifying the hardest and most expensive areas, such as tunnels and bridges,
enables flexibility on electrification, minimising passenger disruption during upgrades.
Note.
- It looks like the trains can operate at 125 mph on battery power, where the track allows it. But then the rolling restistance of steel wheel on steel rail, is much lower, than that of rubber tyres on tarmac.
- Hitachi seem to have developed a philosophy on how the trains will be used.
- Hitachi’s pantographs, go up and down with all the alacrity of a whore’s drawers. They will be ideal for a short length of electrification.
I think these LNER routes could be immediately decarbonised.
- LNER – London and Harrogate , where only 18.3 miles is unelectrified. Trains may not need charging, as a full battery could handle both ways.
- LNER – London and Hull, where 36.1 miles is unelectrified. A short length of electrification to charge trains would be needed at Hull.
- LNER – London and Lincoln, where only 16.7 miles is unelectrified. Trains would not need charging, as a full battery could handle both ways.
- LNER – London and Middlesbrough, where only 20.3 miles is unelectrified. Trains would not need charging, as a full battery could handle both ways.
Note.
- It looks like some services could start fairly soon, once batteries are available.
- Hull Trains could use the 70 km batteries and charging at Hull, as it passed through. This would decarbonise Hull Trains passenger operations.
- Services to Aberdeen, Cleethorpes and Inverness would be out of range of the initial Hitachi trains.
Could the last point, partially explain the purchase of the CAF tri-mode trains, which I wrote about in First Tri-Mode Long Distance Trains For The East Coast Main Line?
We shall see what we shall see.
But having a choice of battery-electric or tri-mode trains will enable route development and decarbonisation.
What Is The Size Of The Battery Pack?
In How Much Power Is Needed To Run A Train At 125 Or 100 mph?, I estimated that to maintain 125 mph, a Class 801 train has a usage figure of 3.42 kWh per vehicle mile.
If a five-car Class 800 can run 70 km or 43.5 miles at 125 mph, as indicated by Hitachi, then the battery size can be calculated.
3.42 * 5 * 43.5 = 743.85 kWh
As the battery pack can supply 750 kW according to the data sheet, this looks like this will run the train for an hour.
Is that coincidence or a design criteria?
What Battery Capacity Would Be Needed For A Hundred Miles?
For a five-car train, this is the energy needed for a hundred miles.
3.42 *5 * 100 = 1710 kWh or three batteries.
For a nine-car train, this is the energy needed for a hundred miles.
3.42 *9 * 100 = 3078 kWh or five batteries.
It looks like all diesel engines will be replaced by batteries.
Will Class 801 Trains Swap Their Single Diesel Engine For a Battery Power Pack?
Consider.
- Class 801 trains have a single diesel engine for emergency power.
- Lumo’s Class 803 trains, are all-electric with a battery-pack for emergency hotel power only.
- Hitachi must have full details on the performance of Lumo’s trains.
- The East Coast Main Line is notorious for the wires to come tumbling down.
- The diesel engine and the battery pack appear to weigh the same.
- Batteries cost less to maintain than diesels.
I can’t see why the single diesel engine can’t be replaced by a standard battery pack, without loosing any functionality.
What Would Be The Range Of A Fully Battery-Electric Train?
This is a paragraph from a data sheet.
Our retrofit solution for intercity trains offers phased replacement of diesel engines at the time that they would
have been due for their regular heavy maintenance overhaul, replacing each engine in turn until trains are fully battery electric. The solution delivers fuel cost savings and lowers CO2 emissions by at least 20% for every engine replaced, and a 20% reduction in whole life maintenance costs – well within the battery’s life span of 8-10 years.
Note.
- It looks like Hitachi are expecting operators to replace engines in turn.
- Replacing engines with batteries saves the operators money.
As a five-car Class 800 train has three diesel engines and a nine-car train has five engines, does this mean that the range of fully-batteried Class 800 train is 70 km or 210 km?
- A fully-batteried Class 800 train will weigh the same as the current diesel.
- One battery can drive the train for 70 km at 125 mph according to Hitachi.
- There are no branches of electrified lines that are 125 mph lines without electrification.
- I would assume that the train can use regenerative braking to recharge the batteries.
- 210 kilometres is 130 miles.
I don’t know much about the electrical systems of Hitachi’s trains, but it is likely that there will be an electrical bus to distribute power from one end of the train to the other.
So a five-car Class 800 train with three fully-charged battery packs could have over 2 MWh of electricity on board, that could be used for traction.
- Applying the usage figure of 3.42 kWh per vehicle mile, gives a range for the five-car train of at least 117 miles.
- The equivalent figure for a nine-car train will be at least 121 miles.
These distances would open up routes like these on the East Coast Main Line.
- LNER – London King’s Cross and Aberdeen – 91.4 miles – Charge before return.
- LNER/Hull Trains – London King’s Cross and Beverley via Temple Hirst junction – 44.3 miles – No Charging needed before return.
- Grand Central – London King’s Cross and Bradford Interchange via Shaftholme junction – 47.8 miles – No Charging needed before return.
- LNER – London King’s Cross and Cleethorpes via Newark and Lincoln – 63.9 miles – Charge before return.
- LNER – London King’s Cross and Harrogate via Leeds – 18.3 miles – No Charging needed before return.
- LNER – London King’s Cross and Inverness– 146.2 miles – Charge before return.
- LNER/Hull Trains – London King’s Cross and Hull via Temple Hirst junction – 36.1 miles – No Charging needed before return.
- LNER – London King’s Cross and Middlesbrough via Northallerton – 20.3 miles – No Charging needed before return.
- LNER – London King’s Cross and Scarborough via York – 42.1 miles – No Charging needed before return.
- LNER/Grand Central – London King’s Cross and Sunderland via Northallerton – 47.4 miles – No Charging needed before return.
Note.
- The miles are the longest continuous distance without electrification.
- Only Aberdeen, Cleethorpes and Inverness would need to charge trains before return.
- Inverness may be too far. But is it in range of LNER’s new CAF tri-mode trains?
The battery range would also allow LNER to use the Lincoln diversion on the Joint Line.
Why Didn’t LNER Buy More Azumas?
This puzzles me and I suspect it puzzles other people too.
Surely, an all Azuma fleet will be easier to manage.
But in this article on Modern Railways, which is entitled LNER Orders CAF Tri-mode Sets, this is said.
Modern Railways understands the new fleet will be maintained at Neville Hill depot in Leeds and, like the ‘225’ sets, will be used predominantly on services between London and Yorkshire, although unlike the ‘225s’ the tri-modes, with their self-power capability, will be able to serve destinations away from the electrified network such as Harrogate and Hull.
Note.
- Hull would possibly need work to provide some form of charging for battery-electric Azumas, but Harrogate is close enough to be served by a one-battery Azuma.
- The CAF Tri-mode sets would certainly handle routes like Cleethorpes, Middlesbrough and Sunderland, but would they really need a ten-car train.
- Ten-car trains would also be busy on the Leeds route.
- The UK is going to need more 125 mph trains for Cross Country, Grand Central, Grand Union, TransPennine Express and possibly other train companies.
- Has Hitachi got the capacity to build the trains in the UK?
So has the Government given the order to CAF to create a level of competition?
Conclusions
These are my conclusions about Hitachi’s battery packs for Class 80x trains, which were written in November 2023.
- The battery pack has a capacity of 750 kWh.
- A five-car train needs three battery-packs to travel 100 miles.
- A nine-car train needs five battery-packs to travel 100 miles.
- The maximum range of a five-car train with three batteries is 117 miles.
- The maximum range of a nine-car train with five batteries is 121 miles.
As battery technology gets better, these distances will increase.
Hitachi have seen my figures.
They also told me, that they were in line with their figures, but new and better batteries would increase range.
In July 2025, I wrote Batteries Ordered For Grand Central Inter-City Trains, which mentions the following.
- Grand Central’s trains will be electric-diesel-battery hybrid inter-city trainsets.
- The trains will have lithium ion phosphate batteries.
- The trains will be delivered in 2028.
- The batteries will be smaller and more powerful, than current batteries.
This is also said about safety, hazards and cybersecurity.
The Safety Integrity Level 2 and IEC 61508 compliant battery management system will detect and mitigate hazards and meet the IEC 62243 cybersecurity standard.
These batteries would appear to give Hitachi and Grand Central Trains everything they want and need.
It looks like the new battery chemistry, will give Hitachi extra range.
Grand Central Trains And CAF’s Tri-Mode Trains
In First Tri-Mode Long Distance Trains For The East Coast Main Line, I wrote about LNER’s purchase of a new fleet of ten CAF tri-mode trains to work services between London and Yorkshire.
In this press release from LNER, which is entitled First Tri-Mode Long Distance Trains For The East Coast Main Line, this is a paragraph.
This new fleet of trains will keep LNER on track to reduce its emissions by 67 per cent by 2035 and be net zero by 2045. LNER has already reduced carbon emissions by 50 per cent compared with 2018/19. Per mile, LNER trains produce 15 times less carbon emissions than a domestic flight.
I believe that as they compete over similar routes with LNER, that Grand Central Trains will have to implement a similar decarbonisation strategy or their business will suffer.
The new trains for Grand Central Trains, will need to have the following conditions.
Train Length
Consider.
- The train must be able to fit all the platforms it will use.
- Ten-cars may be too long for some of the platforms.
- Train length should also be long enough to capture as much of the market as possible.
But as adjusting the length of trains is an easy process, I suspect all manufacturers will be happy to supply extra carriages.
Distances Without Electrification
These are the distances on Grand Central Trains’s services without electrification.
- Doncaster and Bradford Interchange – 52.1 miles
- Northallerton and Sunderland – 47.4 miles
A battery-electric train with a battery range of 110 miles would probably be able to reach Sunderland and return, after charging on the main line.
But a CAF tri-mode train, which ran on diesel or a suitable sustainable fuel like biodiesel or HVO wouldn’t give the driver, operator or passengers any worries.
Possible Time Savings To Bradford
Digital signalling is being installed on the East Coast Main Line between Woolmer Green and Dalton-on-Tees, which will allow running on the line up to 140 mph.
- Woolmer Green is 132.1 miles South of Doncaster.
- A typical train time by Grand Central Trains is 75 minutes.
- This is an average speed of 110 mph.
- Trains take typically three hours and eight minutes between London and Bradford Interchange.
I can build a table of timings and savings at various average speeds.
- 120 mph – 66 minutes – 9 minutes
- 125 mph – 63 minutes – 12 minutes
- 130 mph – 61 minutes – 14 minutes
- 140 mph – 57 minutes – 18 minutes
Several times, I have timed an Hitachi train running at 125 mph on routes like the East Coast Main Line, Great Western Main Line, Midland Main Line and West Coast Main Line, so I have no doubt, that London and Bradford Interchange services can be less than three hours.
These journey time savings will be available to any train able to use the digital electrified railway to the South of Doncaster.
Possible Time Savings To Sunderland
Dalton-on-Tees, where the first phase of the digitally signalling will end, is North of Northallerton, so once the Sunderland train is on the East Coast Main Line, it will be a digital electrified railway all the way to Woolmer Green.
- Woolmer Green is 194.6 miles South of Northallerton.
- A typical train time by Grand Central Trains is 151 minutes.
- This is an average speed of 77.3 mph.
- Trains take typically three hours and twenty-eight minutes between London and Sunderland.
I can build a table of timings and savings at various average speeds.
- 120 mph – 97 minutes – 54 minutes
- 125 mph – 93 minutes – 58 minutes
- 130 mph – 89 minutes – 62 minutes
- 140 mph – 83 minutes – 68 minutes
It looks like times of two hours and thirty minutes will be possible between between London and Sunderland.
Will The Trains Need A 140 mph Capability?
Trains will need to average 125 mph on the digital electrified East Coast Main Line to get under three hours for Bradford Interchange and 2½ hours for Sunderland, so I feel a 140 mph capability is required between Northallerton and London.
Could The Trains Split And Join At Doncaster?
High speed paths on the digitally signalled and electrified East Coast Main Line might be at a premium, so running pairs of five-car trains to two destinations could be commonplace working.
- It could be a way of increasing frequency to Bradford Interchange and Sunderland, by perhaps running pairs of five-car trains that split at Doncaster.
- Grand Union Trains have proposed in the past to use splitting and joining to run services to Cleethorpes.
As Hitachi trains can split and join, I suspect that the CAF tri-mode trains will be at least able to be retrofitted with the ability.
Conclusion
These are my conclusions.
- The digital signalling certainly gives good time saving to Yorkshire and the North-East
- New trains for Grand Union Trains would give them faster services on their existing routes.
- Trains with a 140 mph capability would be needed.
- CAF tri-mode trains wouldn’t need any new infrastructure, but battery-electric trains may need chargers at the destinations.
- Because of the lower infrastructure requirements, I think the CAF trains will get the nod.
First Tri-Mode Long Distance Trains For The East Coast Main Line
The title of this post, is the same as that of this press release from LNER.
This is the sub-heading.
London North Eastern Railway (LNER) is pleased to confirm that CAF has been named as the successful bidder to deliver a fleet of 10 new tri-mode trains for LNER. Porterbrook has been chosen as the financier of the new fleet. The trains will be able to operate in electric, battery or diesel mode.
These are the first two paragraphs.
Benefits of tri-mode trains range from a reduction in emissions, particulates, noise and vibration pollution, lower maintenance and operating costs and upgradeable technology, with an expected increase in range and performance as technology develops further. Battery power reduces the need to use diesel traction in areas where overhead powerlines are not available.
Complementing the modern Azuma fleet of 65 trains, the new ten-coach trains will help LNER achieve its vision of becoming the most loved, progressive and trusted train operator in the UK, delivering an exceptional service for the customers and communities served along its 956-mile network.
I have a few thoughts.
Will The Trains Have Rolls-Royce mtu Diesel Engines?
Consider.
- CAF’s Class 195, 196 and 197 Civity trains for the UK all have Rolls-Royce mtu diesel engines.
- Porterbrook are headquartered in Derby.
- Rolls-Royce are headquartered in Derby.
- In Rolls-Royce And Porterbrook Agreement Will Drive Rail Decarbonisation, I talked about how the two companies were planning to decarbonise trains using techniques like mtu Hybrid PowerPacks and hydrogen fuel cells.
I would think it very likely that the new trains will have Rolls-Royce mtu engines.
Will The Trains Have Rolls-Royce mtu Hybrid PowerPacks?
It was in 2018, that I first wrote about mtu Hybrid PowerPacks in Rolls-Royce And Porterbrook Launch First Hybrid Rail Project In The UK With MTU Hybrid PowerPacks.
- Examples of these power packs are now running in Germany, Ireland and the UK.
- The mtu Hybrid PowerPack how has its own web site.
- There is also this YouTube video.
- If CAF use off-the-shelf mtu Hybrid PowerPacks in their Civity trains, there is one big massive plus – They don’t have to develop the complicated control software to get a combination of diesel engines and batteries to perform as immaculately as Busby Berkeley’s dancers or a Brigade of Guards.
- The mtu Hybrid PowerPacks also have a big plus for operators – The batteries don’t need separate charging infrastructure.
- In Rolls-Royce Releases mtu Rail Engines For Sustainable Fuels, I talk about how mtu engines can run on sustainable fuels, such as biodiesel or HVO.
I think it is extremely likely that CAF’s new trains for LNER will be powered by mtu Hybrid PowerPacks.
Class 800 And Class 397 Trains Compared
The Class 800 train is LNER’s workhorse to Scotland from London.
The Class 397 train used by TransPennine Express, is a 125 mph Civity train.
Differences include.
- The Class 800 train can run at 140 mph, where the signalling allows, but is the Class 397 train only capable of 125 mph?
- The Class 397 train accelerate at 0.92 m/s², whereas the Class 800 train can only manage 0.7 m/s².
- The Hitachi train has 14 % more seats, 36 First and 290 Standard as opposed to 22 First and 264 Standard in five-car trains.
I will add to this list.
Will The New Trains Be Capable Of 140 mph Running?
As the East Coast Main Line is being fully digitally signalled to allow 140 mph running of the numerous Hitachi expresses on the route, I wouldn’t be surprised to see, that the new CAF trains will be capable of 140 mph.
In this article on Modern Railways, which is entitled LNER Orders CAF Tri-mode Sets, this is said.
The new fleet will be equipped with CAF Signalling’s European Rail Traffic Management System digital signalling. This will align with the East Coast Digital Programme, which aims to introduce European Train Control System (ETCS) on the southern stretch of the East Coast main line from King’s Cross to Stoke Tunnel by 2029.
Later in the article this is said.
LNER has retained 12 ‘91s’ hauling eight rakes of Mk 4s, and the rollout of ETCS is another reason the operator has sought to order the replacement fleet. LNER’s passenger numbers have rebounded more quickly than other operators post-Covid, which has helped make the case for confirming the order.
This does seem sensible.
What Will Be The Range Of The CAF Trains Without Electrification?
The longest LNER route without electrification is the Northern section of the Inverness service between Inverness and Dunblane, which is 146.1 miles. There are also eight stops and some hills.
In Edinburgh to Inverness in the Cab of an HST, there’s a video of the route.
I’m sure that even, if they don’t normally run the new trains to Inverness, being able to do so, could be useful at some point.
It should be noted that the Guinness World Record for battery-electric trains is 139 miles, which is held by a Stadler Akku.
I am left with the conclusion that London and Inverness needs a tri-mode train or lots of electrification. Did this rule out Hitachi?
The Number Of Trains Ordered
The Modern Railways article says this about the number of trains.
The contract includes an eight-year maintenance services agreement with an option to extend; CAF says the order value, including maintenance, exceeds €500 million. When the tender was published the intention was to include an option for five additional sets; LNER confirmed to Modern Railways there is an option to purchase additional sets on top of the base order of 10.
Can we assume this means that other trains will be ordered, if the trains are a success?
Can These New CAF Trains Be Made Net Zero?
This is a paragraph, in the LNER press release.
This new fleet of trains will keep LNER on track to reduce its emissions by 67 per cent by 2035 and be net zero by 2045. LNER has already reduced carbon emissions by 50 per cent compared with 2018/19. Per mile, LNER trains produce 15 times less carbon emissions than a domestic flight.
As the new CAF trains will probably have a service life of at least forty years, there must be some way, that these new trains can be made net zero.
Consider.
- I am absolutely certain, that the new CAF trains will have Rolls-Royce mtu diesel engines.
- LNER’s existing Class 800 and 801 trains have Rolls-Royce mtu diesel engines.
Rolls-Royce mtu according to some of Rolls-Royce’s press releases appear to be developing net zero solutions based on hydrogen or net zero fuels.
This press release from Rolls-Royce is entitled Rolls-Royce Successfully Tests mtu Engines With Pure Hydrogen, suggests that Rolls-Royce mtu are working on a solution.
Routes They Will Serve
The Modern Railways article says this about the routes to be served.
Modern Railways understands the new fleet will be maintained at Neville Hill depot in Leeds and, like the ‘225’ sets, will be used predominantly on services between London and Yorkshire, although unlike the ‘225s’ the tri-modes, with their self-power capability, will be able to serve destinations away from the electrified network such as Harrogate and Hull.
Note.
- This surprised me, as I’d always expected the Yorkshire routes will be served by Hitachi battery-electric trains.
- But it does look that both Harrogate and Hull stations, have long enough platforms to hold a ten-car train.
- With their tri-mode technology, it also looks like the CAF trains won’t be needed to be charged before returning to London.
The last point would enable them to try out new routes.
These are distances from the electrification of the East Coast Main Line of the destinations that LNER served, where there is not full electrification.
- Aberdeen via Ladybank – 91.4 miles
- Carlisle via Skipton – 86.8 miles
- Cleethorpes via Newark and Lincoln – 63.9 miles
- Harrogate via Leeds – 18.3 miles
- Huddersfield via Leeds – 17.2 miles
- Hull via Temple Hirst junction – 36.1 miles
- Inverness via Dunblane – 146.1 miles
- Lincoln via Newark – 16.7 miles
- Middlesbrough via Northallerton – 22.2 miles
- Scarborough via York – 42.1 miles
- Sunderland via Northallerton – 47.4 miles
Note.
- The first place after the ‘via’ is where the electrification ends.
- Carlisle could be a possibility during High Speed Two upgrading of the West Coast Main Line or for an enthusiasts’ special or tourist train.
- Cleethorpes is a possible new service for LNER. I wrote about this in LNER To Serve Cleethorpes.
- Scarborough must be a possible new service for LNER.
- All stations can take ten-car trains, with the possible exception of Middlesbrough, which is currently being upgraded.
- Huddersfield and Leeds is being electrified under the TransPennine Upgrade.
This would appear to show that LNER need enough bi-mode or tri-mode trains to run services to Aberdeen, Cleethorpes, Harrogate, Hull, Inverness, Lincoln, Middlesbrough and Sunderland.
But.
- It would appear that the initial batch of trains, will not be serving the North of Scotland.
- Aberdeen and Inverness could be served, when there is enough electrification at the Southern end.
I am also fairly sure, that no significant infrastructure is required.
Do Hitachi Have A Problem?
I am starting to wonder, if Hitachi are having trouble with the designing and building of their battery packs.
- It’s not like Hitachi to allow someone to run off with a €500 million contract from under their nose.
- Are they short of capacity to build the trains at Newton Aycliffe?
But then they’re probably up to their elbows in work on the High Speed Two Classic-Compatible trains.
Are There Any Other Routes, Where The New CAF Trains Could Be Employed?
The trains would certainly be suitable for these routes.
- Chiltern – InterCity services.
- CrossCountry Trains – Fleet replacement
- Grand Central Trains – Fleet replacement
- Grand Union Trains – For Carmarthen and Stirling open access services.
- Great Western Railway – Replacing Castles in the South West.
- ScotRail – Replacing Inter7City trains.
- South Western Railway – Basingstoke and Exeter St. Davids and other routes.
Note.
- CAF could sell a lot of trains.
- I estimate that fleet replacement for Grand Central Trans would cost around €350 million
- The specification would vary according to the route.
Could CAF have got the LNER order, because they have the capacity in the Newport factory?
Conclusion
It looks like CAF have done a good job in designing the trains.
I’m also fairly sure that CAF are using Rolls-Royce mtu PowerPacks.
May The Maths Be With You!
It was a bit of a surprise, when in the November 2023 Edition of Modern Railways, in an article, which was entitled Extra Luggage Racks For Lumo, I read this closing paragraph.
Lumo celebrated its second birthday in late October and was also set to mark the carriage of its two-millionth passenger. It is understood Lumo is interested in augmenting its fleet, such has been the success of the service; while many operators favour bi-mode units, Lumo is proud of its all-electric credentials so straight EMUs are still preferred, although the possibilities of including batteries which could power the trains may be pursued (the ‘803s’ have on-board batteries, but only to provide power to on-board systems if the electricity supply fails).
I find this development very interesting.
Surely the obvious way to increase capacity would be to acquire some extra identical trains and run the busiest services as ten-car trains. I talked about Hull Trains running ten-car trains in Ten-Car Hull Trains. Both companies have five trains, so I suspect that this number would allow for occasional ten-car trains.
If not, then add a few identical trains to the fleet, so capacity can be matched to the demand.
- Some services would be ten-car instead of five-car.
- Platforms at Edinburgh, King’s Cross and Newcastle already handle nine and ten-car trains, so infrastructure costs would be minimal.
- No extra paths would be needed, as a ten-car train can run in a path, that normally has five-car trains, as Hull Trains have shown.
A simple spreadsheet should probably predict, when and how many extra trains need to be added to the fleet.
Lumo And Traction Batteries
But why does the Modern Railways’s article talk about traction batteries?
In the two years since Lumo started their service, there have been days, when the East Coast Main Line has been closed for engineering works, bad weather or an incident. I wrote about an incident in Azumas Everywhere!.
Some of these engineering works have been able to be by-passed by using diversions. But not all of these diversion routes are fully-electrified, so are not available for Lumo.
There would appear to be three viable diversions for the East Coast Main Line.
- Werrington Junction and Doncaster via Lincoln – Not Electrified – 85.4 miles
- Doncaster and York via Leeds – Being Electrified – 55.5 miles
- Northallerton and Newcastle – Not Electrified – 56.8 miles
If all or some of Lumo’s five-car trains had a battery-range of a hundred miles, they would be able to divert around some blockades.
Note.
- A traction battery could also provide power to on-board systems if the electricity supply fails.
- A traction battery would allow the train to skip past some catenary problems.
- I would be interested to know how much diversions, bad weather and incidents have cost Lumo in lost sales and refunds.
As an electrical engineer, I believe, that the emergency-only and the traction batteries could be the same design, but with different software and capacity.
The extra cost of the larger capacity traction battery, might deliver a better service and also pay for itself in the long term.
Extending Lumo’s Route
Lumo will want to maximise revenue and profits, so would it be possible to extend the route North of Edinburgh?
Consider.
- Edinburgh and Aberdeen is 131.4 miles
- Ladybank is a station to the North of the Forth Bridge, which is under 40 miles from Edinburgh.
- The line between Edinburgh and Ladybank is being electrified.
- Ladybank is just 91.4 miles South of Aberdeen.
At some point in the next few years, I believe that one of Lumo’s trains fitted with a hundred mile traction battery could reach Aberdeen on electric power.
The train would need to be charged at Aberdeen before returning South.
How would Aberdonians like that?
Unfortunately, Inverness is 146.1 miles from the nearest electrification at Dunblane, so it is probably too far for a hundred mile traction battery.
It does appear to me that if Lumo’s trains were fitted with a hundred mile traction battery, this would enable them to take some non-electrified diversions and provide a service to Aberdeen.
How Useful Would A Hundred Mile Range Battery-Electric Train Be To Other Operators?
I take each operator in turn.
Hull Trains
Consider.
- It appears that Hull Trains change between diesel and electric power at Temple Hirst junction, which is between Doncaster and Selby, on their route between King’s Cross and Hull/Beverley.
- The distance between Temple Hirst junction and Beverley is 44.3 miles.
- It would appear that an out-and-return journey could be possible on a hundred mile traction battery.
- The hundred mile traction battery would also allow Hull Trains to use the Lincoln diversion, either when necessary or by design.
To ensure enough range, a short length of overhead electrification could be erected at Hull station to combat range anxiety.
The Modern Railways article also says this.
The co-operation between sister East Coast Main Line open access operators Lumo and Hull Trains continues, with one recent move being the use of Hull Trains ‘802’ on Lumo services to cover for a shortage of the dedicated ‘803s’ while one was out of action for repairs following a fatality. although the two types are similar, there are notable differences, most obviously that the Hull Trains units are bi-modes while the Lumo sets are straight EMUs, and a training conversion course is required for Lumo drivers on the ‘802s’. There are also challenges from a passenger-facing perspective – the Hull trains units have around 20 % fewer seats and a First Class area.
If Hull Trains used traction batteries rather than diesel engines could the trains be identical to Lumo’s trains from the driver’s perspective?
This would surely appeal to First Group, who are the owner of both Hull Trains and Lumo.
TransPennine Express
These are TransPennine Express services.
- Liverpool Lime Street and Newcastle – Fully Electrified
- Liverpool Lime Street and Hull – Part Electrified – Hull and Micklefield – 42 miles
- Manchester Airport and Saltburn – Part Electrified – Saltburn and Northallerton – 33.6 miles
- Manchester Piccadilly and Newcastle – Fully Electrified
- Manchester Piccadilly and Scarborough – Part Electrified – York and Scarborough – 42.1 miles
- York and Scarborough – Not Electrified – 42.1 miles
- Manchester Piccadilly and Huddersfield – Fully Electrified
- Huddersfield and Leeds – Fully Electrified
- Liverpool Lime Street and Cleethorpes – Part Electrified – Hazel Grove and Cleethorpes – 104.6 miles
Note.
- I am assuming that the TransPennine Upgrade has been completed and Manchester and Leeds is electrified.
- Liverpool Lime Street and Cleethorpes will need some form of charging at Cleethorpes and a slightly larger battery.
All of these TransPennine Rxpress routes would be possible with a battery-electric train with a hundred mile traction battery.
LNER
These are distances from the electrification of the East Coast Main Line.
- Aberdeen via Ladybank – 91.4 miles – Charge before return
- Bradford Forster Square – Electrified
- Carlisle via Skipton – 86.8 miles – Charge before return
- Cleethorpes via Newark and Lincoln – 63.9 miles – Charge before return
- Harrogate via Leeds – 18.3 miles
- Huddersfield via Leeds – 17.2 miles
- Hull via Temple Hirst junction – 36.1 miles
- Lincoln via Newark – 16.7 miles
- Middlesbrough via Northallerton – 22.2 miles
- Scarborough via York – 42.1 miles
- Skipton – Electrified
- Sunderland via Northallerton – 47.4 miles
Note.
- The first place after the ‘via’ is where the electrification ends.
- Carlisle could be a possibility during High Speed Two upgrading of the West Coast Main Line or for an enthusiasts’ special or tourist train.
- Cleethorpes is a possible new service for LNER. I wrote about this in LNER To Serve Cleethorpes.
- Scarborough must be a possible new service for LNER.
- ‘Charge before return’ means the train must be charged before return. Carlisle is electrified, but Cleethorpes is not.
- The only new infrastructure would be the charging at Cleethorpes.
All of these LNER routes would be possible with a battery-electric train with a hundred mile traction battery.
The hundred mile traction battery would also allow LNER to use the Lincoln diversion.
Grand Central
These are distances from the electrification of the East Coast Main Line for Grand Central’s services.
- Bradford Interchange via Shaftholme junction – 47.8 miles
- Cleethorpes via Doncaster – 52.1 miles – Charge before return
- Sunderland via Northallerton – 47.4 miles
Note.
- The first place after the ‘via’ is where the electrification ends.
- Cleethorpes is a possible new service for Grand Central.
- ‘Charge before return’ means the train must be charged before return.
All of these routes would be possible with a battery-electric train with a hundred mile traction battery.
The hundred mile traction battery would also allow Grand Central to use the Lincoln diversion.
Avanti West Coast
These are distances from the electrification of the West Coast Main Line for Avanti West Coast’s services.
- Chester via Crewe – 21.1 miles
- Gobowen via Wolverhampton – 47.7 miles
- Holyhead via Crewe – 105.5 miles – Charge before return
- Shrewsbury via Wolverhampton – 29.7 miles
- Wrexham via Crewe – 33.3 miles
Note.
- The first place after the ‘via’ is where the electrification ends.
- Gobowen is a possible new service for Avanti West Coast.
- ‘Charge before return’ means the train must be charged before return.
All of these routes would be possible with a battery-electric train with a hundred mile traction battery.
Great Western Railway
These are distances from the electrification of the Great Western Main Line for Great Western Railway’s services.
- Bristol Temple Meads via Chippenham – 24.4 miles
- Carmarthen via Cardiff Central – 77.4 miles – Charge before return
- Cheltenham Spa via Swindon – 43.2 miles
- Exeter St. Davids via Newbury – 120.4 miles – Charge before return
- Great Malvern via Didcot East junction – 76.1 miles – Charge before return
- Hereford via Didcot East junction – 96.9 miles – Charge before return
- Oxford via Didcot Parkway – 10.3 miles
- Paignton via Newbury – 148.7 miles – Charge before return
- Pembroke Dock via Cardiff Central – 121.6 miles – Charge before return
- Penzance via Newbury – 172.6 miles – Charge before return
- Plymouth via Newbury – 120.4 miles – Charge before return
- Swansea via Cardiff Central – 53 miles – Charge before return
- Weston-super-Mare via Chippenham – 43.8 miles
- Worcester Foregate Street via Didcot East junction – 68.2 miles – Charge before return
- Worcester Shrub Hill via Didcot East junction – 67.6 miles – Charge before return
Note.
- The first place after the ‘via’ is where the electrification ends.
- ‘Charge before return’ means the train must be charged before return.
- Partial electrification through Hereford, Great Malvern, Worcester Foregate Street and Worcester Shrub Hill, could possibly be used to charge services from Hereford and Worcester.
- Partial electrification through Penzance, Plymouth and Exeter St. Davids, could possibly be used to charge services from the South West.
- Partial electrification West of Swansea, could possibly be used to charge services from West Wales.
All routes, except for Hereford and Worcester, the South-West and West Wales, would be possible with a battery-electric train with a hundred mile traction battery.
I’ll now look at the three groups of services in more detail.
Services To Hereford And Worcester
These are distances from the electrification of the Great Western Main Line for Great Western Railway’s Hereford and Worcester services.
- Great Malvern via Didcot East junction – 76.1 miles
- Hereford via Didcot East junction – 96.9 miles
- Worcester Foregate Street via Didcot East junction – 68.2 miles
- Worcester Shrub Hill via Didcot East junction – 67.6 miles
Note.
- All services join the Great Western Main Line at Didcot East junction.
- Some services will be probably need to have, their batteries charged at the Hereford and Worcester end.
At the present time, the electrification finishes at Didcot East junction, but if it were to be extended to Charlbury station, these would be the distances without electrification.
- Great Malvern via Charlbury – 52.3 miles
- Hereford via Charlbury – 73.1 miles
- Worcester Foregate Street via Charlbury – 44.4 miles
- Worcester Shrub Hill via Charlbury – 43.8 miles
Note.
- Some of the track between Oxford and Charlbury is only single track, which may give advantages, when it is electrified.
- It might be possible with a hundred mile traction battery for all Worcester services to charge their batteries between Charlbury and London Paddington and not need a charge at Worcester to return.
- A larger traction battery or extending the electrification to perhaps Morton-in-Marsh could see Great Malvern in range of battery-electric trains from London Paddington without a charge.
- Hereford would probably be too far to get away without charging at Hereford.
This OpenRailwayMap shows the layout of Hereford station.
I’m certain that a platform can be found, where there is space for a charger, which could also be used for other trains serving the station.
Services To The South West
In the August 2023 Edition of Modern Railways, there is an article, which is entitled GWR Seeks Opportunities To Grow.
This is the sub-heading.
Managing Director Mark Hopwood tells Philip Sherratt there is plenty of potential to increase rail’s economic contribution.
This is two paragraphs.
The desire to provide electrification to support aggregates traffic from the Mendip quarries could also benefit GWR , says Mr. Hopwood. ‘Having an electric loco would massively help with pathing heavy freight trains through the Thames Valley. If you could electrify from Newbury to East Somerset Junction, a big chunk of the Berks and Hants route would be wired.
Then you can ask how much further you could get on battery power on an IET without running out of juice.’
Newbury to East Somerset Junction would be 53.5 miles of electrification, so I can build this table of services to the South-West
- Exeter St. Davids via Newbury – 120.4 miles – 66.9 miles
- Paignton via Newbury – 148.7 miles – 95.2 miles
- Penzance via Newbury – 251.9 miles – 198.5 miles
- Plymouth via Newbury – 172.6 miles – 119 miles
Note.
- The distance between Penzance and Plymouth is 79.5 miles.
- The first figure in the table is the distance to Newbury.
- The second figure in the table is the distance to East Somerset junction.
A possible way of running these four services to London on battery power is emerging.
- Exeter St. Davids via Newbury – Charge before return – Run on battery for 66.9 miles to East Somerset junction.
- Paignton via Newbury – Charge before return – Run on battery for 95.2 miles to East Somerset junction.
- Penzance via Newbury- Charge before return – Run on battery for 79.5 miles to Plymouth – Charge at Plymouth – Run on battery for 119 miles to East Somerset junction.
- Plymouth via Newbury – Charge before return – Run on battery for 119 miles to East Somerset junction.
Once at East Somerset junction, it’s electrification all the way to Paddington.
This is the corresponding way to run services from London.
- Exeter St. Davids via Newbury – Run on electrification to East Somerset junction, charging the battery on the way – Run on battery for 66.9 miles to Exeter St. Davids.
- Paignton via Newbury – Run on electrification to East Somerset junction, charging the battery on the way – Run on battery for 95.2 miles to Paignton.
- Penzance via Newbury – Run on electrification to East Somerset junction, charging the battery on the way – Run on battery for 119 miles to Plymouth – Charge at Plymouth – Run on battery for 79.5 miles to Penzance.
- Plymouth via Newbury – Run on electrification to East Somerset junction, charging the battery on the way – Run on battery for 119 miles to Plymouth.
More electrification or a larger than a hundred mile traction battery would be needed, as Plymouth and East Somerset junction is 119 miles.
But if a Stadler Akku can do 139 miles on a charge, why shouldn’t a Hitachi battery-electric train?
Services To West Wales
It seems that the current timetable is already setup for battery-electric trains to run to and beyond Swansea.
- Carmarthen and Swansea is almost exactly 32 miles.
- Pembroke Dock and Swansea is 73.4 miles.
- Swansea and Cardiff Central is 45.7 miles.
Note
- All these sections could be run by a battery-electric train, with a fully-charged hundred mile traction battery.
- All trains going to or from Carmarthen or Pembroke Dock reverse at Swansea, where a generous time of more than eleven minutes is allowed for the manoeuvre.
- During the reverse at Swansea, there is sufficient time to charge the batteries, if overhead wires were present.
Battery-electric services could serve Wales Wales with overhead electrification at Carmarthen, Pembroke Dock and Swansea.
Conclusion
We will go a long way, if we embrace battery-electric trains.
Most routes can be handled with a train with a traction battery range of 100 miles.
Exceptions are.
- Hazel Grove and Cleethorpes – 104.6 miles
- Plymouth and East Somerset junction – 119 miles
But if a Stadler Akku can do 139 miles on a charge, why shouldn’t a Hitachi battery-electric train?
TransPennine Express Releases Blueprint For Improving Service And Fleet Upgrade
The title of this post, is the same as that of this article on Rail Technology Magazine.
This is the sub-heading.
TransPennine Express (TPE), which transferred to the government’s owning group (DOHL) earlier this year, has set out its plans to address many of the issues which have caused problems and disruption for rail customers.
These three paragraphs summarize their plans.
Making Journeys Better: A Prospectus gives clear detail of the issues TPE has faced during the past two years as well as outlining how TPE, under DOHL, will work to make things better, having completed an in-depth review of the business.
Part of the plans involve the operators plans for its new fleet. Its New Trains Programme outlines its long term view for decarbonisation. The report states that TPE will look towards new technology on its fleet to overcome the lack of clarity on the full electrification of the line.
This, it states will help with the cascading and removal of diesel trains faster across its network.
It always looked to me, that TPE under First Group, brought rather a dog’s breakfast of trains, when a unified fleet of Class 802 trains, as per Hull Trains, might have been easier to operate.
- They are already retiring the Class 68 locomotives and their Mark 5 coaches, so surely to decarbonise their services, a number of battery electric high speed trains would be an idea.
- They are already testing Class 802 battery-electric trains for Hitachi and Eversholt Rail.
- I also feel that CAF could offer a suitable battery-electric train, based on the Class 397 train.
TPE say in the example, that they expect a decision later in the month.
TransPennine Express Services And Battery Electric Trains
These are their services and how they would be effected by battery-electric trains.
- Liverpool Lime Street And Newcastle – Fully-electrified after TransPennine Upgrade.
- Liverpool Lime Street And Hull – Fully-electrified after TransPennine Upgrade.. – 42 miles unelectrified – Service could be run by a battery-electric train that charged between Leeds and Micklefield.
- Manchester Airport and Saltburn – Fully-electrified between Manchester Airport and Northallerton after TransPennine Upgrade. – 33.6 miles unelectrified – Service could be run by a battery-electric train that charged between Leeds and Northallerton. Would eliminate overnight noise problems at Redcar.
- Manchester Piccadilly and Newcastle – Fully-electrified after TransPennine Upgrade.
- Manchester Piccadilly and Scarborough – Fully-electrified between Manchester Piccadilly and York after TransPennine Upgrade. – 42.1 miles unelectrified – Service could be run by a battery-electric train that charged between Leeds and York.
- York and Scarborough – Electrified at York – 42.1 miles unelectrified – Service could be run by a battery-electric shuttle train that charged at York.
- Manchester Piccadilly and Huddersfield – Electrified at Manchester Piccadilly – 25.5 miles unelectrified – Service could be run by a battery-electric shuttle train that charged at Manchester Piccadilly.
- Leeds and Huddersfield – Electrified at Leeds – 17.2 miles unelectrified – Service could be run by a battery-electric shuttle train that charged at Leeds.
- Liverpool Lime Street and Cleethorpes – 125,6 miles unelectrified – In Electrification Of The Hope Valley Line, I show how this route can be run by battery-electric trains that charged on existing electrification a short new section of electrification at Cleethorpes.
Note.
- If Manchester Victoria and Huddersfield, is not electrified, battery-electric trains would be able to cross the 25.8 miles of unelectrified track on battery power.
- If Leeds and Huddersfield, is not electrified, battery-electric trains would be able to cross the 17.2 miles of unelectrified track on battery power.
- I am assuming that the TransPennine Upgrade between Manchester and Leeds will be completed, so that between Liverpool Lime Street and Leeds is fully-electrified.
- The only new infrastructure needed would be electrification at Cleethorpes to charge the trains.
All services except for Liverpool Lime Street and Cleethorpes could be run using battery-electric trains with a range on a full battery of at least 100 miles and with no additional electrification.
Electrifying Cleethorpes Station
This Google Map shows Cleethorpes station.
These pictures show the station in June 2023, when it appears to be going through a platform refurbishment.
I don’t think it would be the most difficult station to electrify.
- There are four platforms.
- As the station is likely to get more battery-electric services, including one from King’s Cross, I would suspect that at least three out of the four platforms would be electrified.
- Although, the station is Grade II Listed, there doesn’t appear to be any canopies or important architectural details, that would get in the way of electrification.
Once Cleethorpes station had been successfully electrified, similar installations could be applied at other stations like Saltburn, Scarborough and Skegness.
Conclusion
If TransPennine Express were to buy the right number of battery-electric trains with a hundred mile range, they can decarbonise all their routes in a train factory.



















































