Network Rail And Vivarail Bring The Next-Generation Battery Train To COP26
The title of this post, is the same as that of this article on Network Rail.
These are the first two paragraphs.
Network Rail and Vivarail today announced that Vivarail’s next-generation battery train will be launched at COP26 and will run daily services throughout the international climate change conference.
This zero-emission train uses new batteries, developed by Vivarail, to combine maximum range with the ability to recharge quickly. The result is a train that can travel for up to 80 miles on battery power and recharge in only 10 minutes using Vivarail’s patented Fast Charge system.
That is an excellent range coupled with a fast turnround time.
How will other companies like CAF, Hitachi and Stadler respond?
If all battery-electric trains can reach this range, I don’t think we’ll need hydrogen for multiple units, but we will probably need it for freight and other locomotives.
New East Linton Station Development Given The Go Ahead
The title of this post, is the same as that of this article on Rail Technology Magazine.
This is the first paragraph.
Proposals to open a station in the village of East Linton, for the first time in over half a century, have just been approved by East Lothian Council’s planning committee.
In The Scottish Borders Have Caught London Overground Syndrome, I said this.
It would also appear that because of the success of the Borders Railway, that there are suggestions to add new stations on the East Coast Main Line at Reston and East Linton. This is said under Future in the Wikipedia entry for East Linton station.
Proposals to reopen the station, along with the former station at Reston, have received the backing of John Lamont MSP, who has taken the case to the Scottish Parliament. A study published in 2013 proposed that East Linton and Reston stations be reopened. Since Abellio ScotRail took over the franchise in April 2015, they have now committed to reopening East Linton and Reston Stations as part of the local Berwick service by December 2016 but due to the shortage of rolling stock this will now commence in December 2018.
So it would appear there is a high chance it will happen.
Reston station is well on the way to completion and the site is shown in this Google map.
Note.
- The East Coast Main Line running between the North-West and South-East corners of the map.
- The brown scars around the railway indicate the site of the station.
- The main A1 road is just off this map to the North.
In New Rail Service From Newcastle To Edinburgh To Stop At These Northumberland Stations, I indicated that a new service from TransPennine Express will start running in December 2021 and will call at Reston station, when it opens.
Now East Linton station is on its way.
This Google Map shows the village of East Linton.
Note.
- The East Coast Main Line going through the middle of the village.
- The A1 curves South of the village.
Will the station be built in the middle of the village?
The page on Scotland’s Railway, indicates it will be.
East Linton and Reston stations seem to be progressing at speed, but then so did Horden and it appears Soham will be open this year.
Network Rail seem to have at last got their project management right.
The London And Edinburgh Travel Market
This paragraph comes from of this article on Railway Gazette.
Lumo is aiming to carry more than 1 million passengers per year. It is particularly targeting people who currently fly between Edinburgh and London; in June it says there were 74 764 air journeys on the route, compared to 82 002 by rail.
Lumo’s million passengers per year, will equate to around 83,300 passengers per month.
What these figures don’t show is the number of rail journeys made to intermediate stations like Newcastle, York, Doncaster and Peterborough.
These are a few thoughts.
Rail Capacity Between London And Edinburgh
Consider.
- LNER is currently the only rail carrier offering a daytime service between London and Edinburgh.
- LNER run approximately 26 trains per day (tpd) in both directions between London and Edinburgh.
- A nine-car Class 801 train can carry 510 Standard Class passengers and 101 First Class passengers.
That means that LNER had a capacity of just over 950,000 seats in June.
It might seem poor to have only sold 82,002 seats in June between London and Edinburgh, which is just 8.6 % of the available seats.
On the other hand, LNER’s two trains per hour (tph) are a lot more than London and Edinburgh trains, as they connect towns and cities all the way up the East Coast Main Line between London and Aberdeen.
Lumo’s capacity of a million seats per year, works out at 83,300 seats per month, which is another 8.7 % of capacity.
- Lumo will sell seats on price initially and I suspect they’ll end up running about 85-95 % full.
- It has been stated that they need to run 80% full to break even.
- I also think, that they would like to have a few seats for late bookers.
But even so, they will surely affect LNER’s bookings.
What Will LNER Do?
Several of the things, that Lumo are doing can be easily copied by LNER.
- Early booking.
- Improve onboard service.
- Better seating.
They could even reduce prices.
I think it is very likely we could end up with a price and service war between LNER and Lumo.
Would The Airlines Be The Losers?
This could be an outcome of competition between LNER and Lumo.
We are now talking about times of around four hours and twenty-five minutes between London and Edinburgh, but there are improvements underway on the East Coast Main Line.
- The remodelling of the approach to Kings Cross station has not been reflected in the timetables.
- The Werrington Dive Under has not been completed yet.
- Digital signalling is being installed South of Doncaster.
- The power supply is being upgraded North of Newcastle.
When these and other improvements are complete, I can see journey times reduced below four hours.
But would that only be for starters?great b
If a 1970s-technology Intercity 225 train, admittedly running as a shortened train formation, could achieve a time of just under three-and-a-half hours for the 393.2 miles between Kings Cross and Edinburgh stations in September 1991, what could a modern Hitachi train do, if all of the improvements had been completed and perhaps half of the route could be run at 140 mph under the watchful eyes of full digital signalling and an experienced driver.
Consider.
- London and York is nearly two hundred miles of fairly straight railway, that is ideal for high speed.
- Current trains run the 393.2 miles in four hours 25 minutes, which is an average speed of 89 mph.
- A train running at 89 mph would take two hours and fifteen minutes to cover 200 miles.
- A train running at 125 mph would take one hour and thirty-six minutes to cover 200 miles.
- A train running at 140 mph would take one hour and twenty-six minutes to cover 200 miles.
When Network Rail, Great British Railways or the Prime Minister renames the East Coast Main Line as High Speed East Coast, I think we can be sure that trains between London and Edinburgh will be able to achieve three-and-a-half hours between the two capitals.
High Speed Two is only promising three hours and forty-eight minutes.
What About LNER’s New Trains?
LNER Seeks 10 More Bi-Modes, was written to explore the possibilities suggested by a short article in the December 2020 Edition of Modern Railways.
There has been no sign of any order being placed, but Hitachi have moved on.
- They are building the prototype of the Hitachi Intercity Tri-Mode Battery for testing on the Great Western Railway.
- They have completed some of the Class 803 trains for East Coast Trains, which has now been renamed Lumo. These trains have a battery for hotel power in case of catenary failure, but no diesel engines.
- They are building the Class 807 trains for Avanti West Coast, which appear to be designed for high speed and have no batteries or diesel engines.
- The latest versions of the trains will have a reshaped nose. Is it more aerodynamic at high speeds?
It does seem that there is an emphasis on speed, better acceleration and efficiency.
- Could the lessons learned be used to improve the performance of the existing trains?
- Could a small high performance sub-fleet be created to run LNER’s Scottish services?
There are certainly possibilities, that would cut journey times between London and Edinburgh.
Conclusion
I can see the airlines flying between London and Edinburgh suffering a lot of collateral damage, as the two train companies slug it out.
Comings And Goings At Ely Station
On my meander around the Fens yesterday, I spent twenty minutes or so at Ely station, as the variety of trains came through the station, whilst I waited for a train to March.
Ely and the surrounding lines are to be remodelled, so that more trains can pass through the complicated junctions.
I had hoped to see a freight train pass through, which would have used the avoiding lines to pass the station.
In some ways, Ely sums up the problems of some of our major railway junctions.
- Several important passenger services needing to pass through.
- Several long freight trains a day.
- Level crossings everywhere.
- More passenger services are needed.
And on top of it all, there is a need to decarbonise.
British Rail and Network Rail have been trying to sort Ely for decades and it should be noted that the Fen Line to King’s Lynn station was electrified in 1992, which was probably an early phase of their master-plan.
Ely And Battery-Electric Trains
These are the distances without electrification on the various routes from Ely.
- Ipswich – 39 miles
- Norwich – 52 miles
- Peterborough – 30.5 miles
- Wisbech – 25 miles
Routes to King’s Cross, King’s Lynn, Liverpool Street, Stansted Airport and Stevenage are all fully electrified.
It does appear to me, that the new generation of battery-electric should be able to handle services from Ely on battery power.
For many of these services, which are or will be run by Greater Anglia, the required battery range can be achieved by swapping some of the diesel engines in the Class 755 trains for batteries.
Freight And Hydrogen Power
In Was This The Most Significant Statement On Freight Locomotives Last Week?, I referred to this press release from Freightliner, which is entitled Freightliner Secures Government Funding For Dual-Fuel Project.
This sixth paragraph from the press release is very significant.
This sustainable solution will support a programme to decarbonise freight operating companies’ diesel fleets in a cost-efficient manner that does not require significant short-term investment and facilitates operational learning in support of a longer-term fleet replacement programme, potentially using 100% hydrogen fuel.
I believe the paragraph indicates, that Freightliner and possibly the other companies involved in the building and operation of heavy freight locomotives have concluded, that the technology is now such, that a zero-carbon rail locomotive powered by 100 % hydrogen is now possible.
Hydrogen offers several advantages.
- Large amounts of power.
- Range comparable with diesel locomotives.
- Depots and freight terminals can be without electrification.
- As hydrogen-powered locomotive will most likely have an electric transmission, this opens the possibilities of using electrification where it exists and regenerative braking to an onboard battery.
My unreliable crystal ball says that we’ll see hydrogen-powered locomotives by 2026.
Tidying Up At Cheshunt Station – 4th August 2021
As I approached Cheshunt station, it looked like there had been some tidying up on the Western side of the line.
Unfortunately, I didn’t have my camera handy, so I was unable to take any pictures.
But I did take these pictures later from the station.
It does seem that Network Rail are tidying up the inside of the bend.
The Internet offers no clue, as to what is happening, but it could be anything from improving the car park entrance, to installing a second bay platform at the station, so that more trains can be run to and from Liverpool Street.
But there is a clue here in West Anglia Route Improvement – Cheshunt Station – 26th February 2017, which from the date is four years old.
The Google Map in this post, shows the Southern end of Platform 2 to be a different shape, to the pictures I took today.
It looks like the platforms have been lengthened.
- Originally, they could handle an eight-car Class 317 train, which are 160 metres long.
- It looks like now, they can handle a pair of five-car Class 720 trains, which are 244 metres long.
This will allow pairs of five-car Class 720 trains to work Cambridge services.
Pairs of four-car Class 710 trains are only 166 metres long, so they don’t need any platform lengthening.
The Sunset Studios Effect
If I was right in The Location Of Sunset Studios In Broxbourne, that a station will be built on the London Overground between Turkey Street and Theobalds Grove to serve the studio complex, then this may require modifications at Cheshunt, if traffic increases substantially.
- Cheshunt station will need to be step-free.
- Cheshunt station will need better passenger facilities, like more ticket machines.
- Cheshunt station may need more car parking.
- The bay platform at Cheshunt station will need to be handle upwards of four trains per hour (tph), all of which will be pairs of four-car trains.
A large housing development is planned for just to the North of Cheshunt station and hopefully, the developer will sort a lot of these issues.
Will Zero-Carbon Freight Trains Be Powered By Battery, Electric Or Hydrogen Locomotives?
These are a few initial thoughts.
We Will Not Have A One-Size-Fits-All Solution
If you consider the various freight and other duties, where diesel locomotives are used, you get a long list.
- Light freight, where perhaps a Class 66 locomotive moves a few wagons full of stone to support track maintenance.
- Intermodal freight, where a Class 66 locomotive moves a long train of containers across the country.
- Stone trains, where a Class 59 or Class 70 locomotive moves a very heavy train of aggregate across the country.
- Empty stock movements, where a diesel locomotive moves an electrical multiple unit.
- Supporting Network Rail with trains like the New Measurement Train, which is hauled by two diesel Class 43 power cars.
- Passenger trains at up to and over 100 mph.
I can see a need for several types of zero-carbon locomotive.
- A light freight locomotive.
- A medium freight locomotive, that is capable of hauling many intermodal trains across the country and would also be capable of hauling passenger services.
- A heavy freight locomotive, capable of hauling the heaviest freight trains.
- A Class 43 power car replacement, which would probably be a conversion of the existing power cars. Everybody loves InterCity 125s and there are over a hundred power cars in regular service on railways in the UK.
There are probably others.
The UK Hydrogen Network Is Growing
Regularly, there are news items about companies in the UK, who will be providing green hydrogen to fuel cars, vans, buses, trucks and trains.
Hydrogen is becoming a fuel with a much higher availability.
The UK Electricity Network Is Growing And Getting More Resilient
We are seeing more wind and solar farms and energy storage being added to the UK electricity network.
The ability to support large numbers of battery-electric buses, cars, trucks and trains in a reliable manner, is getting more resilient and much more comprehensive.
There Will Be More Railway Electrification
This will happen and installation will be more innovative. But predicting where electrification will be installed, will be very difficult.
Hydrogen Fuel Cells Now Have Rivals
Hydrogen fuel cells are normally used to convert hydrogen gas to electricity.
But over the last few years, alternative technology has evolved, which may offer better methods of generating electricity from hydrogen.
- Rolls Royce have developed a beer keg-sized 2.5 MW generator, that could run on hydrogen, which I wrote about in Our Sustainability Journey.
- Honeywell are possibly going the same route, which I wrote about in Honeywell Introduces Power Source For Hybrid-Electric Aircraft.
- JCB have converted diesel engines to run on hydrogen, which I wrote about in JCB Finds Cheap Way To Run Digger Using Hydrogen.
- Caterpiller, Cummins and Rolls-Royce mtu are showing signs of taking a similar route to JCB.
Fuel cells will not be having it all their own way.
Batteries Are Improving Their Energy Density
This is inevitable. and you are starting to see improvements in the fabrication of the battery packs to get more kWh into the space available.
In Wrightbus Presents Their First Battery-Electric Bus, I said this about the Forsee batteries used in the new buses from Wrightbus.
The Forsee brochure for the ZEN SLIM batteries gives an energy density of 166 Wh per Kg. This means that the weight of the 454 kWh battery is around 3.7 tonnes.
A one-tonne battery would have a capacity of 166 kWh.
- It is the highest value I’ve so far found.
- Technology is likely to improve.
- Other battery manufacturers will be striving to match it.
For these reasons, in the rest of this post, I will use this figure.
Some Example Locomotives
In this section, I shall look at some possible locomotives.
Conversion Of A Class 43 Power Car
There are two Class 43 power cars in each InterCity 125 train.
- The diesel engine is rated at 1678 kW.
- The transmission is fully electric.
- These days, they generally don’t haul more than five or six intermediate Mark 3 coaches.
I would see that the biggest problem in converting to battery power being providing the means to charge the batteries.
I suspect that these power cars would be converted to hydrogen, if they are converted to zero-carbon.
- I would estimate that there is space for hydrogen tanks and a small gas-turbine generator in the back of the power car.
- Much of the existing transmission could be retained.
- A zero-carbon power car would certainly fit their main use in Scotland and the South-West of England.
- I doubt hydrogen refuelling would be a problem.
They may even attract other operators to use the locomotives.
A Battery-Electric Locomotive Based on A Stadler Class 88 Locomotive
I am using this Class 88 locomotive as a starting point, as the locomotive is powerful, reliable and was built specifically for UK railways. There are also ten already in service in the UK.
In Thoughts On A Battery Electric Class 88 Locomotive On TransPennine Routes, I started the article like this.
In Issue 864 of Rail Magazine, there is an article, which is entitled Johnson Targets A Bi-Mode Future.
As someone, who has examined the mathematics of battery-powered trains for several years, I wonder if the Age of the Hybrid Battery/Electric Locomotive is closer than we think.
A Battery/Electric Class 88 Locomotive
After reading Dual Mode Delight (RM Issue 863), it would appear that a Class 88 locomotive is a powerful and reliable locomotive.
-
- It is a Bo-Bo locomotive with a weight of 86.1 tonnes and an axle load of 21.5 tonnes.
- It has a rating on electricity of 4,000 kW.
- It is a genuine 100 mph locomotive when working from 25 KVAC overhead electrification.
- The locomotive has regenerative braking, when working using electrification.
- It would appear the weight of the diesel engine is around seven tonnes
- The closely-related Class 68 locomotive has a 5,600 litre fuel tank and full of diesel would weight nearly five tonnes.
The locomotive would appear to be carrying between 7 and 12 tonnes of diesel-related gubbins.
Suppose that the diesel-related gubbins of the Class 88 locomotive were to be replaced with a ten tonne battery.
Using the Forsee figures, that I quoted earlier, this battery would hold 1660 kWh.
At the power level of the 700 kW of the Caterpillar C27 diesel engine in the Class 88 locomotive, that would give more than two hours power.
It looks to me, that a battery-electric Class 88 locomotive could be a very useful locomotive.
It might even be able to haul freight trains in and out of the Port of Felixstowe, which would be a big advantage in decarbonising the port.
Certainly, methods to charge battery trains on the move, are being developed like the system from Hitachi ABB Power Grids, that put up short sections of 25 KVAC overhead electrification, which would be driven by a containerised power system.
These systems and others like them, may enable some battery-electric freight trains to work routes like.
- Felixstowe and Ipswich.
- Ipswich and Peterborough
- Peterborough and Nuneaton.
- Peterborough and Doncaster via Lincoln
- Birmingham and Oxford
None of these routes are fully-electrified.
But because of the power limit imposed by the batteries, these locomotives will need to be recharged at points on the route.
This Google Map shows the Ipswich and Peterborough route crossing the Fen Line at Ely station.
Note.
- Ely Dock junction in the South-West corner, where the line from Ipswich and Bury St. Edmunds joins the lines through Ely.
- Ely station towards the North-East corner of the map.
- Passenger trains run through the station.
But freight trains can take a route on the Eastern side of the station, which is not electrified.
At Ely station, a loop like this can be electrified using the existing electrification power supply, but at other places, systems like that from Hitachi ABB Power Grids can be used to electrify the loop or an appropriate section of the route.
These short sections of electrification will allow the train to progress on either electric or battery power.
A Hydrogen-Electric Locomotive Based on A Stadler Class 88 Locomotive
In The Mathematics Of A Hydrogen-Powered Freight Locomotive, I looked at creating a hydrogen-powered locomotive from a Class 68 locomotive.
I decided it was totally feasible to use readily available technology from companies like Rolls-Royce and Cummins to create a powerful hydrogen-powered locomotive.
The Class 68 locomotive is the diesel-only cousin of the electro-diesel Class 88 locomotive and they share a lot of components including the body-shell, the bogies and the traction system.
I suspect Stadler could create a Class 88 locomotive with these characteristics.
- 4 MW using electric power
- At least 2.5 MW using hydrogen power.
- Hydrogen power could come from Rolls-Royce’s 2.5 MW generator based on a small gas-turbine engine.
- 100 mph on both electricity and hydrogen.
- It would have power output on hydrogen roughly equal to a Class 66 locomotive on diesel.
- It would have a range comparable to a Class 68 locomotive on diesel.
This locomotive would be a zero-carbon Class 66 locomotive replacement for all duties.
A Larger And More Powerful Hydrogen-Electric Locomotive
I feel that for the largest intermodal and stone trains, that a larger hydrogen-electric locomotive will be needed.
With the way Wabtec are going in the United States, I wouldn’t be surprised to see a suitable locomotive cross the pond.
Conclusion
In the title of this post, I asked if freight locomotives of the future would be battery, electric or hydrogen.
I am sure of one thing, which is that all freight locomotives must be able to use electrification and if possible, that means both 25 KVAC overhead and 750 VDC third rail. Electrification will only increase in the future, making it necessary for most if not all locomotives in the future to be able to use it.
I feel there will be both battery-electric and hydrogen-electric locomotives, with the battery-electric locomotives towards the less powerful end.
Hydrogen-electric will certainly dominate at the heavy end.
Using Hitachi ABB Power Grids Technology At Uckfield Station
This post describes how the ABB Power Grids technology could be used to allow battery-electric trains to run between London Bridge and Uckfield stations.
The London Bridge And Uckfield Route
The London Bridge And Uckfield route has these characteristics.
- It is forty-six miles long
- The Southern section between Heald Green junction and Uckfield station is 24.7 miles and is not electrified.
- A service takes approximately eighty minutes.
- Trains run at a frequency of one train per hour (tph)
- The route has been upgraded to be able to handle twelve car trains.
- The route is currently run by Class 171 diesel trains.
- Govia Thameslink Railway is the operator.
It looks to me if you assume a ten minute turnround, then that gives a three-hour round trip.
This would mean the following.
- Trains would have ten minutes charging time at Uckfield.
- If twelve car trains were running on the branch then nine four-car trains would be required for an hourly service.
- Two tph would require twice as many trains.
It looks to me, that Network Rail have arranged the route and the timetables for a fleet of battery-electric trains.
The Battery-Electric Trains
There have been several hints in the rail media, that battery-electric Bombardier Electrostars will be used for the London Bridge and Uckfield route.
I wrote Battery Electrostars And The Uckfield Branch in September 2019.
- In the related post I suggested Class 377, Class 379 or Class 387 trains.
- All are four-car Bombardier Electrostars.
- All are 100 or 110 mph trains.
- The Class 387 trains are already dual voltage, but I suspect all trains could be converted to third-rail or dual-voltage.
- My choice would be Class 379 trains, as they are being made redundant by Greater Anglia and thirty quality trains are looking for a new home.
But all three types would be acceptable and Govia Thameslink Railway has both of the other types in its extensive fleet.
Charging The Battery-Electric Trains
This picture shows the single twelve-car platform at Uckfield station.
There would appear to be plenty of space on the side away from the platform.
There would appear to be two main methods of charging the trains.
A Length Of 750 VDC Third-Rail Electrification On The Side Away From The Platform
- The electrification would be long enough to charge a twelve-car train.
- It could even be made very safe, if an interlock were to be provided, that ensured that the third-rail were only to be live, when a train was in the station that needed charging.
This would be possible, but I suspect the Anti-Third-Rail Electrification Mafia will get this simple method stopped.
A Length Of 25 KVAC Overhead Electrification Powered By One Of Hitachi ABB Power Grids Containised Power Systems
The electrification would be long enough to charge a twelve-car train.
The driver or an automated system would raise the pantographs after the train stopped in the station.
Interlocks could be provided to increase safety.
The overhead electrification would be powered by one or more of Hitachi ABB Power Grids’s containerised power systems
Lightweight catenary could be used to reduce visual intrusion.
The curved beam at the top of this overhead electrification gantry is laminated wood.
Because of the higher voltage used, I suspect that the Hitachi ABB Power Grids could charge a twelve-car train in under ten minutes.
Wiltshire’s Recycled Railway Sleepers A UK First
The title of this post, is the same as that of this article on the BBC.
This is the first paragraph.
Railway sleepers made of recycled bottles, food packaging and unwanted plastics have been installed on a mainline railway for the first time.
This paragraph describes their durability.
The new railway sleepers are designed to be used for 50 years as they do not split, rot or degrade, and can resist water, oil, chemicals and fungi.
The new sleepers would appear to be an advance on wood and concrete in certain applications.
Conclusion
This seems to be a good example of creative recycling.
Freightliner Secures Government Funding For Dual-Fuel Project
The title of this post, is the same as that of this press release from Freightliner.
This is the first two paragraphs.
Freightliner, a subsidiary of Genesee & Wyoming Inc. (G&W), in partnership with a consortium of specialist suppliers, has been successful in securing government funding to develop a dual-fuel solution for the Class 66 locomotive.
The technology is one of the 30 winners of the latest round of the First of a Kind (FOAK) competition announced today by the Transport Secretary. Already the safest and greenest mode of ground-freight transportation, the competition has been aimed at making the railways even cleaner, greener and more passenger friendly.
These are my thoughts.
A Big Opportunity
Freightliner have a total of 113 Class 66 locomotives, out of a UK total of well over 400.
If the project succeeds, this could cut a large amount of carbon emissions from UK rail freight.
Who Are The Partners?
The press release gives these project partners.
The key project partners are Freightliner, which operates over 113 Class-66s in the UK, and Clean Air Power, providers of innovative clean air solutions for freight. The project is also supported by Network Rail, Tarmac, Rail Safety Standards Board (RSSB), Flogas, Carrickarory and the University of Birmingham.
It is a comprehensive group of partners, which probably covers all aspects.
- From their web site, Clean Air Power would appear to have the expertise for the project, with back-up from the University of Birmingham, who seem to be involved in several high-profile rail projects.
- The early involvement of standards must be a good thing.
- Flogas are a gas company
- Carrickarory would appear to be consultants specialising in rail.
Getting the team right is important in having a successful project.
What Are The Objectives Of The Project?
The press release gives these project objectives.
The project will investigate the ability to substitute diesel with both hydrogen and biogas on the Class-66 locomotive which hauls over 80% of freight on the UK rail network and, in doing so, reduce carbon emissions on one of the industry’s most challenging two-stroke locomotives.
This will be achieved by retrofitting the Class 66 with Clean Air Power’s precision injection technology, creating a Class 66 that can run on a combination of diesel, biogas and hydrogen.
Sounds a good set of reduced carbon objectives!
Would The Technology Be Applicable To Other Operators And Locomotives?
The press release says this.
This sustainable solution will support a programme to decarbonise freight operating companies’ diesel fleets in a cost-efficient manner that does not require significant short-term investment and facilitates operational learning in support of a longer-term fleet replacement programme, potentially using 100% hydrogen fuel.
Does this mean that the eventual Class 66 replacement will be a locomotive, that runs exclusively on hydrogen?
I suspect it does!
How very sensible!
Conclusion
This could be a big step in the battle to decarbonise.















































































