The Anonymous Widower

My Current Thoughts On Electric Trains To Windermere

These are my current thoughts on electric trains to Windermere station.

Passengers And Battery-Electric Trains

I don’t think any reputable journalist interviewed passengers on either of the two battery electric services that have successfully run for longer than a couple of days.

Those that used British Rail’s Aberdeen and Ballater service in the 1950s, are probably thin on the ground, although I did meet an elderly lady, who’d regularly used it to go to school and she said the service was reliable.

She also said that the Queen Mother was an enthusiastic passenger.

I rode the Manningtree and Harwich battery electric train during its short trial.

But more significantly, since then I have met two passengers, who used it every day during the trial to commute.

Both would like to see the train return, as it seemed more reliable. I wonder, if like much of East Anglia’s overhead wires, the route suffers from the wind.

It does appear that providing a reliable service with battery electric trains is not a difficult problem.

Two Trains Per Hour To Windermere

In Passing Loop Hope For Windermere, I discuss a passing loop on the Windermere Branch Line to enable two trains per hour (tph) along the line.

The Treasury wouldn’t like this, as it would need twice the number of trains.

But hopefully, it would double the ticket revenue.

Battery-Electric Class 331 Trains

It has been some time now since in the March 2020 Edition of Modern Railways, that it was announced that CAF announced they were building a battery-electric version of the Class 331 train, which I wrote about in Northern’s Battery Plans.

Little has been heard of CAF’s progress since, although I did write Battery-Electric Class 331 Trains On The Radar, which was based on an article in the June 2021 Edition of Modern Railways, which is entitled Northern Looks To The Future.

Lack Of Progress On Battery And Hydrogen Train Projects

Is this typical of battery and hydrogen projects?

Southern’s project on the Uckfield Branch and to close the electrification gap between Ashford and Hastings has only been conspicuous by its absence. This project is important as it releases the Class 170 trains, so that EMR can fulfil franchise commitments.

The project to use hydrogen trains on Teesside has also progressed at a snail’s pace.

It is almost as if someone in the Department of Transport or more likely the Treasury, feels that the best thing to do is to carry on using diesel, as it’s the cheapest alternative.

I don’t think it is any politician, as their public statements seem to be very much in favour of decarbonisation.

Other Electric Trains In The Lake District

I also think, that if battery-electric trains were to be run to Windermere, that they would also run to Barrow-in-Furness. Am I right in thinking that the Furness Line is rather flat, so would be ideal for battery-electric trains?

But I do wonder, if Sellafield and Direct Rail Services are pushing for electrification, as it would surely help their operations, as they could use Class 88 locomotives to bring in the flasks for processing.

Also in Battery-Electric Class 331 Trains On The Radar, I did say this.

I feel it would be possible to electrify the Cumbrian Coast Line using battery-electric Class 331 trains, with a range of at least fifty miles and some short sections of new electrification.

Surely, a battery-electric train along the Cumbrian Coast by the Lake District would be the ideal train for the area.

I can certainly see a small fleet of battery-electric working services between Barrow-in-Furness, Carlisle, Carnforth, Manchester Airport, Sellafield, Whitehaven, Windermere and Workington.

November 30, 2021 Posted by | Transport/Travel | , , , , , , , , , , , , , , | 14 Comments

Alstom Hydrogen Aventras And The Uckfield Branch

In Alstom And Eversholt Rail Sign An Agreement For The UK’s First Ever Brand-New Hydrogen Train Fleet, I give my thoughts on Alstom’s new hydrogen train, which I have called the Alstom Hydrogen Aventra.

One possible route for the trains could be the Uckfield Branch, which has an hourly service from London Bridge via East Croydon and Oxted stations?

  • The route is forty-six miles long, with the Northernmost twenty-one miles electrified with 750 VDC third-rail electrification.
  • On each trip, the train would need to run for fifty miles without electrification.
  • There are seven stops on the route.
  • The platforms on the Uckfield Branch can handle a 240 metre train.
  • Trains take around three hours for the round trip.
  • Each train probably does around five round trips per day.

So would Alstom Hydrogen Aventras be able to work the route?

  • The length of a three-car Alstom Hydrogen Aventra is probably around 72 metres.
  • Three Alstom Hydrogen Aventras working together would be 216 metres.
  • Aventras can be configured to work on 750 VDC third rail electrification.
  • The capacity of a nine-car formation of Alstom Hydrogen Aventra would be similar to that of a ten-car Electrostar, which has shorter cars.

Three Alstom Hydrogen Aventra trains working together could seem to be a possible solution for the route.

These are my thoughts.

The Required Range

If each train has to do five round trips, with each needing fifty miles on hydrogen, the trains would need a range in excess of 250 miles, whilst running on hydrogen.

Refuelling With Hydrogen

This would probably be done at a depot setup to service the hydrogen trains, where they would be stabled at night.

I doubt that London Bridge or Uckfield stations would be suitable places to refuel

The Number Of Trains

In Battery Electrostars And The Uckfield Branch, I estimated that three ten- or twelve-car trains would be needed to run an hourly service. Running half-hourly would need six trains.

As each nine-car train would need three Alstom Hydrogen Aventras, an hourly service would need a total of nine and a half-hourly service would need eighteen individual trains.

I suspect that this would not be a cost effective way of using the trains, as a lot of trains would need to refuelled every day.

Conclusion

I am not saying that Alstom Hydrogen Aventras couldn’t work the Uckfield Branch, but I’m sure there are are better ways to decarbonise the route.

November 12, 2021 Posted by | Hydrogen | , , , , , | 9 Comments

What Will Happen To The Eighty-Seven Class 350 Trains

At the current time, West Midlands Trains have a fleet of eighty-seven Class 350 trains.

  • The trains are being replaced by new Class 730 trains.
  • They are of different specifications.
  • The interiors vary, but there are a lot of tables.
  • All are four-car sets.
  • They are 110 mph trains.
  • Thirty of the trains are dual-voltage.
  • Fifty are owned by Angel Trains.
  • Thirty-seven are owned by Porterbrook, who have looked at converting the trains to battery-electric operation.
  • They are a bit of a dog’s breakfast, although they are excellent trains.
  • The future of the trains is rather uncertain and even Porterbrook’s plans have gone rather quiet.

So perhaps a big dog ought to round up all these trains and turn them into something more useful.

Consider.

  • All the trains were built in this century by Siemens in Germany.
  • Siemens service the Class 350 trains at Kings Heath Depot in Northampton.
  • Siemens have recently opened a factory in Goole to make new trains for the London Underground.
  • Siemens are developing the Mireo Plus B, which is a battery-electric multiple unit in Germany.

Siemens must have the knowledge and experience to turn these trains into a quality fleet of battery-electric trains.

  • Thirty would be dual-voltage and fifty-seven would be 25 KVAC overhead only.
  • All would be 110 mph trains.
  • I doubt there would be many places on the UK rail network, where they couldn’t run.

All appear to be in excellent condition, as these pictures show.

I very much feel, that these fleets could be converted into a quality fleet of very useful battery-electric trains.

Charging The Batteries

Most of the charging would be done from existing electrification, but as all trains have pantographs, they could use specially-erected short lengths of 25 KVAC overhead wires or charging systems like the Furrer + Frey Voltap system.

Possible Routes

I will start with the dual-voltage trains.

  • Uckfield Branch, where a charger would be needed at Uckfield station.
  • Marshlink Line
  • Basingstoke and Exeter, where chargers would be needed at Salisbury and Exeter and possibly Yeovil Junction.

I feel with 25 KVAC overhead applications, we will soon run out of trains.

 

 

October 19, 2021 Posted by | Transport/Travel | , , , , , , , | 5 Comments

Battery Train Fast Charging Station Tested

The title of this post, is the same as that of this article on Railway Gazette.

This is the first paragraph.

A prototype Voltap rapid charging station for battery trains has been tested under real-world conditions for the first time.

The Voltap system is from Furrer + Frey and this is the data sheet on their web site, which is entitled Voltap Charging Station For Battery Trains.

Looking at the pictures in the article, the system seems to consist of two components.

  • An overhead conductor rail suspended from pantries on the platform.
  • A container that contains all the power supplies and control systems.

It certainly looks to be a simple system to install and operate.

  • Charging would appear to take place through the pantograph, with no cables to handle.
  • It is claimed to be able to charge a train in an extremely short time.
  • The system is designed for areas, where the electricity network is perhaps a bit weaker.
  • It is available in 15 KVAC and 25 KVAC.
  • The system is future-proofed.

I can see these being suitable for several stations in the UK.

Norfolk And Suffolk

As an example, it looks like all the branch lines in Norfolk and Suffolk could be made suitable for battery-electric trains with Voltap systems at Cromer, Felixstowe, Lowestoft, Sheringham, Sudbury and Yarmouth.

Note.

  1. The Class 755 trains would be converted to battery-electric trains.
  2. Some stations would need more than one platform to have a charger.
  3. There may be other chargers to ensure that services like Norwich and Stansted Airport could be run electrically.

These pictures show Class 755 trains in various East Anglian stations.

Felixstowe and some other stations may need a slightly different installation due to the narrow platforms, but I’m sure Furrer + Frey have installations for all platforms.

I think Great British Railways are going to need a lot of these chargers and the battery-electric trains to go with them.

The Uckfield Branch

The Uckfield Branch probably needs to have some form of charging at Uckfield station.

The picture shows the single long platform at Uckfield station.

Consider.

  • Trains to work the branch will need to be able to use third-rail electrification between London Bridge station and Hurst Green junction.
  • Hurst Green junction to Uckfield station and back is probably too far for a battery-electric train, so charging will be needed at Uckfield station.
  • Third-rail charging could be used, but I suspect that Health and Safety will say no!

But using a dual-voltage train and a Voltap system at Uckfield station would probably be ideal.

Middlesbrough

From December the 13th, LNER will be running a new daily service between Middlesbrough and London, which I described in LNER’s Middlesbrough And London Service Starts On December 13th.

The route is fully electrified except for between Middlesbrough and Longlands Junction, where it joins the electrification of the East Coast Main Line, which is a distance of twenty-two miles.

Hitachi are developing a battery-train, which they call the Hitachi Intercity Tri-Mode Battery Train, which is described in this Hitachi infographic.

Note.

  1. LNER’s current Class 800 trains will probably be able to be converted to this train.
  2. Normally, these trains have three diesel generators.
  3. A range on battery power of upwards of forty miles would be expected.

If the range on battery-power can be stretched to perhaps sixty miles, this train should be capable of serving Middlesbrough without the need for any extra charging at the terminus.

I have just looked at the planned path of the first train on December 13th.

  • The train comes from Heaton depot in Newcastle via Sunderland and Hartlepool.
  • It passes through Middlesbrough station.
  • It then reverses amongst the chemical and steel works to the East, before returning to Middlesbrough station.

Once back at Middlesbrough station, it waits for eight minutes before leaving for London.

It looks to me to be a safe route, to make sure that the train leaves on time. It also only occupies the platform at Middlesbrough station for less than ten minutes.

But it would also be possible to find space amongst the chemical and steel works to find space for a well-designed reversing siding with refuelling for the diesel-electric trains or a Voltap charging system for a battery-electric train.

Lincoln

I have been looking at the pattern of LNER’s London and Lincoln service today.

  • There have been six trains per day (tpd) in both directions.
  • Trains going North take up to seven minutes to unload passengers at Lincoln station before moving on to Lincoln Terrace C. H. S., which I would assume is a convenient reversing siding.
  • Trains going South wait up to thirty-forty minutes at Lincoln station after arriving from Lincoln Terrace C. H. S., before leaving for Kings Cross.

It looks to me, that if London and Lincoln were to be run by a Hitachi Intercity Tri-Mode Battery Train, that the timings would be ideal for charging the batteries on the train in either the reversing siding or the station.

But surely, the charging system in the station would allow extension of the service to Grimsby and Cleethorpes, which has been stated as being part of LNER’s plans.

This picture shows Lincoln station.

I suspect that Swiss ingenuity could fit a Voltap charging system in the station.

These are a few distances from Lincoln station.

  • Cleethorpes – 47.2 miles
  • Doncaster – 35.4 miles
  • Newark North Gate – 16.6 miles
  • Peterborough – 56.9 miles

How many of these destinations could be reached by a battery-electric train, that had been fully-charged at Lincoln station.

 

 

October 18, 2021 Posted by | Energy, Transport/Travel | , , , , , , , , , | 15 Comments

Eridge Station – 12th July 2021

It’s been over a year, since I went to Eridge station, so I thought I’d go again.

Note.

  1. The station seems to have moved on.
  2. The steps have had a makeover.
  3. It appears that some painting has been done.
  4. All Southern trains call in Platform 1, which is in the Western side of the tracks.

A lift will be installed on that side, with a slope on the heritage line side.

I’m fairly certain if they get the marketing right, families will pay to go to Eridge station for a day on the Spa Heritage Railway.

 

 

 

 

July 12, 2021 Posted by | Transport/Travel | , , | Leave a comment

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.

 

July 9, 2021 Posted by | Transport/Travel | , , , , , , , , | Leave a comment

Solving The Electrification Conundrum

The title of this post, is the same as an article in the July 2021 Edition of Modern Railways.

This is the introductory sub-heading.

Regional and rural railways poses a huge problem for the railway to decarbonise.

Lorna McDonald of Hitachi Rail and Jay Mehta of Hitachi ABB Power Grids tell Andy Roden why they believe they have the answer.

These are my thoughts on what is said.

Battery-Electric Trains

The article starts by giving a review of battery-electric trains and their use on routes of moderate but important length.

  • Some short routes can be handled with just a charge on an electrified main line.
  • Some will need a recharge at the termini.
  • Other routes might need a recharge at some intermediate stations, with a possible increase in dwell times.

It was in February 2015, that I wrote Is The Battery Electric Multiple Unit (BEMU) A Big Innovation In Train Design?, after a ride in public service on Bombardier’s test battery-electric train based on a Class 379 train.

I also wrote this in the related post.

Returning from Harwich, I travelled with the train’s on-board test engineer, who was monitoring the train performance in battery mode on a laptop. He told me that acceleration in this mode was the same as a standard train, that the range was up to sixty miles and that only minimal instruction was needed to convert a driver familiar to the Class 379 to this battery variant.

It was an impressive demonstration, of how a full-size train could be run in normal service without connection to a power supply. I also suspect that the partners in the project must be very confident about the train and its technology to allow paying passengers to travel on their only test train.

A couple of years later, I met a lady on another train, who’d used the test train virtually every day during the trial and she and her fellow travellers felt that it was as good if not better than the normal service from a Class 360 train or a Class 321 train.

So why if the engineering, customer acceptance and reliability were proven six years ago, do we not have several battery electric trains in service?

  • There is a proven need for battery-electric trains on the Marshlink Line and the Uckfield Branch in Sussex.
  • The current Class 171 trains are needed elsewhere, so why are no plans in place for replacement trains?
  • The government is pushing electric cars and buses, but why is there such little political support for battery-electric trains?

It’s almost as if, an important civil servant in the decision process has the naive belief that battery-electric trains won’t work and if they do, they will be phenomenally expensive. So the answer is an inevitable no!

Only in the South Wales Metro, are battery-electric trains considered to be part of the solution to create a more efficient and affordable electric railway.

But as I have constantly pointed out since February 2015 in this blog, battery-electric trains should be one of the innovations we use to build a better railway.

Hydrogen Powered Trains

The article says this about hydrogen powered trains.

Hybrid hydrogen fuel cells can potentially solve the range problem, but at the cost of the fuel eating up internal capacity that would ideally be used for passengers. (and as Industry and Technology Editor Roger Ford points out, at present hydrogen is a rather dirty fuel). By contrast, there is no loss of seating or capacity in a Hitachi battery train.

I suspect the article is referring to the Alstom train, which is based on the technology of the Alstom Coradia iLint.

I have ridden this train.

  • It works reliably.
  • It runs on a 100 km route.
  • The route is partially electrified, but the train doesn’t have a pantograph.
  • It has a very noisy mechanical transmission.

Having spoken to passengers at length, no-one seemed bothered by the Hindenburg possibilities.

It is certainly doing some things right, as nearly fifty trains have been ordered for train operating companies in Germany.

Alstom’s train for the UK is the Class 600 train, which will be converted from a four-car Class 321 train.

Note.

  1. Half of both driver cars is taken up by a hydrogen tank.
  2. Trains will be three-cars.
  3. Trains will be able to carry as many passengers as a two-car Class 156 train.

It is an inefficient design that can be improved upon.

Porterbrook and Birmingham University appear to have done that with their Class 799 train.

  • It can use 25 KVAC overhead or 750 VDC third-rail electrification.
  • The hydrogen tanks, fuel cell and other hydrogen gubbins are under the floor.

This picture from Network Rail shows how the train will appear at COP26 in Glasgow in November.

Now that’s what I call a train! Let alone a hydrogen train!

Without doubt, Porterbrook and their academic friends in Birmingham will be laying down a strong marker for hydrogen at COP26!

I know my hydrogen, as my first job on leaving Liverpool University with my Control Engineering degree in 1968 was for ICI at Runcorn, where I worked in a plant that electrolysed brine into hydrogen, sodium hydroxide and chlorine.

My life went full circle last week, when I rode this hydrogen powered bus in London.

The hydrogen is currently supplied from the same chemical works in Runcorn, where I worked. But plans have been made at Runcorn, to produce the hydrogen from renewable energy, which would make the hydrogen as green hydrogen of the highest standard. So sorry Roger, but totally carbon-free hydrogen is available.

The bus is a Wightbus Hydroliner FCEV and this page on the Wrightbus web site gives the specification. The specification also gives a series of cutaway drawings, which show how they fit 86 passengers, all the hydrogen gubbins and a driver into a standard size double-deck bus.

I believe that Alstom’s current proposal is not a viable design, but I wouldn’t say that about the Porterbrook/Birmingham University design.

Any Alternative To Full Electrification Must Meet Operator And Customer Expectations

This is a paragraph from the article.

It’s essential that an alternative traction solution offers the same levels of performance and frequency, while providing an increase in capacity and being economically viable.

In performance, I would include reliability. As the on-board engineer indicated on the Bombardier  test train on the Harwich branch, overhead electrification is not totally reliable, when there are winds and/or criminals about.

Easy Wins

Hitachi’s five-car Class 800 trains and Class 802 trains each have three diesel engines and run the following short routes.

  • Kings Cross and Middlesbrough- 21 miles not electrified – Changeover in Northallerton station
  • Kings Cross and Lincoln – 16.6 miles not electrified – Changeover in Newark Northgate station
  • Paddington and Bedwyn – 13.3 miles not electrified – Changeover in Newbury station
  • Paddington and Oxford – 10.3 miles not electrified – Changeover in Didcot Parkway station

Some of these routes could surely be run with a train, where one diesel engine was replaced by a battery-pack.

As I’m someone, who was designing, building and testing plug-compatible transistorised electronics in the 1960s to replace  older valve-based equipment in a heavy engineering factory, I suspect that creating a plug-compatible battery-pack that does what a diesel engine does in terms of power and performance is not impossible.

What would be the reaction to passengers, once they had been told, they had run all the way to or from London without using any diesel?

Hopefully, they’d come again and tell their friends, which is what a train operator wants and needs.

Solving The Electrification Conundrum

This section is from the article.

Where electrification isn’t likely to be a viable proposition, this presents a real conundrum to train operators and rolling stock leasing companies.

This is why Hitachi Rail and Hitachi ABB Power Grids are joining together to present a combined battery train and charging solution to solve this conundrum. In 2020, Hitachi and ABB’s Power Grids business, came together in a joint venture, and an early outcome of this is confidence that bringing together their expertise in rail, power and grid management, they can work together to make electrification simpler cheaper and quicker.

I agree strongly with the second paragraph, as several times, I’ve been the mathematician and simulation expert in a large multi-disciplinary engineering project, that went on to be very successful.

The Heart Of The Proposition

This is a paragraph from the article.

The proposition is conceptually simple. Rather than have extended dwell times at stations for battery-powered trains, why not have a short stretch of 25 KVAC overhead catenary (the exact length will depend on the types of train and the route) which can charge trains at linespeed on the move via a conventional pantograph?

The article also mentions ABB’s related expertise.

  • Charging buses all over Europe.
  • Creating the power grid for the Great Western Electrification to Cardiff.

I like the concept, but then it’s very similar to what I wrote in The Concept Of Electrification Islands in April 2020.

But as they are electrical power engineers and I’m not, they’d know how to create the system.

Collaboration With Hyperdrive Innovation

The article has nothing negative to say about the the collaboration with Hyperdrive Innovation to produce the battery-packs.

Route Modelling

Hitachi appear to have developed a sophisticated route modelling system, so that routes and charging positions can be planned.

I would be very surprised if they hadn’t developed such a system.

Modular And Scalable

This is a paragraph from the article.

In the heart of the system is a containerised modular solution containing everything needed to power a stretch of overhead catenary to charge trains. A three-car battery train might need one of these, but the great advantage is that it is scalable to capacity and speed requirements.

This all sounds very sensible and can surely cope with a variety of lines and traffic levels.

It also has the great advantage , that if a line is eventually electrified, the equipment can be moved on to another line.

Financing Trains And Chargers

The article talks about the flexibility of the system from an operator’s point of view with respect to finance.

I’ve had some good mentors in the area of finance and I know innovative finance contributed to the success of Metier Management Systems, the project management company I started with three others in 1977.

After selling Metier, I formed an innovative finance company, which would certainly have liked the proposition put forward in the article.

No Compromise, Little Risk

I would agree with this heading of the penultimate section of the article.

In February 2015, when I rode that Class 379 train between Manningtree and Harwich, no compromise had been made by Bombardier and it charged in the electrified bay platform at Manningtree.

But why was that train not put through an extensive route-proving exercise in the UK after the successful trial at Manningtree?

  • Was it the financial state of Bombardier?
  • Was it a lack of belief on the part of politicians, who were too preoccupied with Brexit?
  • Was it that an unnamed civil servant didn’t like the concept and stopped the project?

Whatever the reason, we have wasted several years in getting electric trains accepted on UK railways.

If no compromise needs to be made to create a battery-electric train, that is equivalent to the best-in-class diesel or electric multiple units, then what about the risk?

The beauty of Hitachi’s battery-electric train project is that it can be done in phases designed to minimise risk.

Phase 1 – Initial Battery Testing 

Obviously, there will be a lot of bench testing in a laboratory.

But I also believe that if the Class 803 trains are fitted with a similar battery from Hyperdrive Innovation, then this small fleet of five trains can be used to test a lot of the functionality of the batteries initially in a test environment and later in a real service environment.

The picture shows a Class 803 train under test through Oakleigh Park station.

This phase would be very low risk, especially where passengers are concerned.

Phase 2 – Battery Traction Testing And Route Proving

I am a devious bastard, when it comes to software development. The next set of features would always be available for me to test earlier, than anybody else knew.

I doubt that the engineers at Hyperdrive Innovation will be any different.

So I wouldn’t be surprised to find out that the batteries in the Class 803 trains can also be used for traction, if you have the right authority.

We might even see Class 803 trains turning up in some unusual places to test the traction abilities of the batteries.

As East Coast Trains, Great Western Railway and Hull Trains are all First Group companies, I can’t see any problems.

I’m also sure that Hitachi could convert some Class 800 or Class 802 trains and add these to the test fleet, if East Coast Trains need their Class 803 trains to start service.

This phase would be very low risk, especially where passengers are concerned.

Possibly, the worse thing, that could happen would be a battery failure, which would need the train to be rescued.

Phase 3 – Service Testing On Short Routes

As I indicated earlier, there are some easy routes between London and places like Bedwyn, Lincoln, Middlesbrough and Oxford, that should be possible with a Class 800 or Class 802 train fitted with the appropriate number of batteries.

Once the trains have shown, the required level of performance and reliability, I can see converted Class 800, 801 and Class 802 trains entering services on these and other routes.

Another low risk phase, although passengers are involved, but they are probably subject to the same risks, as on an unmodified train.

Various combinations of diesel generators and batteries could be used to find out, what is the optimum combination for the typical diagrams that train operators use.

Hitachi didn’t commit to any dates, but I can see battery-electric trains running on the Great Western Railway earlier than anybody thinks.

Phase 4 – Service Testing On Medium Routes With A Terminal Charger System

It is my view that the ideal test route for battery-electric trains with a terminal charger system would be the Hull Trains service between London Kings Cross and Hull and Beverley.

The route is effectively in three sections.

  • London Kings Cross and Temple Hirst junction – 169.2 miles – Full Electrification
  • Temple Hirst junction and Hull station – 36.1 miles – No Electrification
  • Hull station and Beverley station – 8.3 miles – No Electrification

Two things would be needed to run zero-carbon electric trains on this route.

  • Sufficient battery capacity in Hull Trains’s Class 802 trains to reliably handle the 36.1 miles between Temple Hirst junction and Hull station.
  • A charging system in Hull station.

As Hull station also handles other Class 800 and Class 802 trains, there will probably be a need to put a charging system in more than one platform.

Note.

  1. Hull station has plenty of space.
  2. No other infrastructure work would be needed.
  3. There is a large bus interchange next door, so I suspect the power supply to Hull station is good.

Hull would be a very good first destination for a battery-electric InterCity train.

Others would include Bristol, Cheltenham, Chester, Scarborough, Sunderland and Swansea.

The risk would be very low, if the trains still had some diesel generator capacity.

Phase 5 – Service Testing On Long Routes With Multiple Charger Systems

Once the performance and reliability of the charger systems have been proven in single installations like perhaps Hull and Swansea stations, longer routes can be prepared for electric trains.

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%.

The press release talks about Penzance and London, so would that be a suitable route for discontinuous electrification using multiple chargers?

These are the distances between major points on the route between Penzance and London Paddington.

  • Penzance and Truro – 35.8 miles
  • Truro and Bodmin Parkway – 26.8 miles
  • Bodmin Parkway and Plymouth – 26.9 miles
  • Plymouth and Newton Abbot – 31,9 miles
  • Newton Abbot and Exeter – 20.2 miles
  • Exeter and Taunton – 30.8 miles
  • Taunton and Westbury – 47.2 miles
  • Westbury and Newbury – 42.5 miles
  • Newbury and Paddington – 53 miles

Note.

  1. Only Newbury and Paddington is electrified.
  2. Trains generally stop at Plymouth, Newton Abbott, Exeter and Taunton.
  3. Services between Paddington and Exeter, Okehampton, Paignton, Penzance, Plymouth and Torquay wouldn’t use diesel.
  4. Okehampton would be served by a reverse at Exeter.
  5. As Paignton is just 8.1 miles from Newton Abbot, it probably wouldn’t need a charger.
  6. Bodmin is another possible destination, as Great Western Railway have helped to finance a new platform at Bodmin General station.

It would certainly be good marketing to run zero-carbon electric trains to Devon and Cornwall.

I would class this route as medium risk, but with a high reward for the operator.

In this brief analysis, it does look that Hitachi’s proposed system is of a lower risk.

A Few Questions

I do have a few questions.

Are The Class 803 Trains Fitted With Hyperdrive Innovation Batteries?

East Coast Trains‘s new Class 803 trains are undergoing testing between London Kings Cross and Edinburgh and they can be picked up on Real Time Trains.

Wikipedia says this about the traction system for the trains.

While sharing a bodyshell with the previous UK A-train variants, the Class 803 differs in that it has no diesel engines fitted. They will however be fitted with batteries to enable the train’s on-board services to be maintained, in case the primary electrical supplies have failed.

Will these emergency batteries be made by Hyperdrive Innovation?

My experience of similar systems in other industries, points me to the conclusion, that all Class 80x trains can be fitted with similar, if not identical batteries.

This would give the big advantage of allowing battery testing to be performed on Class 803 trains under test, up and down the East Coast Main Line.

Nothing finds faults in the design and manufacture of something used in transport, than to run it up and down in real conditions.

Failure of the catenary can be simulated to check out emergency modes.

Can A Class 801 Train Be Converted Into A Class 803 Train?

If I’d designed the trains, this conversion would be possible.

Currently, the electric Class 801 trains have a single diesel generator. This is said in the Wikipedia entry for the Class 800 train about the Class 801 train.

These provide emergency power for limited traction and auxiliaries if the power supply from the overhead line fails.

So it looks like the difference between the powertrain of a Class 801 train and a Class 803 train, is that the Class 801 train has a diesel generator and the Class 803 train has batteries. But the diesel generator and batteries, would appear to serve the same purpose.

Surely removing diesel from a Class 801 train would ease the maintenance of the train!

Will The System Work With Third-Rail Electrification?

There are three routes that if they were electrified would probably be electrified with 750 DC third-rail electrification, as they have this electrification at one or both ends.

  • Basingstoke and Exeter
  • Marshlink Line
  • Uckfield branch

Note.

  1. Basingstoke and Exeter would need a couple of charging systems.
  2. The Marshlink line would need a charging system at Rye station.
  3. The Uckfield branch would need a charging system at Uckfield station.

I am fairly certain as an Electrical Engineer, that the third-rails would only need to be switched on, when a train is connected and needs a charge.

I also feel that on some scenic and other routes, 750 VDC third-rail electrification may be more acceptable , than 25 KVAC  overhead electrification. For example, would the heritage lobby accept overhead wires through a World Heritage Site or on top of a Grade I Listed viaduct?

I do feel that the ability to use third-rail 750 VDC third-rail electrification strategically could be a useful tool in the system.

Will The System Work With Lightweight Catenary?

I like the design of this 25 KVAC overhead electrification, that uses lightweight gantries, which use laminated wood for the overhead structure.

There is also a video.

Electrification doesn’t have to be ugly and out-of-character with the surroundings.

Isuspect that both systems could work together.

 

Would Less Bridges Need To Be Rebuilt For Electrification?

This is always a contentious issue with electrification, as rebuilding bridges causes disruption to both rail and road.

I do wonder though by the use of careful design, that it might be possible to arrange that the sections of electrification and the contentious bridges were kept apart, with the bridges arranged to be in sections, where the trains ran on batteries.

I suspect that over the years as surveyors and engineers get more experienced, better techniques will evolve to satisfy all parties.

Get this right and it could reduce the cost of electrification on some lines, that will be difficult to electrify.

How Secure Are The Containerised Systems?

Consider.

  • I was delayed in East Anglia two years ago, because someone stole the overhead wires at two in the morning.
  • Apparently, overhead wire stealing is getting increasingly common in France and other parts of Europe.

I suspect the containerised systems will need to be more secure than those used for buses, which are not in isolated locations.

Will The Containerised Charging Systems Use Energy Storage?

Consider.

  • I’ve lived in rural locations and the power grids are not as good as in urban areas.
  • Increasingly, batteries of one sort or another are being installed in rural locations to beef up local power supplies.
  • A new generation of small-footprint eco-friendly energy storage systems are being developed.

In some locations, it might be prudent for a containerised charging system to share a battery with the local area.

Will The Containerised Charging Systems Accept Electricity From Local Sources Like Solar Farms?

I ask the question, as I know at least one place on the UK network, where a line without electrification runs through a succession of solar farms.

I also know of an area, where a locally-owned co-operative is planning a solar farm, which they propose would be used to power the local main line.

Will The System Work With Class 385 Trains?

Hitachi’s Class 385 trains are closely related to the Class 80x trains, as they are all members of Hitachi’s A-Train family.

Will the Charging Systems Charge Other Manufacturers Trains?

CAF and Stadler are both proposing to introduce battery-electric trains in the UK.

I also suspect that the new breed of electric parcel trains will include a battery electric variant.

As these trains will be able to use 25 KVAC overhead electrification, I would expect, that they would be able to charge their batteries on the Hitachi ABB  charging systems.

Will The System Work With Freight Trains?

I believe that freight services will split into two.

Heavy freight will probably use powerful hydrogen-electric locomotives.

In Freightliner Secures Government Funding For Dual-Fuel Project, which is based on a Freightliner press release, I detail Freightliner’s decarbonisation strategy, which indicates that in the future they will use hydrogen-powered locomotives.

But not all freight is long and extremely heavy and I believe that a battery-electric freight locomotive will emerge for lighter duties.

There is no reason it could not be designed to be compatible with Hitachi’s charging system.

In Is This The Shape Of Freight To Come?, I talked about the plans for 100 mph parcel services based on redundant electric multiple units. Eversholt Rail Group have said they want a Last-Mile capability for their version of these trains.

Perhaps they need a battery-electric capability, so they can deliver parcels and shop supplies to the remoter parts of these islands?

Where Could Hitachi’s System Be Deployed?

This is the final paragraph from the article.

Hitachi is not committing to any routes yet, but a glance at the railway map shows clear potential for the battery/OLE-technology to be deployed on relatively lightly used rural and regional routes where it will be hard to make a case for electrification. The Cambrian Coast and Central Wales Lines would appear to be worthy candidates, and in Scotland, the West Highland Line and Far North routes are also logical areas for the system to be deployed.

In England, while shorter branch lines could simply be operated by battery trains, longer routes need an alternative. Network Rail’s Traction Decarbonisation Network Strategy interim business case recommends hydrogen trains for branch lines in Norfolk, as well as Par to Newquay and Exeter to Barnstaple. However, it is also entirely feasible to use the system on routes likely to be electrified much later in the programme, such as the Great Western main line West of Exeter, Swansea to Fishguard and parts of the Cumbrian Coast Line.

Everyone is entitled to their own opinion and mine would be driven by high collateral benefits and practicality.

These are my thoughts.

Long Rural Lines

The Cambrian, Central Wales (Heart Of Wales), Far North and West Highland Lines may not be connected to each other, but they form a group of rail routes with a lot of shared characteristics.

  • All are rural routes of between 100 and 200 miles.
  • All are mainly single track.
  • They carry occasional freight trains.
  • They carry quite a few tourists, who are there to sample, view or explore the countryside.
  • All trains are diesel.
  • Scotrail have been experimenting with attaching Class 153 trains to the trains on the West Highland Line to act as lounge cars and cycle storage.

Perhaps we need a long-distance rural train with the following characteristics.

  • Four or possibly five cars
  • Battery-electric power
  • Space for a dozen cycles
  • A lounge car
  • Space for a snack trolley
  • Space to provide a parcels service to remote locations.

I should also say, that I’ve used trains on routes in countries like Germany, Poland and Slovenia, where a similar train requirement exists.

Norfolk Branch Lines

Consider.

  • North of the Cambridge and Ipswich, the passenger services on the branch lines and the important commuter routes between Cambridge and Norwich and Ipswich are run by Stadler Class 755 trains, which are designed to be converted to battery-electric trains.
  • Using Hitachi chargers at Beccles, Bury St. Edmunds, Lowestoft, Thetford and Yarmouth and the existing electrification, battery-electric Class 755 trains could provide a zero-carbon train service for Norfolk and Suffolk.
  • With chargers at Dereham and March, two important new branch lines could be added and the Ipswich and Peterborough service could go hourly and zero carbon.
  • Greater Anglia have plans to use the Class 755 trains to run a London and Lowestoft service.
  • Could they be planning a London and Norwich service via Cambridge?
  • Would battery-electric trains running services over Norfolk bring in more visitors by train?

Hitachi may sell a few chargers to Greater Anglia, but I feel they have enough battery-electric trains.

Par And Newquay

The Par and Newquay Line or the Atlantic Coast Line, has been put forward as a Beeching Reversal project, which I wrote about in Beeching Reversal – Transforming The Newquay Line.

In that related post, I said the line needed the following.

  • An improved track layout.
  • An hourly service.
  • An improved Par station.
  • A rebuilt Newquay station with a second platform, so that more through trains can be run.

I do wonder, if after the line were to be improved, that a new three-car battery-electric train shuttling between Par and Newquay stations could be the icing on the cake.

Exeter And Barnstaple

The Tarka Line between Exeter and Barnstaple is one of several local and main lines radiating from Exeter St. David’s station.

  • The Avocet Line to Exmouth
  • The Great Western Main Line to Taunton, Bristol and London
  • The Great Western Main Line to Newton Abbott, Plymouth and Penzance
  • The Riviera Line to Paignton
  • The West of England Line to Salisbury, Basingstoke and London.

Note.

  1. The Dartmoor Line to Okehampton is under development.
  2. Several new stations are planned on the routes.
  3. I have already stated that Exeter could host a charging station between London and Penzance, but it could also be an electrified hub for battery-electric trains running hither and thither.

Exeter could be a city with a battery-electric metro.

Exeter And Penzance

Earlier, I said that I’d trial multiple chargers between Paddington and Penzance to prove the concept worked.

I said this.

I would class this route as medium risk, but with a high reward for the operator.

But it is also an enabling route, as it would enable the following battery-electric services.

  • London and Bodmin
  • London and Okehampton
  • London and Paignton and Torquay

It would also enable the Exeter battery-electric metro.

For these reasons, this route should be electrified using Hitachi’s discontinuous electrification.

Swansea And Fishguard

I mentioned Swansea earlier, as a station, that could be fitted with a charging system, as this would allow battery-electric trains between Paddington and Swansea via Cardiff.

Just as with Exeter, there must be scope at Swansea to add a small number of charging systems to develop a battery-electric metro based on Swansea.

Cumbrian Coast Line

This is a line that needs improvement, mainly for the tourists and employment it could and probably will bring.

These are a few distances.

  • West Coast Main Line (Carnforth) and Barrow-in-Furness – 28.1 miles
  • Barrow-in-Furness and Sellafield – 25 miles
  • Sellafield and Workington – 18 miles
  • Workington and West Coast Main Line (Carlisle) – 33 miles

Note.

  1. The West Coast Main Line is fully-electrified.
  2. I suspect that Barrow-in-Furness, Sellafield and Workington have good enough electricity supplies to support charging systems  for the Cumbrian Coast Line.
  3. The more scenic parts of the line would be left without wires.

It certainly is a line, where a good case for running battery-electric trains can be made.

Crewe And Holyhead

In High-Speed Low-Carbon Transport Between Great Britain And Ireland, I looked at zero-carbon travel between the Great Britain and Ireland.

One of the fastest routes would be a Class 805 train between Euston and Holyhead and then a fast catamaran to either Dublin or a suitable rail-connected port in the North.

  • The Class 805 trains could be made battery-electric.
  • The trains could run between Euston and Crewe at speeds of up to 140 mph under digital signalling.
  • Charging systems would probably be needed at Chester, Llandudno Junction and Holyhead.
  • The North Wales Coast Line looks to my untrained eyes, that it could support at least some 100 mph running.

I believe that a time of under three hours could be regularly achieved between London Euston and Holyhead.

Battery-electric trains on this route, would deliver the following benefits.

  • A fast low-carbon route from Birmingham, London and Manchester to the island of Ireland. if coupled with the latest fast catamarans at Holyhead.
  • Substantial reductions in journey times to and from Anglesey and the North-West corner of Wales.
  • Chester could become a hub for battery-electric trains to and from Birmingham, Crewe, Liverpool, Manchester and Shrewsbury.
  • Battery-electric trains could be used on the Conwy Valley Line.
  • It might even be possible to connect the various railways, heritage railways and tourist attractions in the area with zero-carbon shuttle buses.
  • Opening up of the disused railway across Anglesey.

The economics of this corner of Wales could be transformed.

My Priority Routes

To finish this section, I will list my preferred routes for this method of discontinuous electrification.

  • Exeter and Penzance
  • Swansea and Fishguard
  • Crewe and Holyhead

Note.

  1. Some of the trains needed for these routes have been delivered or are on order.
  2. Local battery-electric services could be developed at Chester, Exeter and Swansea by building on the initial systems.
  3. The collateral benefits could be high for Anglesey, West Wales and Devon and Cornwall.

I suspect too, that very little construction work not concerned with the installation of the charging systems will be needed.

Conclusion

Hitachi have come up with a feasible way to electrify Great Britain’s railways.

I would love to see detailed costings for the following.

  • Adding a battery pack to a Class 800 train.
  • Installing five miles of electrification supported by a containerised charging system.

They could be on the right side for the Treasury.

But whatever the costs, it does appear that the Japanese have gone native, with their version of the Great British Compromise.

 

 

 

 

 

 

 

 

 

 

 

July 9, 2021 Posted by | Design, Energy, Hydrogen, Transport/Travel | , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , | 12 Comments

Some Pictures Of Platform Edges On The Uckfield Branch

I took these pictures on my visit to Eridge station yesterday.

The platform edges are a very mixed bunch.

  • Some are only a couple of years old and were built, as part of new platform extensions.
  • Some were built using pre-fabricated components.
  • Some are of fairly indeterminate age.
  • The ones at Eridge station probably date from when the station was opened in 1868.

I would suspect that your patio is in better condition than some of these important interfaces between train and platform.

So why did I photograph them?

In First Of A Kind Funding Awarded For 25 Rail Innovation Projects, Project Number Number 4 from Sheffield Hallam University was entitled Illumin Heated Concrete Platform Coper Slabs and was described like this.

Illuminated and heated low-energy concrete slabs for station platforms, which automatically switch on in freezing conditions to help prevent passengers from slipping on ice.

Some more information was given in Heated Railway Platforms Tested To Avoid Ice Accidents.

Could these platforms be fitted to a set of platform edges like these?

I would hope so.

If so, new smoother platforms and not just the edges, would also hope to cut small falls.

June 24, 2020 Posted by | Transport/Travel | , , , | Leave a comment

Ready To Charge

The title of this post is the same as that of this article in Issue 898 of Rail Magazine.

This is the sub-title of the article.

Vivarail could be about to revolutionise rail traction with its latest innovation

The article details their plans to bring zero-carbon trains to the UK.

These are a few important more general points.

  • The diesel gensets in the trains can be eco-fenced to avoid unning on diesel in built-up areas.
  • The Transport for Wales trains could be the last Vivarail diesel trains.
  • A 100 kWh battery pack is the same size as a diesel generator. I would assume they are almost interchangeable.
  • Various routes are proposed.
  • In future battery trains will be Vivarail’s focus.
  • At the end of 2020, a battery demonstration train will be dispatched to the United States.
  • Two-car trains will have a forty-mile range with three-cars managing sixty.
  • Trains could be delivered in nine to twelve months.

The company also sees Brexit as an opportunity and New Zealand as a possible market.

Modifying Other Trains

The article also states that Vivarail are looking at off-lease electric multiple units for conversion to battery operation.

Vivarail do not say, which trains are involved.

Vivarail’s Unique Selling Point

This is the last two paragraphs of the article.

“Our unique selling point is our Fast Charge system. It’s a really compelling offer.” Alice Gillman of Vivarail says.

Vivarail has come a long way in the past five years and with this innobvative system it is poised to bring about a revolution in rail traction in the 2020s.

Conclusion

Could the train, that Vivarail refused to name be the Class 379 trains?

  • There are thirty trainsets of four-cars.
  • They are 100 mph trains.
  • They are under ten years old.
  • They meet all the Persons of Reduced Mobility regulations.
  • They currently work Stansted Airport and Cambridge services for Greater Anglia.
  • They are owned by Macquarie European Rail.

I rode in one yesterday and they are comfortable with everything passengers could want.

The train shown was used for the BEMU Trial conducted by Bombardier, Network Rail and Greater Anglia.

The only things missing, for these trains to run a large number of suitable routes under battery power are.

  • A suitable fast charging system.
  • Third rail equipment that would allow the train to run on lines with third-rail electrification.
  • Third rail equipment would also connect to Vivarail’s Fast Charge system

As I have looked in detail at Vivarail’s engineering and talked to their engineers, I feel that with the right advice and assistance, they should be able to play a large part in the conversion of the Class 379 fleet to battery operation.

These trains would be ideal for the Uckfield Branch and the Marshlink Line.

If not the Class 379 trains, perhaps some Class 377 trains, that are already leased to Southern, could be converted.

I could see a nice little earner developing for Vivarail, where train operating companies and their respective leasing companies employ them to create battery sub-fleets to improve and extend their networks.

February 16, 2020 Posted by | Transport/Travel | , , , , , , , , , , , , , | Leave a comment

Raw Material For Southern’s Battery Trains

Porterbrook and Southern are proposing to convert a number of Class 377/3 trains to battery operation for the Uckfield Branch and the Marshlink Line, as I wrote about in Electroflex Battery EMU Plan To End Southern Diesel Operation.

This morning I took a ride in a ten-car Class 377 train formed by two three-car Class 377/3 units and one Class 377/4.

I will split my observations into various sections.

First Class

There is a small First Class section.

Is this really needed in a three-car train, considering that some franchises are going for one-class trains?

Gangways

On the Uckfield Branch and the Marshlink Line, I suspect that trains will work in multiple formations, so the gangway will be useful to allow passengers to pass between individual trains.

Interior

The interior is reasonably modern, as the trains were originally built in 2001-2002 and they meet all of the persons of reduced mobility legislation.

Multiple Working

The train I rode on consisted of three Class 377 Trains working together, so it would appear that six, nine and twelve car trains may be possible.

Tables And Cup-Holders

I would prefer full-size tables and perhaps these could be fitted, during the conversion, like they are in some Class 377 trains.

If not tables, then how about some cup-holders?

Universal Access Toilet

A universal-access toilet is fitted in the middle car.

Wi-Fi

Wi-fi appears to be fitted.

25 KVAC Operation

Although the trains are currently configured for operation on 750 VDC trird-rail electrification, these trains can be converted to run on 25 KVAC overhead electrification.

This would obviously mean that if the trains were no longer needed in Sussex, they could run anywhere else, where there is electrification.

Conclusion

They are a well-equipped train.

It would appear that very little will need to be done to the interior of the train in the conversion.

First may be downgraded to standard and I would fit full tables.

The operator would do what they wanted.

 

January 27, 2020 Posted by | Transport/Travel | , , , , , , | Leave a comment