The title is the full story, except for the actual date of Monday, the 25th.
Wolverhampton station is getting a £150 million Interchange development to better connect trains, buses and trains and although, this is only the completion of a substantial part, in more normal times, I’d be on the train on Monday to see the new development.
I’ll just add it to a long list of places, I need to visit.
Note that is about 27-28 miles from the electrification at Ipswich East Suffolk Junction and the siding close to the power station, where flasks are loaded.
This is a classic use of an electric locomotive, that has a Last Mile-capability using an on-board diesel engine.
Many ports in the UK, like these examples are a few miles from the electrified network.
Felixstowe – 16 miles
Liverpool – 5 miles
London Gateway – 4 miles
Southampton – 2 miles
How many trains could be hauled to and from these and other ports using a Class 88 locomotive or their similar, but more powerful sibling; the Class 93 locomotive?
Conclusion
I suspect there are a number of routes that could be handled by electro-diesel locomotives.
I would like to see a serious analysis of all duties performed by diesel locomotives, like for example; Classes 66, 67, 68 and 70 locomotives, to see how many could be performed by suitably-sized electro-diesel locomotives.
If there is a gap in the market, then a rolling stock leasing company, should fill it!
This is a visualisation of the CBD90 from Clayton Equipment.
It certainly looks purposeful!
This is the introductory paragraph.
Beacon Rail Leasing has awarded Clayton Equipment a contract to supply 15 diesel-battery locomotives, with options for more to be ordered over three years.
These points are made.
The locomotive is mainly for industrial shunting applications.
These are the largest locomotives built in the UK for twenty years.
It has an onboard diesel to charge the batteries.
Batteries can also be charged directly from a three-phase supply.
Beacon’s CEO is quoted as saying
It was seeing increased demand for lower emissions, new technology, more capacity and cost-effective assets in a fast-changing environment.
As Beacon has interests in Europe, could some of these powerful shunting locomotive could be going for export?
Could some end up in the large mines of Africa, Australia and the Americas?
From this article on Railway Gazette, which is entitled Steelworks Locomotive Order, it appears five CBD90 locomotives have already been ordered by Tata Steel for their steelworks at Port Talbot.
This video shows one of the locomotives under test.
I shall be interested to see, where the new shunting locomotives end up.
The Leasing Model
When we started Metier Management Systems in the 1970s and developed Artemis, which was the world’s first small and powerful project management system, we used to lease systems to our customers. These were often large engineering or other companies for whom the leasing model was very convenient.
I would certainly be happy to fly in one at any time, unlike some aircraft I could mention.
This paragraph from the article details how the maker of the electric motor;magniX is involved in electric flight.
The Grand Caravan is to be the largest, but not the first commercial aircraft magniX has converted to fly with 100 percent electric power. Roei Ganzarski, CEO of magniX, wrote in an email exchange that the de Havilland DHC–2 Beaver first flown in December continues its test flight program in Canada. Harbour Air, a short-haul air carrier with a fleet of seaplanes, is working with magniX to convert its fleet to all-electric power, and the same 750-hp electric motor that will power the upcoming Grand Caravan flight has been performing well in test flights over British Columbia.
Ganzarski is quoted as saying he is pleased with results to date.
The aircraft is lined up to make its first flight on May 28th, which hopefully will be shown on the Internet.
My flight in Kenya was only about half-an-hour and despite the Caravan having a range of nearly 2,000 kilometres, I suspect that many flights in the aircraft are of similar duration.
A Quick Battery Size Estimate
750 hp is 560 kW.
So a half-hour flight on full power will use 280 kWh plus whatever is needed for aircraft systems like avionics, heating and air conditioning.
The Eviation Alice electric aircraft seats nine passengers and has a 900 kWh battery according to Wikipedia.
I would suspect a 900 kWh battery should allow the Electric Caravan to do two half-hour trips.
The Future Of Electric Aviation
It is interesting to note, that four of the projects in designing and building a viable electric aircraft are in this nine-seater segment.
Eviation Alice, which is a new radical aircraft with three magniX electric motors.
The DHC-2 Beaver prototype first flew on the day I was born, so it can’t be all bad.
A detailed insight into the reasons and the economics of converting an existing fleet of aircraft are given in a sub-section called Development in the Wikipedia entry for Project Fresson.
Scottish Airline Loganair appears to be the launch airline and will use the plane for their short flights around Orkney.
Several companies are involved in the development.
First flight is aimed for 2021.
Conversion kits could be available in 2022-2023.
It is hoped that operators would get a return on their money for the kit in 2-3 years.
Once they get the design right, there is talk of a nineteen-seat electric airliner.
I can see hundreds of converted electric Caravans and Islanders flying short routes by 2030.
The title of this post, is the same as that of a sub-section on this page on Rail News.
This is said.
PLANS to build a station at Moseley on the Camp Hill line in Birmingham have been submitted. If approved, Moseley will be the third station on the restored route, where Birmingham City Council has already given the go-ahead to stations at Kings Heath and Hazelwell. The line was closed to passengers as a ‘wartime economy’ in January 1941, but the withdrawal was confirmed in November 1946.
In July 2018, the Midlands Rail Hub was unveiled which would see reopening of Moseley, Kings Heath and Hazelwell with the chords built to connect Birmingham Moor Street with the line to Kings Norton and another to Water Orton.
In September 2018, the designs of the new stations were revealed as Kings Heath, Hazelwell and Moseley were planned for reopening by 2021 with a frequency of 2 trains per hour.
It looks to me, that Birmingham City Council are going to make the Camp Hill Line an important route across the city.
Around 300 homes in Scotland could soon have their heating and cooking powered by green hydrogen produced from renewable electricity under proposals for “the world’s first green hydrogen-to-homes network” unveiled today by SGN.
A few points from the article.
Construction could start in the winter of 2020/21.
The project will take two or three years.
The modified houses appear to be in Levenmouth.
The project has been dubbed H100 Fife.
The hydrogen will be produced by electrolysis using electricity generated by offshore wind.
The article also gives a round-up of the state of hydrogen in the UK.
This is the home page of the H100 Fife project web site.
Could This Have Other Implications For Levenmouth?
Industry leaders, campaign groups and academics today challenged the Government’s “deliberate” and “misjudged” bias against hydrogen buses in its pursuit of decarbonising public transport.
I do find this article a bit surprising.
We have had a couple of trials of hydrogen buses in London and Aberdeen and I can’t remember any serious adverse stories.
Jo Bamford has rescued Wrightbus and plans to make thousands of hydrogen-powered buses.
Councils seem keen on hydrogen-powered buses.
There has been articles praising hydrogen in quality newspapers.
It’s almost, as if someone in the Department of Transport, is saying No, for an illogical reason.
The government also seems to have given Alstom the nod to develop hydrogen trains.
Today, zero-emission flight is closer to reality than ever. Electric and hybrid-electric propulsion is rapidly revolutionising mobility technologies across industries, from automotive to marine. And the aviation industry is no exception. Airbus is committed to developing, building and testing electric and hybrid-electric future technology that will enable the aviation industry to significantly reduce the CO2 emissions of commercial aircraft.
A read of the whole section is recommended.
A lot of technology will need to be improved even to get say a 60-seat airliner, with a 500 mile range.
Design-changing efficient aerodynamics.
Lightweight, strong structures.
Efficient zero-carbon propulsion systems.
Batteries with a much higher energy capacity per kilogram of battery weight.
It’s a tough ask, but I believe it is possible!
We might even see some very unusual ideas. And some proven ones.
Catapults
Naval fighters are usually literally thrown into the air from aircraft carriers using aircraft catapults, which traditionally were steam-powered. Gliders are often towed into the air using a rope.
So could something similar be used to accelerate the aircraft to flying speed?
Taxiing And Take-Off Using A Tug
All taxiing would use a battery-electric or hybrid-hydrogen-electric tug to minimise use of energy from the plane’s batteries.
Could the tug be combined with charging and a vehicle to handle the catapult launch?
A fully-charged tug would meet incoming aircraft and tow them to the terminal.
The aircraft would use the tug for power, if it was low.
At the terminal, the tug and aircraft would be charged, during passenger unloading and loading.
On the taxi to the runway, all power would be provided by the tug.
The catapult system, would attach to the tug on take-off.
Once take-off speed was achieved, the aircraft would disconnect and climb away under its own power.
All the power for acceleration to take-off speed would be provided on the ground and the aircraft wouldn’t have to carry it.
Energy Calculations For An Airbus 220-100
The smallest Airbus aircraft is the A220-100, which has the following specification.
Passengers – 135
Maximum Take-Off Weight – 63.1 tonnes
Cruise speed – 871 kph
Take-off speed – 220 kph (estimated)
Ceiling – 41,000 ft.
Note that the design cruise speed of the nine-seat electric Eviation Alice is 482 kph at 10,000 ft.
As the kinetic energy is proportional to the square of the speed, I would expect that a small electric airliner would have a cruise speed slower than current airliners.
I would expect that Alice’s cruise at 482 kph and 10,000 ft., could have been chosen to get a decent range for the maximum size of battery.
The aircraft will also have to be given potential energy in the climb.
I would expect a small electric airliner would fly a lot lower.
A 135-seat electric airliner, which is the same weight as an Airbus 220-100 and cruising at 482 kph and 10,000 feet would need the following energy to establish itself in the cruise.
Kinetic energy – 157 kWh
Potential energy – 524 kWh
Take-off energy at 220 kph – 32.7 kWh
Which gives a total of 681 kWh.
It should be noted that both the kinetic and potential energies are proportional to the maximum take-off weight. Assuming that take-off weight would be proportional to the number of passengers, rough estimates for the battery size needed.
25 – 126 kWh
50 – 252 kWh
75 – 378 kWh
As Wikipedia says the smaller nine-seater Eviation Alice has a 900 kWh battery, I feel that at least a fifty passenger electric airliner is possible.
Very Efficient Aerodynamics
One of the biggest losses of energy will be due to less-than-perfect aerodynamics, with vortices, eddies and skin friction wasting precious energy.
Look at the pictures on the Internet of the Eviation Alice and you’ll see a strange aircraft.
A very pointed nose.
Two propellers at the wing-tips.
A third propeller at the tail.
I suspect, all the propellers are placed to get the most out of the power.
When Alice is cruising, her energy consumption will be minimal, so that the maximum range for a given battery size can be obtained.
Any electric airliner will draw on all the aerodynamic tricks in the book.
Efficient Flight Profiles
The longest flight, that I ever did in my Cessna 340A was from Southend to Naples.
Before take-off at Southend, the fuel bowser followed me to the end of the runway to give me a last-second top-up.
I travelled across France on a beautifully-clear day and the accommodating Lyon ATC allowed me to fly at 19,500 feet all the way to French Coast at Nice.
The French then decided that, as I was happy at that height, they would hand me over to the Italians without a change of level.
So I flew down the Italian coast past Genoa and Rome at 180 knots, with spectacular views all the way.
The Italians, then used radar to vector me on to final approach at Naples.
I reckon, I had flown nearly a thousand miles in if I remember correctly about six hours.
But it was a very efficient flight profile to get the range.
I took the maximum about of fuel, I could carry.
I climbed as fast as possible to an efficient cruising level.
I cruised at an efficient speed.
I used very little fuel on the descent and landing into Naples.
I certainly was pleased, that I had about another hour’s fuel left, when I arrived in Naples.
Electric aircraft will probably always fly efficient profiles, to get the maximum range. But they will all be calculated by the plane’s computer system.
Most Aircraft Are Heaviest At Take-Off
This is because they burn fuel in the engines, as they fly along.
But a full battery weighs the same as an empty one, so the electric aircraft will have the same flying characteristics in all stages of the flight.
This could have design and operational advantages.
Hybrid Propulsion
Some electric aircraft designs are hybrid, with both battery and turboprop power.
It still cuts carbon emissions and may give better performance.
Fuel created from biomass can also be used.
Conclusion
I expect to fly in an Aubus battery-electric short-haul plane between London and Geneva by 2030.
But I’m certain, I’ll fly before that in an electric aircraft.
After 530 days and more than 18,000 driven kilometres, the trials of two Alstom Coradia iLint models, the world’s first two hydrogen trains, are complete.
It is now over a year since I took this picture of the Alstom Coradia iLint at Buxtehude in Germany.
It is time to move on to full series production. Another fourteen Coradia iLint trains will be manufactured and start service in 2022.
According to Wikipedia, a second order for 27 trains for the Rhine-Main region will be delivered by December 2022.
What this blog will eventually be about I do not know.
But it will be about how I’m coping with the loss of my wife and son to cancer in recent years and how I manage with being a coeliac and recovering from a stroke. It will be about travel, sport, engineering, food, art, computers, large projects and London, that are some of the passions that fill my life.
And hopefully, it will get rid of the lonely times, from which I still suffer.