It's Tyseley. The main line to Warwick, Banbury & Paddington veers off to the left behind the signal box, while the North Warwickshire line to Stratford & Cheltenham goes off to the right. The train is non-corridor stock, meaning it's probably a suburban working, maybe arriving from Lapworth before terminating at Snow Hill? Period probably late 1950s.Trying to identify location on attached pic and then rough age. I want to see if I can find the copyright owner
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pulled by a Prairie x 5 in my layout shedsIt's Tyseley. The main line to Warwick, Banbury & Paddington veers off to the left behind the signal box, while the North Warwickshire line to Stratford & Cheltenham goes off to the right. The train is non-corridor stock, meaning it's probably a suburban working, maybe arriving from Lapworth before terminating at Snow Hill? Period probably late 1950s.
I thought about the brake coach being in the middle, but it suits situations where the loco runs round the train at an outer terminal to run back the other way. It would seem pointless to have a brake / guards compartment next to the engine.pulled by a Prairie x 5 in my layout sheds
Brake coach in middle of rake !
Post January 1948 early emblem on loco
yes i thought about that im running x6 suburban trains x4 into termiul stations most of my pictures of GWR/LMS Suburban rakes 3 plus cars have a brake both ends the guard has to apply the brakes when neededI thought about the brake coach being in the middle, but it suits situations where the loco runs round the train at an outer terminal to run back the other way. It would seem pointless to have a brake / guards compartment next to the engine.
Great video! Hydrogen has become a power source for many diesel conversions. Many of the locos used on the Austrian National Railways have already been converted and diesel engine manufacturers are building engines that are backward compatible. Not sure where the steam part plays in this because many conversions generate electricity to utilize existing technology, maintenance and servisabilty.Is Steam on the way back ?
Steam has an advantage over electricity in that it is compressible. Electricity needs batteries to store power, but steam at high pressures always wants to return to atmospheric pressure, hence it holds latent energy which can be transmitted to the machinery it is driving.Not sure where the steam part plays in this because many conversions generate electricity to utilize existing technology, maintenance and serviceability.
Hydrogen/ electrics do not need larger batteries. The electricity is generated by hydrogen generators which travel with the vehicle. The hydrogen is highly compressed in tanks on the loco an$ is the power source.Steam has an advantage over electricity in that it is compressible. Electricity needs batteries to store power, but steam at high pressures always wants to return to atmospheric pressure, hence it holds latent energy which can be transmitted to the machinery it is driving.
And that is a very good thing about hydrogen!Thank goodness for the strategic reserve...
Green hydrogen uses solar & wind, grey hydrogen uses fossil fuels. Look at the like from Germany and the Cummins link, they should clear up you question Mike.I'm a bit confused by this, and by what Richard says. I thought hydrogen was normally made by electrolysis or by some thermal process from fossil fuels. It can be stored either high pressure or by absorption on (usually very expensive) substrates. So not clear how it can be generated on the locomotive without either using electricity generated elsewhere (and presumably stored on the loco) or from fossil fuels. I don't claim to be very knowledgeable on the subject and am probably not up to date, so could someone explain how it is generated in this environment?
...and what would the (solar, wind or fossil) fuel requirement be to generate enough Hydrogen to run a fleet of, say, 20 locomotives in daily service?Green hydrogen uses solar & wind, grey hydrogen uses fossil fuels. Look at the like from Germany and the Cummins link, they should clear up you question Mike.
Lloyd, I don’t have those answers and if I did could not share. I will say this if you read the articles you will see enormous interest and participation. This approach eliminates tho cost and maintenance of electrification particularly in remote areas....and what would the (solar, wind or fossil) fuel requirement be to generate enough Hydrogen to run a fleet of, say, 20 locomotives in daily service?
is it economically cheaper than using that power directly via overhead wires to electric trains? If so, it would be a game changer.