I decided to create each of the parts as a separate topic, so hopefully any related discussion will be specific to the part-topic where that step in the process was first introduced. I think there will be more than enough information in each part to justify this.
I was going to ask if you would need a short curved section after the switch to bring the spur-siding parallel to the main line, and it sounds like you will. All model railroad track manufacturers make curve sections in various radii, but they always at least make them to match the curves of their own turnouts.
You would use the same process as the switch, but it would be a lot easier - less complex. You would need a short section of straight track so the siding – spur is not too close to the main line. One reason I would recommend using real track / rail for all the spur trackage is that sidings have a less-raised roadbed, with not so much gravel (ballast). In fact, sometimes there will even be grass growing between the rails, although this is less likely in Fascist Germany where everything must be proper and perfect.
Often a smaller profile (“weight”) rail will be used for long spur tracks, but your spur will be short enough not to consider this. Notice I am using siding (U.S. lingo) and spur (U.K.-Euro lingo – perhaps with exceptions) interchangeably – essentially meaning a dead-end track, usually serving an industry or a railway facility. "Passing" sidings are a different category.
Obvious logic – the mainline has heavy trains with powerful engines moving at high speed, putting a lot of stress (wear) on the rails, and on the ties and ballast to keep the rail precisely in place. A small engine slowly “spotting” or retrieving one or two cars from a siding creates much less stress, so you can use lighter (cheaper – less steel) rail and less ballast, which often means (with other reasons) that the siding is at a slightly lower level then the main. Sometimes it is sufficiently lower that an embankment or wall is needed to separate the two (some distance away from the switch) – this could happen if the spur was perhaps brought down to street (loading dock) level from an elevated main line, to facilitate transfer to truck. This works to the modeler’s advantage, as the offset in height makes for a more interesting scene. Proto photos, even from the war years, should verify this – although it is now standard practice for other reasons.
Also - I noticed that in Part 1 I misidentified the sharper of the Marklin turnouts as left, when it is clearly right. I was originally going to compare left switches, but then noticed that the site I was using had the two left sixes photographed from opposite directions. I decided to use the “right” ones as they provided a better “side by side” comparison, but then forgot to edit the text.
I am researching some options, so it will be a few days before I post Part 2. One of the options is other possibilites for “donor” model railroad switches - especially if you want a more realistic length-look. BTW: Mats – I don’t know if you have decided the length of your dio, but it could easily be 150 Cm (or even more) to be close to realistic, although it could also be narrow – maybe 30-40 Cm, depending on how much of the shed you wish to model-show. Or, if you are not married to symmetry, it could be narrow on one end and wider on the other. This might be a perfect “bookshelf” diorama. Some model railroaders have bookshelf layouts.
I have found a very interesting turnout option, but it is even more expensive than Marklin. Peco in England manufacture 1:32 turnouts that are designed for use with a 10' radius curve (almost always outdoors, especially as few - if any - British houses have basements). This means it is 24" or 600mm long, but I think is markedly better looking than the Marklin turnouts - for multiple reasons. You'll notice that both the frog and guard rails are metal, unlike the Marklin. I mostly think it just has a “more elegant” look to it. There are a lot more ties on it than the Marklin medium, but the count is still low when compared to the prototype switches. Check U.K. eBay – possibly the Continent also; I believe some German garden railroaders use Peco track. Make sure you’re sitting down first.
Peco Gauge 1 medium turnout – 24” 500mm long Right is SL-E895, Left is SL-E896
![](https://gallery.kitmaker.net/data/500/Peco_Gauge_1_SL-E895.jpg)
One thing I can't comment on is the shape of the rail, as different countries often had slightly different profiles. One that the U.K. used was known as "Bullhead", but I believe that was mostly on the earlier railoads, and I suspect the Peco product uses a more standard modern profile that will be similar to the Marklin and Trumpeter. Amazon UK has these for 90 pounds (each), but I’m guessing (certain ?) you can find a used one for (far ?) less on eBay – perhaps removed from someone’s garden railway. Again, a little damage “may” not be an issue for you, as you don’t need it to be operational, and that could mean a much lower price.
OK – time for a new topic. US railroads measure the type/weight of rail in terms of pounds per yard – no doubt this is kilo per meter in Europe. I don’t know how the translation is made (does anyone know if there is a formula ?), but for model railroad usage we express this as a “code” – which corresponds to the height of the rail in thousandths of an inch. I don’t know how this is handled in Europe – if anyone knows, do tell. There are also different rail “profiles” as mentioned above, but I plan to ignore this aspect for our project. One important note – the “code” is absolute, related only to the actual rail and not any scale of modeling. Although most rail produced is intended for a particular scale, there is some crossover - especially when narrow gauges are involved. Also, a lot of commercial track uses a larger code than is “proto”, mostly because many model trains (especially engines) have an extra-long (deep) flange to prevent derailments. This has changed somewhat over the years, but there are still modelers who have older “over-flanged” equipment that will not operate on more appropriate scale rail sizes. Most gauges have small specialist groups who work with precise prototype standards.
I had asked Mats to measure the height of Trumpeter rail, and he gave me 5 MM, which translates to code .197 Peco uses code 200 rail, so hopefully you can appreciate the closeness of these – certainly closer than the unaided human eye can distinguish. I have variably seen .197 and .250 given for Marklin rail, and am trying to verify this – I will have the answer in Part 2.
Charles