Class 94

Updated: August 2026 – Five equally sized wheels in a row, all linked by heavy rods: the Class 94 is one of the few steam locomotives you can identify with confidence from 200 metres away. It was built for what overwhelmed every other engine – heavy loads on gradients and at hump yards. This page explains the design, its logic, and how to find one today.

What is the Class 94?

The Class 94 is the Deutsche Reichsbahn-Gesellschaft’s number group for tank locomotives with the wheel arrangement E – five coupled driving axles, no carrying axles. The group was shaped chiefly by the Prussian classes T 16 and T 16.1, which the Reichsbahn brought together under this class number.

The design logic is consistent: anyone wanting to move heavy loads from a standstill or push them up a gradient needs adhesion. Adhesion comes from the weight resting on driven axles. Leave out the carrying axles, and the entire mass of the locomotive rests on the driving axles – maximum adhesive weight, while the load per axle stays within acceptable limits because the mass is spread across five axles.

There’s no scheduled service left. Comparatively many engines of this class have survived, though; they belong to heritage railways and societies and are still fired up individually. The Saxon Railway Museum Chemnitz-Hilbersdorf preserves just the right setting for that: a former motive power depot with a roundhouse, turntable and an adjoining marshalling yard – exactly the facilities a heavy shunting engine was built for.

Five coupled axles: the ultimate identification feature

Hardly any feature is quicker or more reliable to check in the field than a long group of coupled axles. Three steps are enough.

A technical detail that’s often overlooked: five rigid axles in a row create a very long fixed wheelbase. So that the locomotive can still get through tight curves, individual axles are mounted with lateral play or fitted with thinned flanges. This is a standard solution in steam locomotive engineering, and the reason such engines could be used in shunting service at all.

Where it fits in the numbering system

The DRG’s steam locomotive numbering system is ordered by intended use and type. Within the tank-locomotive band, the number roughly rises with size and coupled-axle count.

Class	Wheel arrangement	Adhesive weight	Typical task
89	C	three axles	station shunting duty
92	D	four axles	heavy hump shunting
93	1’C1’	three axles	branch line and local freight
94	E	five axles	gradients, hump yards, heavy transfer workings
95	1’E1’	five axles	steep-gradient main-line service

Comparing it with the Class 92 shows the step up from four to five coupled axles, while comparing it with the Class 95 shows the step from a shunting engine to a main-line one. At the lower end of the same range sits the three-coupled Class 89. For how to work through such feature chains systematically in general, see the guide to identifying locomotive classes.

Where you’ll find a 94 today

Surviving five-coupled engines are no rarity at German heritage railways – not least because their pulling power is still needed on steep gradients today. All the same, there’s no timetable. Here’s how to go about it:

• The operating society as your primary source. Only they know whether a particular engine is currently fit for service within its inspection deadlines – boiler certificates decide everything.
• Event calendars for heritage railways. Season openings, museum festivals and themed weekends account for most workings. The guide to heritage railways and special workings shows you how to search these calendars specifically.
• Keep an eye on steep-gradient operators. Wherever a heritage railway runs a demanding gradient, a powerful engine is needed.
• Community reports for transfer runs and short-notice substitute workings.

A note on classifying surviving engines: once state railway steam ended, five-coupled engines were often kept running by industrial, ironworks and dock railways, because their pulling power was still needed there. Many of the engines preserved today therefore come from such fleets rather than directly from a motive power depot. That also explains liveries that don’t match, retrofitted parts, and markings that don’t fit the Reichsbahn scheme. Anyone wanting to reconstruct the history of a particular engine should factor in its time with industrial railways – that’s often where the last, and best documented, years of service lie.

Photo tips for long coupled-axle groups

The challenge with an E-type engine is its length: from too short a distance the perspective collapses and the rear axles disappear.

Distance beats wide angle. A mild telephoto focal length from further away keeps the axles parallel and makes the wheel arrangement countable. Which focal lengths are realistic for this, and where budget lenses hit their limits, is covered in the guide to the best telephoto lens for railway photography.

A side-on shot as evidence, a three-quarter shot as the picture. One documents, the other shows. If you have both, you don’t need to choose.

Bring the work into the shot. A 94 looks most impressive when it’s working: on a gradient, under load, with a strong exhaust beat. On level track, much of its impact goes to waste.

House rules apply throughout on museum sites: barriers are binding, and tracks and operational facilities are off-limits – even where the view would be especially good.

Common mix-ups

Verdict

The Class 94 is the most consistent answer the DRG numbering system gives to the question of pulling power: all the weight on driven axles, no carrying axles, small wheels. Five coupled axles make it one of the easiest German steam locomotives to identify at all. It no longer exists in scheduled service, but in museum hands it’s better represented than many other classes – and there it’s one of the engines you can genuinely watch working on a gradient.