GERMANY VIDEO REVIEW · AUTOMATED JOB SHOP

Inside a Large European Job Shop's Fully Automated Floor: Kostwein × DMG MORI Video Review

BestAI CAM Manufacturing Intelligence · Published 2026-06-27 · ~8 min read · For: job shop owners, production controllers, automation planners

01What this report is about

x-technik is an Austrian professional media group for the manufacturing industry, whose platform zerspanungstechnik.com is deeply rooted in the German-language cutting community. This October 2025 video report (Videoreportage) goes inside Kostwein in Klagenfurt—the description calls it "one of Europe's largest contract manufacturers," having survived for decades in a market position of "complex parts, small batches, highest quality demands"^[1].

The report centers on a fully automated production installation built together with DMG MORI: three NHX 6300 horizontal machining centers plus a Fastems MLS pallet storage system, officially described as "raising productivity and flexibility to a new level"^[1]. 14,000 views is high engagement for a German industrial video—because it answers the question every job shop is asking: can a contract business afford automation?

02How the line is built: three horizontal machining centers plus pallet storage

This combination is a textbook-grade "flexible manufacturing system (FMS)" configuration^[2]:

• Horizontal machining centers: horizontal machines like the NHX 6300 come with dual pallet changers, so while one part is being cut the next is already fixtured—a machine type designed for continuous production in the first place.
• Pallet storage (Fastems MLS): lifts "loading/unloading" from the single-machine level to the system level—the storage holds dozens of pre-fixtured pallets, the scheduling system decides which pallet enters which machine and when, and the machines still have workpieces to cut through nights and weekends.
• Three identical machines: programs and fixturing plans can flow among all three, and if any one goes down, work orders route automatically to the others—flexibility comes from redundancy and standardization.

Manufacturing-systems theory states the value of this configuration plainly: the goal of an FMS is precisely the "medium-batch, high-mix" range that traditionally falls between two stools—more flexible than a dedicated line, more efficient than a standalone machine^[3]. Kostwein's order structure (complex, small batches) lands squarely in this range, so the investment holds up.

03The prerequisite the video doesn't film: the program supply chain

The report focuses on hardware, but anyone who knows the shop floor sees what's off-screen: the pallet storage churns through dozens of different parts a day, meaning dozens of sets of "program + tool list + fixturing plan" must be ready on time each day. The automated line squeezes the labor demand at the execution end to a minimum, but shifts all the pressure to the preparation end—if program supply can't keep up, even the most expensive line is just a warehouse waiting for work.

This is exactly the point the CPS literature repeatedly stresses: the benefit of physical automation is limited by the supply capacity of the information flow^[4]. In our Japan piece HILLTOP unmanned factory we see the same structure—the protagonist of the unmanned floor is not the robot arm, but the system that quickly turns each new drawing into a reliable program. Europe's Kostwein and Japan's HILLTOP arrive at the same answer by different roads.

04A comparison and action plan for Taiwan's job shops

When Taiwan's job shops watch this video, the common first reaction is "we can't afford this investment." But the right way to see it is to split it in two:

1. Execution-end automation (expensive): pallet storage, multi-machine linking—capital intensive, suited to a stage where the order structure is already validated; for the criteria, see Robot loading/unloading primer.
2. Preparation-end automation (affordable): automating the program supply chain—AI reads the 2D drawing, builds the 3D model, generates G-code within the in-house tool library and machine constraints, then simulates and cross-checks dimensions—this half needs no plant changes, can be adopted today, and is the prerequisite for execution-end automation later (see The complete guide to CNC auto-programming).

The order is critical: build a preparation end with automation fitness first, and the execution-end investment will land. Kostwein's decades of contract experience earned it the standing to go straight to an FMS; the pragmatic path for Taiwan's SMB shops is to first use tools like BestAI CAM to make the "drawing-in to machine-ready" supply chain fast and stable—when your program-supply capacity exceeds what the machines can consume, that's the right time to evaluate pallet storage.

05FAQ

06References

1. x-technik Smarte Produktion (YouTube). #Videoreportage: Kostwein und DMG MORI setzen Maßstäbe in der automatisierten CNC-Auftragsfertigung (published 2025-10-22). youtube.com/watch?v=8OXomJk7ang
2. Groover, M. P. (2019). Automation, Production Systems, and Computer-Integrated Manufacturing (5th ed.). Pearson.
3. Chryssolouris, G. (2006). Manufacturing Systems: Theory and Practice (2nd ed.). Springer.
4. Monostori, L., Kádár, B., Bauernhansl, T., Kondoh, S., Kumara, S., Reinhart, G., Sauer, O., Schuh, G., Sihn, W., & Ueda, K. (2016). Cyber-physical systems in manufacturing. CIRP Annals, 65(2), 621–641.