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When automation projects go wrong, it’s rarely because the robot was too expensive. It’s because the solution wasn’t flexible enough to adapt.
In theory, robots last a long time. But in practice, things change:
- A new mold doesn’t fit the EOAT
- A customer switches to different packaging
- The cycle time target drops by two seconds
- An operator requests a layout change for safety or access
Suddenly, a robot that seemed cost-effective becomes a constraint. You’re reprogramming. Re tooling. Re configuring guarding. And losing time every step of the way.
That’s why I always bring up flexibility early in automation discussions. What’s the life cycle of the parts? How likely is it that the layout will change? Will this cell serve one product or many?
Modularity, accessibility, and clear interface points between machine, robot, and conveyor make a big difference over time. You don’t want to rebuild the cell every time the product changes.
If you're building an automated cell and want to be confident it will evolve with you and not work against you I’d be glad to review the plans with you before you lock in the hardware.
source : Roman Malisek


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