We put our entry-level laser cutting machine to the test: here are the results
When buying a machine for laser metal cutting, the quality and precision of the technology are crucial factors: that's why at Cutlite Penta we demand high reliability even from our entry-level models.
In collaboration with D.Electron, a company specialized in advanced numerical controls, we carried out a complete examination of a prototype of the XME system driven by a Z32 numerical control, to guarantee the required quality standards. Here is the method we followed and the results of the test.
The test methodology for every Cutlite Penta system
The verification process to certify the geometric precision and efficiency of our machines is accurate and rigorous even for an affordable machine like XME. This allows us to:
- Test the machine's performance to always guarantee optimal results
- Quantify performance so we can compare it in the future with the new Cutlite Penta models under development
Only in this way can we guarantee that level of Made in Italy quality capable of making our customers more competitive on the market.
All the phases of the XME prototype test
Testing the fiber laser cutting system goes through several steps, which let us check the machine's performance from every angle.
Phase 1: geometric testing and calibration
First we performed a series of geometric measurements to examine the straightness and squareness of the linear axes. Then we used the laser interferometer to calibrate the axes' pitch errors and ensure that every movement of the machine was perfectly aligned and precise.
Phase 2: circular interpolation tests
In the second phase we moved on to more complex dynamics. We carried out several circular interpolation tests, measuring the machine's precision with an advanced instrument such as the ball bar. In the test we had the machine execute circles of various diameters, in different axis positions and at different movement speeds. The results were very important, because they allowed us to adjust some components and optimize the machine's operating parameters.
Phase 3: speed and acceleration
Another fundamental aspect in the design of laser cutting machines concerns dynamic capabilities: a reliable machine must be able to work at high speeds without sacrificing precision. To test the prototype's speed, we subjected the machine's axes to repeated acceleration and braking cycles, carefully evaluating its ability to hold the trajectory and stay in control at varying speeds.
Despite the high speed, the machine proved able to maintain precise control of its movements, delivering excellent results even on complex jobs. This kind of verification is not just a formality but a real distinguishing element for those seeking long-term reliability, especially when working on large production volumes.
Phase 4: precision in detail even on complex trajectories
The most important phase of the dynamic tests is the measurements with the Heidenhain KGM optical grid, capable of following any tool trajectory at very high speeds and evaluating its deviations from the programmed path.
In this case a special trajectory was used, designed to suit different types of machines: it consisted of 8 circular arcs of the same diameter, divided into 4 semicircles and 4 quarter circles. The machine followed this trajectory at a constant speed, with regular changes of direction.
Thanks to these examinations, we can guarantee that the machine, even in its entry-level version, meets the design specifications and can handle even the most difficult jobs. This approach has allowed us for years to deliver reliable, high-quality machines across all Cutlite Penta systems, ideal for companies that cannot afford errors in their work.
Why choosing laser machines that stay reliable over time matters
In the laser systems market you often come across cheap metal cutting machines that, to keep production costs down, are not subjected to rigorous testing. The result is at the customer's expense: thinking they are saving at purchase, they end up burdened with an ineffective cutting system, prone to frequent breakdowns and to the risk of halting production. That's why, when buying a laser cutting machine, we recommend not deciding on price alone, but on trust in the manufacturer's technology and build quality.
When attention to detail and constant commitment lead to meticulous checks and solid, high-performing machines, the initial price is an investment that pays for itself quickly, thanks to the competitive advantages the customer gains. Machines with excellent performance like Cutlite Penta systems not only increase productivity but also offer long-term reliability, minimizing the risk of breakdowns and costly maintenance.
And for those who want to keep the initial expense contained, we guarantee that even entry-level models like XME are tested with the same care and precision reserved for high-end products.
Discover the machine model tailored to your business or contact us for more information.
Frequently asked questions
How are Cutlite Penta laser machines tested?
With a four-phase process: geometric testing and calibration with a laser interferometer, circular interpolation tests with a ball bar, speed and acceleration tests, and measurements on complex trajectories with the Heidenhain KGM optical grid.
What is the circular interpolation test with the ball bar?
A test in which the machine executes circles of various diameters, in different axis positions and at different speeds, while the ball bar measures its precision: the results are used to adjust components and optimize parameters.
What is the Heidenhain KGM optical grid for?
It follows any tool trajectory at very high speeds and measures its deviations from the programmed path: it is the most important phase of the dynamic tests.
Are entry-level models tested too?
Yes: entry-level models like XME are tested with the same care and precision reserved for high-end products.
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