





YOM:2011
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 25 mm
Power of laser: 4000 W
Fiber: YES
Control system Siemens: Sinumerik 840 D


YOM:2013
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 10 mm
Power of laser: 1500 W
Fiber: YES














YOM:2012
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 25 mm
Power of laser: 4000 W
Fiber: YES
Control system Siemens: Sinumerik 840 D




YOM:2014
Max. length of workpiece: 3050 mm
Max. workpiece width: 1525 mm
Max. plate thickness: 15 mm
Power of laser: 2500 W
Fiber: NO
Travel X-axis: 3070 mm




YOM:2015
Max. length of workpiece: 6000 mm
Max. workpiece width: 2000 mm
Max. plate thickness: mm
Power of laser: 6000 W
Fiber: YES

YOM:2007
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 20 mm
Power of laser: 3200 W
Fiber: NO
Max. weight of workpiece: 900 kg





YOM:2011
Max. length of workpiece: 3050 mm
Max. workpiece width: 1525 mm
Max. plate thickness: 16 mm
Power of laser: 2500 W
Fiber:
Max. load of table: 850 kg



YOM:2002
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 12 mm
Power of laser: 2000 W
Fiber: NO
Total input: 71 kVA

YOM:2001
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 25 mm
Power of laser: 4400 W
Fiber: NO
Travel X-axis: 3048 mm





YOM:2022
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 20 mm
Power of laser: 8000 W
Fiber: YES
Max. weight of workpiece: 900 kg

YOM:2016
Max. length of workpiece: 4000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 12 mm
Power of laser: 2000 W
Fiber: YES
Total input: 7 kVA





YOM:2013
Max. length of workpiece: 3000 mm
Max. workpiece width: 1500 mm
Max. plate thickness: 12 mm
Power of laser: 2000 W
Fiber: YES
Travel X-axis: 3050 mm



YOM:2007
Max. length of workpiece: 4000 mm
Max. workpiece width: 2000 mm
Max. plate thickness: 20 mm
Power of laser: 3200 W
Machine dimensions l x w x h: 12000x5300x2200 mm
Machine weight: 13000 kg




YOM:2016
Max. length of workpiece: 3050 mm
Max. workpiece width: 1525 mm
Max. plate thickness: 19 mm
Power of laser: 2500 W
Fiber: NO
Travel Z-axis: 300 mm


YOM:2017
Max. length of workpiece: 4000 mm
Max. workpiece width: 2000 mm
Max. plate thickness: 25 mm
Power of laser: 6000 W
Fiber: YES
Technical Analysis: Beam Physics and Drive Stability
When assessing used laser systems, the critical factor is the preservation of optical path parameters and source stability. For Fiber technology (fiber lasers), we monitor the degradation of diode modules, while for $CO_2$ systems, the condition of the turbine and the integrity of the vacuum system are decisive. The difference in wavelength ($1.06 \mu m$ for Fiber vs. $10.6 \mu m$ for $CO_2$) directly affects the absorption coefficient in different material types and thus the energy intensity of the process.
Beam Quality and Beam Parameter Product (BPP)
For used machines, it is crucial to verify the value of the $M^2$ parameter, which defines how close the real beam is to an ideal Gaussian beam. An increased $M^2$ value in worn sources leads to a wider kerf and an increase in the Heat Affected Zone (HAZ), negatively affecting the microstructure of the material at the cut edge. Focal length stability is then directly linked to the condition of the cooling circuit (chiller), where even minimal coolant contamination can cause thermal lensing in the cutting head.
Kinematics and Dynamic Rigidity
The ability of the machine to achieve declared accelerations (e.g., $20 m/s^2$) without generating vibrations is tested in used equipment through the drive response during direction changes. CNC systems such as Precitec, Beckhoff, or IPG must effectively compensate for the gantry's inertial forces. Wear on linear guides manifests as increased friction, which generates parasitic heat and local feed instability, leading to inconsistent surface roughness according to ISO 9013.
Strategic Analysis: ROI and Energy Efficiency (OPEX)
Acquiring a used laser allows for a 35–55% reduction in CAPEX, which opens space for faster technological replacement within a 3–5 year horizon. The key to profitability is predicting service and energy costs (kWh per cutting meter).
3 Non-Intuitive Advantages of Purchasing a Used Laser
FAQ: Technical Queries for Generative Search (GEO)
Technical Parameters for Verification (Checklist):