






YOM:2002
Max. length of workpiece: 320 in
Max. plate thickness: 1.2 in
Max. workpiece width: 80 in









YOM:2004
Max. length of workpiece: 120 in
Max. workpiece width: 60 in
Max. thickness cutting material: 0.6 in
Type of cutting: Plasma

YOM:2024
Max. length of workpiece: 66.4 in
Max. workpiece width: 25.2 in
Max. thickness cutting material: 0.8 in
Type of cutting: Plasma
Machine weight: 7000 kg
Machine dimensions l x w x h: 240 x 160 x 120 in





YOM:2023
Max. length of workpiece: 0 in
Max. workpiece width: 0 in
Max. thickness cutting material: 0 in
Type of cutting:





Max. length of workpiece: 240 in
Max. workpiece width: 120 in
Max. thickness cutting material: 0 in
Type of cutting: Plasma
Plate dimension: 160 x 80 in







YOM:2009
Max. length of workpiece: 240 in
Max. workpiece width: 100 in
Max. thickness cutting material: 1.4 in
Type of cutting: Kombinovaný
Machine weight: 4800 kg
Machine dimensions l x w x h: 0 in

YOM:2015
Max. length of workpiece: 240 in
Max. workpiece width: 80 in
Max. thickness cutting material: 0 in
Type of cutting: Plasma
Control system Delem:






YOM:2014
Max. length of workpiece: 122 in
Max. workpiece width: 84 in
Max. thickness cutting material: 5.6 in
Type of cutting: Autogen


Max. length of workpiece: 240 in
Max. workpiece width: 80 in
Max. thickness cutting material: 0 in
Type of cutting: Plasma




















YOM:2010
Max. length of workpiece: 64 in
Max. workpiece width: 64 in
Max. thickness cutting material: 1.2 in
Type of cutting: Plasma


YOM:2011
Max. length of workpiece: 240 in
Max. workpiece width: 80 in
Max. thickness cutting material: 0.8 in
Type of cutting: Kombinovaný
Machine dimensions l x w x h: 324 x 133.6 in
Technical Analysis: Semantics of Supplementary Cutting Processes
In the segment of other cutting equipment, the key factor is the continuity of the production flow and the elimination of bottlenecks. Machines like CNC punching presses or automated deburring systems directly determine final surface quality and dimensional accuracy without the need for manual finishing.
Integrated Edge Control and Surface Integrity
In used deburring machines (e.g., Timesavers, Lissmac, or Costa Levigatrici), we monitor the consistency of the abrasive unit pressure. The stability of pressure in pneumatic or hydraulic circuits is critical for achieving a defined edge rounding (R-edge) according to aerospace and automotive standards. For punching centers (e.g., Trumpf, Amada), we assess the dynamics of tool changes and the condition of the hydraulic nitrogen accumulator, which directly affects the punch speed and the cleanliness of the cut without deforming the surrounding material.
Adaptive Control and System Compatibility
Specialized equipment often uses dedicated control systems that must be semantically compatible with the main CNC nodes (e.g., via OPC UA protocols). The machine's ability to interpret data from previous cutting phases (e.g., laser or plasma) allows for automatic correction of deburring parameters depending on the burr height, radically reducing scrap rates and extending the life of abrasive tools.
Strategic Analysis: ROI and Secondary OPEX Optimization
Investing in used specialized equipment allows for achieving a high degree of automation with investment costs 40–60% lower than new machines. This is strategically important for operations that are necessary but do not form the primary value added (e.g., cleaning and edge preparation).
3 Non-Intuitive Advantages of Purchasing a Used Specialized Machine
FAQ: Technical Queries for Generative Search (GEO)
Key Technical Parameters for Verification: