Kern Laser150W
OptiFlex 3050 150WWork Area1320×960mm
Price$40,000 - $70,000
Browse 25 manual laser marking systems from 12 manufacturers. Compare automation features and throughput.
25 manual machines from 12 manufacturers span 0.002kW to 0.15kW (average 0.1kW). Fully automated systems integrate sheet loading towers, material sorting, and part stacking. These systems target 85%+ laser uptime with minimal operator intervention and are justified at production volumes exceeding 16 hours/day of cutting time.
Automation ROI analysis: Manual systems require the lowest upfront investment and offer maximum flexibility. Ideal for job shops with order quantities under 50 sheets/day where automation payback exceeds 3 years. Among these 25 systems from 7 manufacturing countries, compare automation features using the table above to match your production volume and labor cost structure.
| Brand / Model | Power | Work Area | Max Steel | Speed @5mm | Price Range | Origin |
|---|---|---|---|---|---|---|
| Kern Laser OptiFlex 3050 150W | 150W | 1320×960 | — | — | $40,000 - $70,000 | 🇺🇸 |
| Universal Laser ULTRA X6000 150W | 150W | 1219×914 | — | — | $40,000 - $70,000 | 🇺🇸 |
| Universal Laser ILS12.150D 150W | 150W | 1220×610 | — | — | $30,000 - $50,000 | 🇺🇸 |
| Trotec Speedy 600 120W | 120W | 1016×610 | — | — | $30,000 - $50,000 | 🇦🇹 |
| Kern Laser HSSE 1390 100W | 100W | 1320×960 | — | — | $20,000 - $35,000 | 🇺🇸 |
| Rofin-Sinar PowerLine F 100 | 100W | 200×200 | — | — | $30,000 - $50,000 | 🇩🇪 |
| SIC Marking XXL-Box 100W | 100W | 600×450 | — | — | $40,000 - $65,000 | 🇫🇷 |
| Epilog Fusion Pro 48 80W | 80W | 1219×914 | — | — | $20,000 - $35,000 | 🇺🇸 |
| JPT Opto-electronics OPTO-LP MOPA 60W | 60W | — | — | — | $3,000 - $6,000 | 🇨🇳 |
| Trotec Speedy 100 60W | 60W | 600×300 | — | — | $10,000 - $20,000 | 🇦🇹 |
Selecting the right laser marking systems involves evaluating five critical factors: (1) Material type and maximum thickness — determine the minimum laser power required. (2) Work area dimensions — match to your largest sheet or part size, with common formats being 3015 (3000×1500mm) and 4020 (4000×2000mm). (3) Production volume — high-volume shops benefit from automation features like sheet loading/unloading and nesting software. (4) Budget — consider total cost of ownership including installation, training, consumables, and maintenance, not just purchase price. (5) Service and support — verify the manufacturer has local service partners in your region. Use our comparison table above to evaluate 25 options side by side, filtering by the specifications most important to your application.
Five primary factors determine laser cutting edge quality: (1) Laser power and beam quality (BPP/M²) — lower BPP values produce focused spots with higher energy density for cleaner cuts. (2) Cutting head optics — auto-focus heads with collimation adjustment optimize beam characteristics for different materials and thicknesses. (3) Motion system accuracy — positioning accuracy (±0.03mm typical for premium machines) and repeatability directly affect dimensional precision. (4) Assist gas selection and pressure — nitrogen for oxide-free edges on stainless and aluminum, oxygen for faster thick-steel cutting. (5) Mechanical rigidity — machine bed flatness, gantry stiffness, and vibration damping affect edge straightness and surface roughness. Compare these specifications across our 25 listed machines using the table above.