IPG Photonics2.5kW
LightWELD 2500 XRMax Steel6mm
Price$15,000 - $25,000
Browse 6 manual laser welding systems from 6 manufacturers. Compare automation features and throughput.
6 manual machines from 6 manufacturers span 0.2kW to 2.5kW (average 1.5kW). 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 6 systems from 4 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 |
|---|---|---|---|---|---|---|
| IPG Photonics LightWELD 2500 XR | 2.5kW | — | 6mm | — | $15,000 - $25,000 | 🇺🇸 |
| Han's Laser HW-2000 Handheld Welder | 2kW | — | 5mm | — | $5,000 - $12,000 | 🇨🇳 |
| SPI Lasers (Trumpf) CW 2kW | 2kW | — | 6mm | — | $30,000 - $60,000 | 🇺🇰 |
| TRUMPF TruLaser Station 7000 2kW | 2kW | 800×600 | 6mm | — | $100,000 - $180,000 | 🇩🇪 |
| Perfect Laser PE-W500 Welding | 500W | — | 4mm | — | $5,000 - $12,000 | 🇨🇳 |
| Rofin-Sinar StarWeld Performance | 200W | — | 3mm | — | $50,000 - $100,000 | 🇩🇪 |
Selecting the right laser welding 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 6 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 6 listed machines using the table above.