In heavy-duty industrial manufacturing, stamped components—such as truck longitudinal beams, construction machinery frames, and EV battery enclosures—face immense forming resistance and require long-distance material handling. Our Massive Stamping Line is precision-engineered for these extreme operational conditions. By integrating multi-thousand-ton press groups with heavy-duty 6-axis robotics or long-stroke servo transfer systems, this solution handles high-strength plates exceeding 10mm in thickness with ease. Through reinforced frame rigidity and optimized load distribution, we ensure micron-level accuracy even under continuous maximum-load cycles, establishing industry-leading Technical Authoritativeness.
| Feature | Specification | Strategic Value |
|---|---|---|
| Total Tonnage | 2000T - 5000T (and above) | Meets requirements for thick plate & high-strength steel forming |
| Max Transfer Payload | 250kg - 500kg (per station) | Handles heavy structural parts and robust EOAT systems |
| Bolster Dimensions | 5000mm x 2500mm+ | Provides ample space for oversized panels & multi-die layouts |
| Off-center Load Capacity | Reinforced 4-Point Support | Prevents frame deflection during asymmetrical stamping |
| Material Thickness Range | 3.0mm - 12.0mm | Tailored for truck chassis and heavy machinery sectors |
We utilize Closed-Loop Position Compensation. The servo drives automatically adjust acceleration/deceleration slopes (S-curves) based on real-time payload sensing. Laser sensors on the EOAT detect any part slippage, maintaining a repeatability of ±0.15mm even for 300kg workpieces.
We provide Heavy-Duty Moving Bolsters with load capacities exceeding 100 tons. Integrated with automated centering and hydraulic clamping, even the largest die sets can be swapped within 15 minutes, maximizing uptime for small-batch heavy production.
Our systems feature a Dynamic Energy Distribution Module. By capturing regenerative energy during press deceleration and storing it in supercapacitor arrays, we can offset peak current demands during the subsequent stroke, reducing total peak power requirements by over 30%.