WellTec 353SEc Moulding Machine

Experience the pinnacle of injection molding technology with our cutting-edge machine, featuring a high rigidity clamping structure equipped with a linear slide rail and proportional valve, specially designed for high-speed systems. The tie bar is ingeniously crafted with a stress-relief groove, dispersing clamping stress to prevent breakage and enhance the machine's overall durability.

Our injection unit adopts a single-cylinder design, a strategic move to effectively eliminate the common issues associated with imbalanced double-cylinder injection systems, preventing potential breakage of the injection screw and piston. The clamping toggle's design has been optimized to follow a high-speed motion curve, minimizing stress during mold open/close operations, thus safeguarding against damage to the toggle mechanism.

Furthermore, stresses are evenly distributed through the platens and the center of the mold, ensuring high platen-parallelism that not only minimizes flashes but also reduces the demand for excessive clamping force. This innovative design not only enhances the machine's longevity but also optimizes its performance, making it the ideal choice for high-speed injection molding applications. Elevate your production capabilities with a machine engineered for precision, speed, and reliability.

• High rigidity clamping structure equipped with linear slide rail and proportional valve is more suitable for high speed system.
• The special stress-relief groove of tie bar is designed to disperse the clamping stress and avoid breaking.
• Injection by single cylinder to effectively avoid breaking of injection screw and piston which are commonly seen in the imbalanced double-cylinder injection designs.
• The design of the clamping toggle has been optimized to follow high-speed motion curve, and reduce stress for mould open/close which avoids damaging the toggle.
• Stresses are evenly distributed through the platens and the center of the mould, high platen-parallelism to minimize flashes and reduce the demand for clamping force.