Handheld tightening module

in-lineportablevacuum

Overview
The handheld quick-change tightening module accepts interchangeable female heads to tighten various screw types. It is designed for production lines that require frequent type changes and for assemblies with multiple screw specifications. Torque range: 0.3–15 Nm.

Product Advantages

• Integrated quick-swap mechanism for rapid model changeovers
• Lower tooling and changeover costs
• Wear components are replaceable independently to reduce downtime
• Supports multi-product line production and frequent variant switches
• Versatile use across different assembly machines
• Compatible with standard and hexagonal screws
• Scalable mechanical design for future expansions
• Vacuum screw-suction monitoring to prevent fastener drops
• Maintains structural stability during full-system model transitions
• Enables end-to-end process controllability and integration

Related Application Cases

• New energy vehicle industry — integrates automatic feeding, intelligent tightening and digital control for automated assembly upgrades
• Automotive industry — applicable to fastening tasks across diverse components for high-efficiency vehicle production
• Energy storage industry — ensures secure and consistent tightening through automated feeding and control
• Communications industry — reduces manual intervention with automatic assembly solutions to improve accuracy
• 3C electronics industry — supports flexible automation for varied electronic assembly processes

Technical specifications

• Product type: Handheld quick-change tightening module
• Torque range: 0.3–15 Nm
• Function: Quick-change tightening using interchangeable female heads
• Suitable for: Multiple screw types and in-line production with frequent type changes
• Key features: Quick-swap mechanism, replaceable wear components, vacuum screw-suction monitoring
• Compatibility: Standard screws and hexagonal screws
• Design: Scalable for future expansion; supports multi-product line production
• Quality controls: Structural stability during model transitions; end-to-end process controllability