Screwdriving
Background
Screwdriving is one of the most frequent assembly steps in electronics, appliances, and automotive production. Over-tightening can strip threads, under-tightening can loosen joints, and handheld screwdriving often causes missed screws and wrist strain.
Industry Pain Points
Torque Control, Strain, and Traceability
Manual torque control depends on feel and can cause over-tightening, under-tightening, or missed screws.
Long handheld screwdriver use can cause wrist and shoulder strain.
Advanced applications need torque monitoring and traceable data.
01
Cost and ROI
Competitive hardware cost gives small and midsize manufacturers and integrators clear advantages in total procurement, integration, and project payback.
02
Plug-and-Play Setup
The ISO flange and standard I/O simplify integration of electric screwdrivers, feeders, and automatic screwdriving end effectors.
03
Open Development
ROS/ROS2 packages and Python/C++ SDKs help integrators build process-specific screwdriving logic and secondary integration.
04
High-Precision Positioning
±0.02 mm repeatability helps align each bit, screw, and screw hole, reducing thread stripping, floating screws, and missed screws.
05
Screwdriving Consistency
Stable robot motion and rhythm reduce manual torque variation; optional force/torque sensing can support higher torque control and traceability.
06
Vision Integration
The UFACTORY 850 connects to 2D/3D vision for workpiece and screw-hole localization on flexible lines with position variation.
07
Flexible Changeover
Lightweight construction and simple programming support quick station transfer, product changeover, and varied screwdriving tasks.
08
Labor Value Release
Robots reduce repetitive handheld screwdriver work, wrist and shoulder strain, staffing pressure, and capacity bottlenecks.
UFACTORY Demo
Not sure which model fits your workflow?
Our team will match the right robot and configuration to your needs.
