Industry Applications

Challenge:Narrow bezel alignment leaves minimal clearance; high-speed motion risks overshoot, creating a trade-off between precision and scratch hazards.

Plan:Reconfiguring flexible alignment with an integrated direct-drive platform; achieving impact-free bonding through force-controlled micro-stops and multi-axis coordination.

Effect:Significantly reduced alignment time, substantially lower scratch rates, and simultaneous improvements in yield and hourly output.

Challenge:Multi-axis precision alignment is too slow, micro-vibrations are difficult to suppress, and coupling efficiency and output consistency are insufficient.

Plan:Refactor the multi-axis motion control architecture to achieve rapid convergence and alignment through high-dynamic coordination and vibration suppression.

Effect:Alignment time significantly reduced, coupling efficiency improved, and mass production consistency elevated to a higher level.

Challenge:Insufficient trajectory accuracy at high speeds, corner overcutting, and lag in galvo-platform synchronization.

Plan:Coreless U-shaped motor high-dynamic direct-drive platform for synchronized galvo motion, trajectory lookahead algorithm enabling high-speed tracking and coordination

Effect:Eliminate corner overcutting, boost cutting efficiency, and significantly enhance consistency in large-format precision machining.

Challenge:The lead screw mechanism is affected by mechanical backlash. As pick-and-place cycle times accelerate, frequent start-stop operations induce vibration, making it difficult to balance precision and speed.

Plan:Iron-core coreless motors with central coils eliminate vibration at the source via normal force, achieving high thrust-to-weight ratios to break through high-acceleration positioning bottlenecks.

Effect:Significantly reduced settling time, faster placement cycle, and consistent accuracy across all shifts.

Challenge:In high-speed handling of large-format thin batteries, reducing fragmentation rates and increasing cycle time present a core conflict.

Plan:Reconstruct the motion control architecture to enable smooth, high-speed transport through low-impact flexible transmission and vibration suppression technology.

Effect:Significantly reduced fragmentation rate, broken through bottleneck in handling cycle time, and achieved simultaneous improvement in overall yield and production efficiency.

Challenge:High-speed die bonding demands extreme precision; achieving micron-level positioning while ensuring gentle placement is challenging and risks chip damage.

Plan:High-acceleration direct-drive platform with force-controlled soft landing and carbon fiber lightweighting for low-impact, precision placement.

Effect:Significantly shorter die bonding cycle, reduced chip damage rate, and simultaneous improvements in production capacity and yield.

Challenge:Tidal volume control requires millisecond-level response; achieving both pressure and flow accuracy under high-frequency dynamic conditions is challenging.

Plan:Replace traditional pneumatic valve control with voice coil motor closed-loop force feedback for soft, precise airflow and silent operation.

Effect:Significantly reduced ventilation following error, improved human-machine synchronization, and enhanced device lifespan and reliability.

Challenge:Joints must deliver high torque in compact spaces. Traditional solutions are bulky, have high inertia, and suffer from limited dynamic response.

Plan:Integrated frameless torque motor direct-drive joint: lightweight design with high torque density for safe collaboration and agile response.

Effect:Significantly reduced joint volume and weight, synchronized improvements in motion rhythm and precision, more sensitive collision detection, and enhanced safety for collaborative operations.