● Optimized External Rotor Structure

• Rotor and shell are integrated, enabling higher moment of inertia through external rotation, improving low-speed stability and heat dissipation (heat is rapidly conducted through the shell).

• Internally positioned stator minimizes electromagnetic interference on the load, ensuring precision in sensitive control scenarios.

● High Torque Density and Efficiency

• Utilizes multi-pole permanent magnet layouts and vacuum potting technology, increasing torque density by 20%-30% compared to conventional motors, delivering higher torque per unit volume.

• Reduces mechanical transmission losses, improving energy transfer efficiency by 10%-15% and lowering iron/copper losses.

● Dynamic Response and Precision

• Directly drives loads, eliminating backlash from gears/belts, boosting response speed by 25%-40%, and achieving micrometer-level positioning accuracy.

• External rotor structure supports low-speed high-torque output, ideal for smooth operation and precision-critical applications.

● Enhanced Heat Dissipation and Lightweight Design

• Direct contact between the external rotor and shell, combined with high thermal conductivity materials, improves heat dissipation efficiency by 20%-30% and reduces temperature rise by 15%-25%.

• Removal of redundant frames reduces weight by 30%-50%, making it suitable for weight-sensitive applications like aircraft or mobile robots.

● Customizable Integration Flexibility

• Supports parameter customization (rotor dimensions, magnetic waveforms) for seamless embedding into mechanical structures, meeting diverse design requirements.

• Modular design simplifies maintenance and reduces integration complexity.

● Quiet Operation and Low Maintenance Costs

• No mechanical transmission friction, operating at sound pressure levels below 50dB.

• Simplified structure reduces wear-prone components, lowering maintenance frequency by 60%-80%.