Stationary electromagnetic component in servo/stepper motors that generates rotating magnetic fields to drive rotor motion.
| Parameter | Typical range | Notes & selection driver |
|---|---|---|
| Current Rating | 1A-50A per phase | |
| Voltage Rating | 24V-480V AC/DC | |
| Insulation Class | Class F (155°C) or Class H (180°C) | |
| Slot Fill Factor | 70%-85% | |
| Inductance Per Phase | 1mH-100mH | |
| Resistance Per Phase | 0.1Ω-10Ω | |
| Winding Configuration | 3-phase for servo, 2-phase or 4-phase for stepper |
Ranges are indicative industry figures for RFQ preparation, not a supplier commitment. Confirm every value and standard with the legal manufacturer before ordering.
This component is used in the following industrial products
Precision electric motors that provide controlled rotational motion for positioning and speed control in industrial automation systems.
Electric motor that provides rotational power to drive the blending mechanism in pharmaceutical powder blending equipment
The main motor is the core power component of a panel saw, responsible for converting electrical energy into mechanical rotation to drive the circular cutting blade.
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Servo motor stators typically use 3-phase windings for smooth, high-speed rotation with feedback control, while stepper motor stators have 2-phase or 4-phase windings for precise step-by-step positioning without feedback. Servo stators are optimized for dynamic torque, whereas stepper stators focus on holding torque and step accuracy.
Winding configuration, wire gauge, and turn count directly impact torque, speed, efficiency, and thermal characteristics. Higher turn counts increase torque but reduce speed, while thicker wire lowers resistance for higher current capacity. Proper winding design minimizes cogging, reduces losses, and ensures compatibility with drive electronics.
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