Nema 42 hybrid closed-loop stepper motor was a significant development in the field of stepper motors. This type of motor offers a number of advantages over traditional stepper motors, including:
Higher precision: The closed-loop controller ensures that the motor rotates exactly as commanded, providing high precision and accuracy.
Higher torque: The Nema 42 hybrid closed-loop stepper motor produces higher torque, making it ideal for applications that require a lot of force.
Lower speed: The motor can operate at lower speeds, making it ideal for applications that require precise positioning.
Less prone to losing steps: Closed-loop stepper motors are less prone to losing steps than traditional stepper motors, which can lead to increased accuracy and precision.
More efficient: Closed-loop stepper motors are more efficient than traditional stepper motors, which can lead to increased performance and reduced energy consumption.
Some additional details about the Nema 42 hybrid closed-loop stepper motor:
Step angle: The step angle is the angle that the motor shaft rotates when one step of current is applied. The step angle of a Nema 42 hybrid closed-loop stepper motor is typically 1.8 degrees.
Holding torque: The holding torque is the maximum torque that the motor can produce while holding its position. The holding torque of a Nema 42 hybrid closed-loop stepper motor is typically 20 Nm.
Rated current: The rated current is the current that the motor is designed to operate at. The rated current of a Nema 42 hybrid closed-loop stepper motor is typically 3 A or 5 A.
Voltage: The voltage that the motor operates at is typically 24 V.
Overall, a Nema 42 hybrid closed-loop stepper motor is a powerful and precise motor that is ideal for applications that require high torque and low speed. It is more expensive than a standard stepper motor, but it offers a number of benefits, such as increased accuracy, efficiency, and performance.
Item | Specification |
Step Angle | 1.2。 |
Step Angle Accuracy | ±5% Full step,No load |
Resistance Accuracy | ±10% |
Inductance Accuracy | ±20% |
Temperature Rise | 80℃ Max (rated current, 2-phase energization) |
Ambient Temperature | -20℃~+50℃ |
Insulation Resistance | 100MΩMin. ,500VDC |
Dielectric Strength | 800VAC , 1s , 5mA |
Shaft Radial Play | 0.025mm @5N |
Shaft Axial Play | 0.075mm @ 10N |
Max Radial Force | 330N (Start from Flange 20mm) |
Max Axial Force | 100N |
Model | Voltage | Current | Resistance | Inductance | Hold Torque | Rotor Inertia | Weight | Length |
Unit | VDC | A | Ω | mH | N.m | g-cm2 | kg | mm |
110BYG350-134 | 80-200 | 3 | 3.15 | 17 | 8 | 6000 | 6.5 | 134 |
110BYG350-185 | 80-200 | 5 | 2.14 | 17.5 | 16 | 13560 | 9 | 185 |
110BYG350-219 | 80-200 | 5.2 | 1.93 | 23 | 20 | 17400 | 11.1 | 220 |
110BYG350-285 | 80-200 | 5 | 2.9 | 27 | 25 | 20000 | 13 | 285 |