Audited Supplier
2M42-40A-2050
Industrial Machinery
Based on Customer's Requirements
Can Be Customized
HB-Hybrid
Control, Driving
8
The Three Single Phase
Magnetic-Electric
ISO9001, CCC
Can Be Customized
12V-24V
1A-1.7A
0.13-3.8nm
0.5-3.6
±10%
±20%
1600-4800
Under 80K
Class B 130°
1 Years
BBA
Export Carton
Customize according to the product
Dongguan, China
8501109990
Product Description
High quality 2 3 phase stepper driver customized NEMA 8 11 14 17 23 24 34 42 52 cnc hybrid stepper motor micro stepper motor A stepper motor is a type of electric motor that divides a full rotation into a series of discrete steps, offering precise control over its position, speed, and acceleration.
Stepper Motor Features:
1. Discrete Steps, High Precision
Stepper motors move in fixed increments or steps, which allows precise positioning without the need for feedback systems (in open-loop configurations). Each step typically corresponds to a fixed angle, such as 1.8° (for 200 steps per revolution) or 0.9° (for 400 steps per revolution), ensuring accurate control.
2. Open-Loop Control
Most stepper motors operate without the need for feedback (like encoders), making them simpler and more cost-effective than servo motors.
3. Holding Torque
Stepper motors can hold their position firmly when stopped, providing high holding torque without active movement. This is beneficial in applications requiring stationary holding positions.
4. No Need for Position Feedback
Since the motor moves in discrete steps, the position can be inferred based on the number of steps moved, avoiding the need for continuous feedback sensors.
5. Low Speed, High Torque
Stepper motors provide good torque at low speeds, which makes them ideal for applications that require precision at slow
speeds, such as CNC machines or 3D printers.
6. Bidirectional Control
Stepper motors can rotate in both directions by adjusting the current flow in the windings, allowing for easy reversal of motion.
7. Simple Control, Durability and Reliability
The control of a stepper motor is straightforward, with step signals generated by external controllers or drivers. This can be done using a micro controller like an Arduino or Raspberry Pi. Stepper motors have fewer wear-and-tear components compared to brushed DC motors since they don't have brushes or commutators, making them highly reliable for long-term usage.
Stepper motors move in fixed increments or steps, which allows precise positioning without the need for feedback systems (in open-loop configurations). Each step typically corresponds to a fixed angle, such as 1.8° (for 200 steps per revolution) or 0.9° (for 400 steps per revolution), ensuring accurate control.
2. Open-Loop Control
Most stepper motors operate without the need for feedback (like encoders), making them simpler and more cost-effective than servo motors.
3. Holding Torque
Stepper motors can hold their position firmly when stopped, providing high holding torque without active movement. This is beneficial in applications requiring stationary holding positions.
4. No Need for Position Feedback
Since the motor moves in discrete steps, the position can be inferred based on the number of steps moved, avoiding the need for continuous feedback sensors.
5. Low Speed, High Torque
Stepper motors provide good torque at low speeds, which makes them ideal for applications that require precision at slow
speeds, such as CNC machines or 3D printers.
6. Bidirectional Control
Stepper motors can rotate in both directions by adjusting the current flow in the windings, allowing for easy reversal of motion.
7. Simple Control, Durability and Reliability
The control of a stepper motor is straightforward, with step signals generated by external controllers or drivers. This can be done using a micro controller like an Arduino or Raspberry Pi. Stepper motors have fewer wear-and-tear components compared to brushed DC motors since they don't have brushes or commutators, making them highly reliable for long-term usage.
