Stepper Motor X-NMS17C-WE01

Specifications

Microstep Size (default Resolution): 490.866 urad
Accuracy (unidirectional): 4.3625 mrad
Maximum Speed: 2650.1 rpm
Minimum Speed: 4607.592 urad/s
Integrated Controller: Yes
Integrated Encoder: Yes
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Features


  • NEMA 17 Stepper Motor with Built-in Controller: Integrated controller and motor encoder for seamless operation.

  • High Precision Microstepping: Achieve up to 25,600 microsteps per revolution for precise control.

  • Impressive Speed and Torque: Capable of up to 2,650 rpm speed and 30 N·cm torque.

  • Home Sensor Included: Comes with a detachable home sensor, mounting screw, and a small magnet; optional away sensor available.

  • Daisy-chain Capability: Easily connect data and power with other X-series products for streamlined integration.

  • Manual Control: Indexed knob provides convenient manual control without a computer.

  • Versatile Connectivity: Connects via USB 2.0 or RS-232 port; supports Zaber ASCII and Zaber Binary communication protocols.

  • Secure Connections: Features locking, 4-pin, M8 connectors for secure unit connections.

  • Power Sharing: Multiple X-Series products can share a single power supply.

  • High Accuracy and Repeatability: Unidirectional accuracy of 0.25° and repeatability of < 0.1°.

  • Encoder Resolution: Motor-mounted rotary quadrature encoder with 500 CPR for high-resolution feedback.

  • Robust Design: NEMA 17 motor frame size with a 5 mm shaft diameter.

  • Compliance and Safety: RoHS and CE compliant, with operating temperature range of 0 to 50 °C.

  • Compact and Lightweight: Weighs only 0.61 kg (1.345 lb).

Applications


  • Precision Manufacturing: Ideal for use in CNC machines, 3D printers, and other precision manufacturing equipment where accurate motion control is critical.

  • Robotics: Suitable for robotic arms and automated systems requiring precise and repeatable positioning.

  • Laboratory Automation: Perfect for laboratory equipment that requires precise movement, such as automated microscopes or sample handling systems.

  • Medical Devices: Can be used in medical equipment that demands precise and reliable motion control, such as imaging devices or surgical robots.

  • Textile Machinery: Useful in textile machines where precise control of fabric movement is necessary.

  • Semiconductor Manufacturing: Suitable for wafer handling and processing equipment that requires high precision.

  • Optical Equipment: Ideal for use in optical inspection and manufacturing equipment where precise alignment is required.

  • Automated Test Equipment: Can be used in testing systems that require precise and repeatable movement for accurate testing results.