Description
High-Resolution Incremental Encoder: The MIG Nova+ is an incremental encoder designed for precise speed feedback in automated industrial processes, boasting a high resolution of 256 pulses per revolution per channel. This enables more accurate regulation and control of motor speed and positioning compared to basic encoders.
Superior Signal Stability: The enhanced signal stability of the Nova+ minimizes electronic noise and signal errors, ensuring consistent and reliable feedback even in environments with high electromagnetic interference. This makes it ideal for advanced motion control applications.
Durable Stainless Steel Construction: The housing and components are made from stainless steel, providing excellent resistance to corrosion and mechanical stresses. This ensures long life and minimal maintenance in harsh or outdoor environments frequently encountered in industry.
Complies with IEC 160B5/IEC Norms: The 350mm flange (BCD 300mm) and 42mm shaft diameter suit the IEC 160B5 standard, supporting seamless integration into a wide range of industrial motors and machinery.
Flexible Output Options: Output signals include A90°B / A’90°B’ (HTL/TTL), enabling compatibility with various controllers, PLCs, and servo drives. This versatility improves integration into both new and existing automation systems.
Wide Input Voltage Range: Operates from 5 to 24VDC, providing flexibility for different control systems and ensuring stable performance across diverse installation scenarios.
Extended Cable Length: A standard 5-meter cable allows for flexible mounting and easy integration, even when control cabinets are located further from machinery.
Enhanced Environmental Protection: With an IP55/IP67 classification, the encoder is protected against dust and powerful water jets, as well as temporary immersion, making it suitable for use in demanding and wet industrial settings.
Ideal Applications: The MIG Nova+ is engineered for automated production lines, robotics, CNC machinery, packaging systems, and process automation where precise speed and position feedback are critical for optimal system performance.

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