MSK071E-0200-NN-M2-UP1-RNNN

MSK071E-0200-NN-M2-UP1-RNNN, Bosch Rexroth Indramat, MSK IndraDyn S Synchronous Motors. The MSK071E-0200-NN-M2-UP1-RNNN offers a compact, high-performance servomotor design optimized for precision motion control. Featuring an increased concentricity Design and a robust Shaft Type with keyway, this motor ensures repeatable positioning and long-term mechanical stability. Its Product Type classification as an IndraDyn S Synchronous Servomotor underlines its suitability for demanding automation and robotics applications where accuracy and reliability are paramount. Built with a rotatable, 240° Encoder Connector interface, it simplifies cable routing in tight installations.

Engineered for dynamic operation, the motor delivers a Maximum Torque of 84.0 Nm and sustains a Continuous Torque at Standstill 100 K of 28.0 Nm using a Continuous Current at Standstill 100 K of 12.6 A. Peak performance is enabled by a Maximum Current rating of 45.5 A, while the Winding Inductivity of 9,150 mH smooths current flow and reduces electrical noise. Feedback precision comes from the multiturn absolute Encoder Technology with an Encoder Resolution of 2048 signal periods, communicated via the high-speed Encoder Interface EnDat2.1. Passive Cooling by natural convection eliminates fan-related maintenance, maintaining performance across the full operating range of the Motor Length E frame in the Motor Size 071 series. The integrated electrically-released Holding Brake provides a holding torque of 23 Nm, ensuring secure stops during power loss or controlled deceleration.

Installation and integration are streamlined by the standardized Rated Speed Code 0200 interface and the motor’s compact envelope. Its increased concentricity design reduces vibration, enhancing reliability and bearing life in continuous-duty scenarios. The combination of high-resolution feedback, robust holding brake, and maintenance-free cooling makes the MSK071E-0200-NN-M2-UP1-RNNN an ideal choice for high-precision conveyor systems, CNC machinery, and collaborative robotic cells.