MSK075D-0200-NN-S2-UG1-RNNN

MSK075D-0200-NN-S2-UG1-RNNN, Bosch Rexroth Indramat, MSK IndraDyn S Synchronous Motors assemble into a compact yet powerful servomotor platform optimized for precision drive systems. The MSK075D-0200-NN-S2-UG1-RNNN from Bosch Rexroth Indramat in the MSK IndraDyn S Synchronous Motors series delivers seamless synchronization for high-speed motion control in industrial assembly and pick-and-place applications. Engineered for vibration severity grade A environments, it incorporates an Increased concentricity design for enhanced mechanical stability and minimal runout. A Plain shaft profile and rotatable Encoder Connector ensure flexible integration into multi-axis setups.

In its nominal state, natural convection Cooling maintains thermal stability under continuous operation, while the Continuous Current at Standstill 100 K of 9.0 A and Continuous Torque at Standstill 100 K of 18.5 Nm support precise holding performance. Dynamic peak capability is defined by a Maximum Current of 37.4 A and a Maximum Torque rating of 64.0 Nm, enabling rapid acceleration cycles. The integrated optical Encoder Technology features a Singleturn Encoder Turn Type, delivering 2048 signal periods resolution via the high-speed EnDat2.1 Encoder Interface. A Winding Inductivity of 11,700 mH provides smooth current transitions, while the Winding Code 0200 defines a robust electromagnetic design for repeatable torque output across a broad speed range.

Integration is simplified by the factory-fitted With holding brake, electrically-released unit, offering a Holding Brake Torque of 23 Nm to lock the motor shaft securely at 24 V DC de-energized state. The design’s concentric rotor-stator alignment and brushless electronic commutation ensure spark-free operation and extended service intervals. As a dedicated IndraDyn S Synchronous Servomotor, the MSK075D-0200-NN-S2-UG1-RNNN reliably adapts to automated manufacturing lines, providing consistent torque, minimal maintenance, and straightforward encoder connectivity for advanced motion-control architectures.