Product Description:

The MSK101C-0200-NN-M1-BP0-NNNN is a synchronous servo motor produced by Bosch Rexroth Indramat within the MSK IndraDyn S Synchronous Motors series. In automated packaging lines, printing presses, and material-handling axes, this motor transforms regulated drive current into accurate rotary motion that follows position and velocity commands from the controller. Its standard mechanical design and integrated feedback allow the connected drive to close the torque, speed, and position loops without auxiliary sensors. This makes the unit suitable for applications that require repeatable starts, stops, and speed changes on the same machine axis.

Heat generated in operation is dissipated through natural convection, so the housing must have unrestricted airflow rather than a fan or liquid circuit. The frame size of 101 mm provides a larger stator bore for higher continuous torque compared with smaller models, which helps when the axis must carry more mechanical load. Winding code 0200 corresponds to the resistance and inductance set used by the drive for current limits and commutation angles. Power wiring exits on the B-side of the housing, allowing cables to run parallel to the machine frame and reducing bend stress in tight cabinets, while the standard design, motor length C, and keyed shaft support conventional machine integration.

For precise feedback, the motor carries an Hiperface-compliant encoder that produces 128 signal periods per mechanical turn. Because the sensing element is optical, the feedback signal is less affected by magnetic interference and remains stable during controlled motion. The device uses a multiturn absolute encoder, so the drive can retain shaft position information across multiple revolutions after power is restored. Mechanical holding force is not provided internally, as the motor is supplied without a holding brake; any required static torque must be supplied by the drive or external clamps. This feedback arrangement supports accurate positioning, controlled acceleration, and stable low-speed operation in inverter-driven systems.