Product Description:

The MSK100C-0200-NN-S1-BP0-NSNN is a synchronous servomotor manufactured by Bosch Rexroth Indramat and belongs to the MSK IndraDyn S Synchronous Motors series. Designed for closed-loop motion axes, the unit converts drive current into precise torque and speed for pick-and-place stations, packaging machines, and similar industrial automation duties. It is intended for applications that require repeatable positioning, stable velocity control, and fast response during frequent starts and stops. When paired with a compatible servo drive, the motor supports accurate axis movement in machines that operate through continuous production cycles.

Cooling by natural convection eliminates the need for forced air, and the size 100 housing with length code C provides enough exterior surface for passive heat dissipation. The internal winding set carries code 0200 and is matched to a Hiperface encoder interface that provides 128 signal periods of feedback. That feedback is generated by an optical sensing head in a single-turn format, so the drive receives absolute position information within one revolution. Because the motor is supplied without a holding brake, load retention must be provided externally when power is removed. Power is routed through a connector on side B, while the feedback connection remains on the opposite face to keep the cable paths separated.

The exterior of the housing meets IP65 protection, so dust is kept out and low-pressure water jets will not interfere with normal operation. Mechanical output is provided through a shaft with keyway, which supports direct coupling to components that use keyed torque transmission. The insulation system is rated at 155, allowing the windings to tolerate elevated internal temperatures during normal servo duty. The motor is intended for ambient air between 0–40 °C, which suits standard indoor industrial installations. This combination of sealing, shaft design, and thermal capacity fits feed drives and auxiliary axes that run with repeated speed changes and intermittent load variation.