Product Description:

The MSK100C-0200-NN-S1-RP2-NNNN is a servo motor manufactured by Bosch Rexroth Indramat in the MSK IndraDyn S Synchronous Motors series. As an IndraDyn S synchronous servo motor, it delivers tightly regulated rotary motion for automated transfer stations, packaging modules, and material-handling axes. When paired with a compatible IndraDrive servo amplifier, it converts commanded current into repeatable mechanical output for high-cycle, closed-loop machinery. It is intended for precise axis control in machines that rely on continuous feedback during indexing, transfer, and synchronized motion. The motor also supports repeated acceleration and deceleration in applications that require stable positioning over long operating cycles.

Cooling uses natural convection, so cabinet airflow is simplified because no fan is fitted. Feedback is transmitted through the Hiperface interface, and the measuring system yields 128 signal periods per revolution. This optical pickup is configured as a single-turn encoder, giving absolute position within one turn. The power connector sits on the right side of the housing, and the shaft is machined with a keyway. Size 100 laminations and the C-length package offer higher continuous torque than shorter builds, while the design remains standard across the series. The type code does not use length A, which leaves more thermal capacity in this frame size. Insulation class 155 accommodates elevated winding temperatures during dynamic duty.

An electrically released holding brake delivers 70 Nm of static torque to retain the load when power is removed. The motor is sealed to IP65, blocking dust and low-pressure water jets, and it operates in ambient temperatures from 0 to 40 °C when mounted to a properly sized flange. The three-phase winding identified by 0200 balances resistance and inductance for use with standard IndraDrive converters. During active motion, position control remains with the drive, while the brake is used for stationary load retention. The housing’s thermal mass supports continuous cycling in spaces where external airflow is limited.