Product Description:

The MSK050C-0600-NN-M1-UP1-NSNN is an IndraDyn S synchronous servomotor manufactured by Bosch Rexroth Indramat for the MSK IndraDyn S Synchronous Motors series. Built in frame size 050 with length code C, the unit converts drive current into precise rotary motion for positioning axes, feeders, and pick-and-place heads across automated production lines. When paired with an IndraDrive amplifier, it supports closed-loop control where accurate speed, torque, and absolute position feedback are required. It is well suited to indexing, transfer, and placement tasks that demand quick direction changes and repeatable stopping accuracy.

Cooling relies on natural convection, which dissipates heat through the stator housing without forced air or liquid circuits, so surrounding airflow must carry away the thermal load. Because the motor does not rely on external cooling hardware, installation around the motor body can remain simpler. Winding code 0600 corresponds to electrical resistance and inductance values matched to standard IndraDrive output stages. The motor uses a shaft with a keyway, which helps pulleys or couplings transmit torque without slip. For load holding, the motor contains an electrically released brake with 6 Nm of static torque, allowing vertical axes to remain stationary when power is removed. Position feedback travels over the Hiperface serial interface, which sends digital encoder data to the drive controller.

The encoder section provides multi-turn absolute sensing with 128 signal periods per revolution, so the controller receives high-resolution angular data together with the count of completed turns. That feedback supports stable commutation and precise position tracking during repeated motion cycles. The power and feedback connection is rotatable through 240°, which lets the cable exit be aligned with nearby machine panels and helps reduce bending strain at the connector. The motor uses the standard design with explosion protection option, which supports use in conventional factory areas as well as locations that require limited energy release. Optical scanning maintains measurement stability over time, and the compact build supports fast acceleration on dynamic axes.