Product Description:

The MHD093C-024 is a servo motor produced by Bosch Rexroth Indramat. It acts as an electromechanical drive element for closed-loop position and velocity control on numerically controlled machine axes and automated handling modules. By converting drive current from an Indramat power module into precise rotary motion, the unit supplies commanded torque directly to the load without intermediate gear stages. That operating role supports accurate contouring, repeatable indexing, and stable speed regulation in synchronized gantries, packaging carousels, and tool spindles used in industrial automation cells. It is suited to applications where coordinated motion between multiple axes depends on predictable response during acceleration and deceleration.

Its continuous output capability is 23.0 Nm, allowing the axis to hold or move moderate inertial loads without overheating during sustained duty. A centering pilot of 130 mm helps align the housing to the machine frame so that radial runout is minimized when the shaft is coupled. The square flange footprint of 140 / 150 mm provides a standardized bolt pattern for DIN mounting plates and gives the housing a rigid base during rapid acceleration and deceleration. Inside the stator, winding code 024 indicates the copper arrangement used for this motor variant and its related electrical characteristics. Thermal stability is supported by epoxy-impregnated lamination stacks and integrated temperature sensors.

The dimensional envelope supports integration into compact cells: motor frame 093 supplies the rotor diameter, while length code C extends the active iron for higher energy density without changing shaft height. Within the MHD Synchronous Motors series, the motor uses feedback and cooling arrangements common to that platform. A precision-ground mounting flange seats against the machine wall to keep axial misalignment low during coupling. The extended active length also provides more magnetic material in the same shaft center height, which helps the motor sustain demanding motion profiles. This layout helps preserve smooth rotation, consistent bearing loading, and repeatable positioning over long operating periods.