Product Description:

The MLP100A-0120-FS-N0CN-NNNN is a primary section from the MLP Synchronous Linear Motors series produced by Bosch Rexroth Indramat. As a linear motor element, it replaces rotary motion and mechanical transmissions with direct thrust along a track, making it suitable for positioning tables, gantries, and pick-and-place modules in automated production lines. Its role in industrial automation is to generate controlled linear force when paired with a compatible secondary track and drive controller, providing precise motion without backlash. Because force is generated directly in the axis, the system avoids belts, gearboxes, and screw drives that can add wear or compliance. This arrangement helps maintain smooth acceleration and accurate positioning in repetitive motion tasks.

This model uses liquid cooling, so heat is removed through a closed coolant channel integrated into the stator housing. Power conductors are routed with wires conducted through the front, which simplifies cable management on moving axes. The windings use a standard encapsulation method, which secures the copper coils against vibration and contaminants. Position feedback hardware is omitted, and the motor is supplied with no encoder installed for systems that use external measuring systems or sensorless control. The physical build follows motor length A, which matches the active coil section to medium-stroke applications.

The dimensional envelope aligns with motor size 100, giving a stator width that fits standardized secondary tracks while delivering moderate peak thrust. The unit is compatible with IndraDrive controllers, and it belongs to the MLP Synchronous Linear Motors series. Coolant circulates through an internal liquid circuit, which supports continuous duty when the inlet temperature stays within the permitted range. This layout helps the motor fit machine axes that need a compact primary section with consistent thrust across the travel path. It also supports direct-drive motion on automated axes that need steady force response over repeated cycles.