MDD025A-N-100-N2G-040FR1

Holding high torque at zero speed causes current to flow continuously without cooling from rotation, so thermal rise depends heavily on ambient temperature and heat sinking—mounting the motor on a well-conductive frame and possibly forced convection becomes necessary. If thermal limits are exceeded, insulation life and magnet integrity may degrade.

A precise centering diameter helps ensure coaxial alignment with gearboxes, shafts or couplings, reducing misalignment-induced loads on bearings and prolonging life. It also simplifies the design of mounting plates or adapters because standard 40-mm centering tooling can be used.

A plain shaft means that torque must be transmitted via shrink fit, clamp coupling, or other frictional coupling rather than relying on a key, which avoids stress concentrations but requires precise coupling design (surface finish, fit tolerance). Mismatched coupling slip or tolerances can lead to backlash or slippage under peak torque.

Smaller frame and shorter length reduce rotor mass and rotational inertia, enabling quicker acceleration and deceleration. However, the trade-off is limited torque and mechanical robustness, so for heavier load inertia the drive must be sized accordingly to avoid overshoot or sluggish motion.

Its compact size, high speed, and resolver feedback make it ideal for robotics, semiconductor tools, and packaging machines where precision and dynamic response matter. Limitations include environments with high ambient temperature without cooling, very high shock/vibration (if not properly mounted), or requirements for IP-rated protection (since it lacks a shaft seal in original spec).