MDD025A-N-100-N2G-040FC0

Without a brake, the motor cannot hold position under external loads when unpowered or during power loss; this demands mechanical locking or safety interlocks in vertical or heavy-load applications. Motion control must include failsafe stops, power-down braking via drive or external brake, and possibly monitoring of shaft back-drive.

Standard housing reduces cost and size, but offers lower protection (e.g. no shaft seal) so vulnerability to environmental factors (dust, liquids) increases; special versions add protection but increase cost, size, and possibly affect thermal dissipation. For industrial or B2B environments, selection of housing type should consider cleaning, washdowns, or exposure to contaminants.

Yes, provided the controller (drive) supports high switching rates, fast current loop response, and that the motor’s thermal capacity and mechanical load inertia are compatible; rapid reversals increase cyclical stresses on bearings and feedback components. The resolver feedback helps maintain accurate positioning during dynamic behaviour, but duty cycle and peak torques must be within spec.

A 40 mm centering diameter means the mounting housing and coupling must accurately match that dimension to maintain concentricity; misalignment can cause vibration, increased radial loads on bearings, and premature failure. Couplings should accommodate thermal expansion and misalignment without imposing excessive loads on the shaft.

The drive must support resolver feedback input, match the continuous torque & speed (10,000 min⁻¹), and provide sufficient current headroom for peaks. Additionally, wiring, filtering, and the drive’s cooling capacity must accommodate the motor’s thermal dissipation during high-duty cycles.