MDD025A-N-100-N2G-040GD0

Resolver feedback offers robust analog position signals and high resistance to electromagnetic interference, but introduces phase lag and requires proper filtering in the drive to avoid overshoot. For high-speed operation (10,000 min⁻¹), the control system must ensure low latency and accurate calibration of resolver offset to maintain precise torque and position control.

This moderate torque at zero speed means the motor can hold a load without motion—but only for light loads or with gearing—making it suitable for small actuators or precision positioning, not heavy static loads. For robotics arms or end effector uses, you’d need to size for both torque at speed and torque at standstill including mechanical leverage or gearbox ratios.

Yes—without a blocking brake, the motor cannot mechanically prevent motion under power loss or gravity, so vertical or over-hung loads risk drift or backdrive unless external brakes or mechanical locks are used. Safety systems or failsafe mechanisms must be integrated if used in lifting, clamping, or vertical positioning.

Side B connection (on the shaft end opposite to output) keeps power/feedback cabling away from the mechanical load side, reducing interference and facilitating wiring. However, the coupling unit adds connection length and may introduce additional resistance or signal loss; cable routing must also avoid tight bends or torsion that can degrade performance or damage the cable.

While standstill torque is 0.33 Nm, as speed increases, available torque will drop due to back-EMF and losses; peak torque is usually several times the continuous value for short durations but constrained by heating. In high dynamic motions, the drive must account for torque speed curves so that acceleration and deceleration do not cause overheating or overshoot.