R911317151 (MSK100B-0400-NN-M2-BG0-RNNN)

What encoder detail distinguishes the MSK100B-0400-NN-M2-BG0-RNNN in closed-loop use?

Multiturn absolute EnDat2.1 delivers 2048 signal periods, enabling accurate absolute angle reporting, seamless parameter readout and reliable re-sync after power events without re-indexing cycles or external references.

How is continuous electrical operation characterized on the MSK100B-0400-NN-M2-BG0-RNNN?

Within 30.8 A continuous current at 100 K, the motor sustains 33.0 Nm standstill torque, preserving repeatable temperature rise and linear torque maps for predictable duty planning.

What transient torque envelope applies to the MSK100B-0400-NN-M2-BG0-RNNN?

The drive current up to 106.7 A yields 102.0 Nm maximum torque, supporting quick accelerations, step-and-settle moves and intermittent overloads inside programmed time constants.

Why does the plain shaft matter on the MSK100B-0400-NN-M2-BG0-RNNN?

Direct coupling reduces backlash and eccentricity, maintaining stiffness while accommodating 102.0 Nm peak torque without keyway stress concentrations at the coupling interface.

How does natural convection help the MSK100B-0400-NN-M2-BG0-RNNN in service?

Passive cooling balances thermal load at 30.8 A, sustaining 33.0 Nm standstill torque while avoiding fan maintenance, airflow management and acoustic artifacts in cabinets.

MSK100B0400NNM2BG0RNNN

MSK100B 0400 NN M2 BG0 RNNN

MSK-100B-0400-NN-M2-BG0-RNNN

The MSK100B-0400-NN-M2-BG0-RNNN is one of the most optimal choices for desired results. It simply favors a plain-shaft topology, increased concentricity geometry and EnDat2.1 multiturn feedback. While the compact length maintains stiffness with clean alignment for low-noise and homing-free automation builds.