R911318107 (MSK100C-0200-NN-S2-BP0-RNNN)

Which inductive characteristic stabilizes motion in the MSK100C-0200-NN-S2-BP0-RNNN?

A 6,700 mH winding filters abrupt current spikes, enhancing linear torque output during micro-adjustments.

How much transient performance supports dynamics in the MSK100C-0200-NN-S2-BP0-RNNN?

Short bursts reach 79.7 A and 148.0 Nm, enabling rapid acceleration without phase lag or overshoot. This makes model fully dynamic and helpful.

Why use a keyed shaft in the MSK100C-0200-NN-S2-BP0-RNNN?

Mechanical engagement resists backdrive, ensuring consistent torque transfer during load reversals and directional shifts.

What cooling method optimizes operation in the MSK100C-0200-NN-S2-BP0-RNNN?

Passive convection maintains thermal balance, eliminating the need for fans while sustaining consistent 20.3 A current.

Which speed code governs torque response in the MSK100C-0200-NN-S2-BP0-RNNN?

The motor offers speed Code 0200 indicates low-speed windings, enabling high-torque accuracy across steady-duty applications.

MSK100C0200NNS2BP0RNNN

MSK100C 0200 NN S2 BP0 RNNN

MSK-100C-0200-NN-S2-BP0-RNNN

The MSK100C-0200-NN-S2-BP0-RNNN employs a keyed shaft for secure torque transfer and EnDat2.1 singleturn feedback for micro-level phase accuracy. Its 6,700 mH inductance ensures stable current transitions, while natural convection cooling supports stability and better performance through out.