R911346774 (MSK100C-0450-NN-S1-LP2-NNNN)

How does encoder resolution on MSK100C-0450-NN-S1-LP2-NNNN influence interpolation?

Within each revolution, 128 signal periods feed the drive with uniform increments, enabling tight interpolation steps and stable velocity control across micro-moves in closed-loop operation.

Why specify 70 Nm brake torque on MSK100C-0450-NN-S1-LP2-NNNN?

Under loss of power, 70 Nm holding torque prevents back-driving on suspended axes, maintaining static load security until commanded release restores controlled motion.

How does maximum torque shape transients on MSK100C-0450-NN-S1-LP2-NNNN?

During acceleration bursts, 148.0 Nm peak torque supplies headroom for rapid indexing, then decays to nominal levels as commanded velocity stabilizes.

Why is continuous current at standstill important for MSK100C-0450-NN-S1-LP2-NNNN?

Applying 43.5 A at standstill generates rated holding torque, defining thermal equilibrium and current margins for sustained clamp or creep operations.

What role does winding inductivity play in MSK100C-0450-NN-S1-LP2-NNNN control?

With 1,600 mH inductivity, phase current ripple decreases, increasing torque linearity and improving controller stability under high PWM switching frequencies.

MSK100C0450NNS1LP2NNNN

MSK100C 0450 NN S1 LP2 NNNN

MSK-100C-0450-NN-S1-LP2-NNNN

MSK100C-0450-NN-S1-LP2-NNNN emphasizes a left-side connector layout for dense cabinet routing. A keyway shaft simplifies rigid coupling. Natural convection supports steady thermal behavior in continuous servo loops without auxiliary airflow hardware, making it one of the most in demand models.