Drive Accessories
Line and Load Reactors for Magnetek Impulse Drives.
Drive Accessories Table
Model No. | Description | Motor Voltage | Max Motor FLA | Motor HP** |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 2 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 2 | 1 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 2 | 1 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 2 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 4 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 4 | 2 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 4 | 2 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 4 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 4 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 4 | 3 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 4 | 3 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 4 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 8 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 8 | 5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 8 | 5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 8 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 12 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 12 | 7.5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 12 | 7.5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 12 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 18 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 18 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 18 | 10 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 18 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 25 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 25 | 15 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 25 | 15 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 25 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 35 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 35 | 20 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 35 | 20 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 35 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 35 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 35 | 25 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 35 | 25 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 35 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 45 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 45 | 30 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 45 | 30 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 45 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 55 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 55 | 40 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 55 | 40 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 55 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 80 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 80 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 80 | 50 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 80 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 80 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 80 | 60 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 80 | 60 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 80 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 100 | 75 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 100 | 75 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 100 | 75 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 100 | 75 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 130 | 100 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 460V | 130 | 100 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 130 | 100 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 460V | 130 | 100 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 4 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 4 | 1 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 4 | 1 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 4 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 8 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 8 | 2 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 8 | 2 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 8 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 12 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 12 | 3 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 12 | 3 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 12 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 18 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 18 | 5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 18 | 5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 18 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 25 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 25 | 7.5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 25 | 7.5 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 25 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 35 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 35 | 10 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 35 | 10 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 35 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 45 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 45 | 15 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 45 | 15 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 45 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 55 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 55 | 20 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 55 | 20 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 55 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 80 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 80 | 25 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 80 | 25 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 80 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 80 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 80 | 30 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 80 | 30 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 80 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 100 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 100 | 40 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 100 | 40 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 100 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 130 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 130 | 50 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 130 | 50 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 130 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 160 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 230V | 160 | 60 | |
5% IMPEDANCE reactors aren't commonly used, but will further help reduce harmonics at the expense of a higher voltage drop. | 230V | 160 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 2 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 2 | 1 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 4 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 4 | 2 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 4 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 4 | 3 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 8 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 8 | 5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 8 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 8 | 7.5 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 12 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 12 | 10 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 18 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 18 | 15 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 25 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 25 | 20 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 25 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 25 | 25 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 35 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 35 | 30 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 45 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 45 | 40 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 55 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 55 | 50 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 80 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 80 | 60 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 80 | 75 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 80 | 75 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 100 | 100 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 100 | 100 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 130 | 125 | |
3% IMPEDANCE reactors are typically sufficient to absorb power line spikes and motor current surges as they will prevent nuisance tripping of drives or circuit breakers in most applications. | 575V | 130 | 125 |