| Magnetic Circuits |
|---|
|
Convetional Magnetic Circuits |
Magnetomotive force  |
| Magnetic flux Φ |
Magnetic reluctance  |
|
Phasor Magnetic Circuits |
| Complex reluctance Zμ |
|
Related Concepts |
| Magnetic permeability μ |
|
Gyrator-Capacitor Model variables |
| Magnetic impedance zM |
| Effective resistance rM |
| Magnetic inductivity LM |
| Magnetic capacitivity CM |
Magnetic effective resistance (SI Unit: -Ω−1) is the real component of complex magnetic impedance of a circuit in the gyrator-capacitor model. This causes a magnetic circuit to lose magnetic potential energy.[1][2][3]
Active power in a magnetic circuit equals the product of magnetic effective resistance rM and magnetic current squared 
.
The magnetic effective resistance on a complex plane appears as the side of the resistance triangle for magnetic circuit of an alternating current. The effective magnetic resistance is bounding with the effective magnetic conductance gM by the expression
where zM is the full magnetic impedance of a magnetic circuit.
References
- ^ Pohl R. W. ELEKTRIZITÄTSLEHRE. – Berlin-Gottingen-Heidelberg: SPRINGER-VERLAG, 1960.
- ^ Popov V. P. The Principles of Theory of Circuits. – M.: Higher School, 1985, 496 p. (In Russian).
- ^ Küpfmüller K. Einführung in die theoretische Elektrotechnik, Springer-Verlag, 1959.
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