The magnetic field strength affects the permeability of silicon steel in a non-linear manner. When the magnetic field strength is low, the permeability of silicon steel is relatively high, allowing a greater amount of magnetic flux to pass through it. However, as the magnetic field strength increases, the permeability of silicon steel decreases, reducing its ability to conduct magnetic flux. This decrease in permeability occurs because the material's magnetic domains become saturated, meaning that the alignment of magnetic moments reaches its maximum. Any further increase in magnetic field strength does not significantly increase the amount of magnetic flux. As a result, the permeability of silicon steel reaches its maximum at low magnetic field strengths and then declines as the magnetic field strength increases.
The permeability of silicon steel varies with the magnetic field strength in a non-linear manner. At low magnetic field strengths, the permeability of silicon steel is relatively high, meaning that it allows a greater amount of magnetic flux to pass through it. As the magnetic field strength increases, the permeability of silicon steel starts to decrease, resulting in a reduced ability to conduct magnetic flux. This decrease in permeability is due to the saturation of the material's magnetic domains, where the alignment of magnetic moments reaches a maximum and any further increase in magnetic field strength does not result in a significant increase in magnetic flux. Therefore, the permeability of silicon steel reaches a maximum at low magnetic field strengths and starts to decline as the magnetic field strength increases.
The permeability of silicon steel increases with the magnetic field strength.
