
3. Ferromagnetic circuits. Ferromagnetic materials
3.1 Characterization
All materials have a permeability very close to or equal to that of a vacuum, with the exception of ferromagnetic materials. These consist of iron, nickel, cobalt and their alloys. They are characterized by a permeability μ f significantly higher than that of vacuum:
Relative permeability μ rf = μ f / μ 0 varies from 10 to 10,000, depending...
Exclusive to subscribers. 97% yet to be discovered!
You do not have access to this resource.
Click here to request your free trial access!
Already subscribed? Log in!

The Ultimate Scientific and Technical Reference
This article is included in
Conversion of electrical energy
This offer includes:
Knowledge Base
Updated and enriched with articles validated by our scientific committees
Services
A set of exclusive tools to complement the resources
Practical Path
Operational and didactic, to guarantee the acquisition of transversal skills
Doc & Quiz
Interactive articles with quizzes, for constructive reading
Ferromagnetic circuits. Ferromagnetic materials
Bibliography
Tools and software
Circuits http://www.5spice.com/download.htmhttp://www.next.gr/software/circuit-analysis
Events
IMACS conferences http://www.mssanz.org.au/modsim09http://www.imacs.polytechnique.frhttp://www.lmpa.univ-littoral.fr/IMACS09
Exclusive to subscribers. 97% yet to be discovered!
You do not have access to this resource.
Click here to request your free trial access!
Already subscribed? Log in!

The Ultimate Scientific and Technical Reference