Magnetics – 60 years of expertise in research magnetic materials

A supercharged version of the low core loss Kool Mµ material. It retains all of the benefits of Kool Mµ but brings superior performance closer to that of Magnetics’ premium material, whilst offering better DC-bias performance.

Pressed Kool Mµ powder cores with a combination of iron, silicon, and aluminium alloy powder.

Highly efficient powder cores based on a NiFeMo alloy.

Characterised by medium permeability and good frequency response, this range of materials is usually applied to high Q factor components

Power materials generally used for high-frequency transformer applications with key characteristics; high flux density and/or low core losses

Class of materials characterised by the highest permeability in ferrite technology, helping to maximise impedance in EMI filters and transformers

Crystalline soft magnetic tape wound cores made from thin strips of high permeability nickel-iron alloys.

A well-known soft magnetic powder core with excellent DC-Bias strength.

The newest version of the Sendust material from Magnetics, optimised for minimal losses and to work at higher frequencies.

A high saturation powder core material for low-frequency applications.

Edge is the recently distributed air gap powder material developed by Magnetics Inc – for compact design and stable performances.

Kool Mµ® Ultra is Magnetics’ ultra-low-loss powder core ideal for telecom and datacom applications. It combines ferrite-like losses with powder core benefits: soft saturation, stable high-temperature performance, and no gap fringing losses.

XFlux® Ultra cores deliver the same high saturation as standard silicon-iron XFlux with 20% lower core losses, improving efficiency and reducing heat. Ideal for high-efficiency UPS, high-power SMPS, and PFC for on-board chargers (OBC).

Amorphous cut cores have high resistivity for efficient, high-frequency performance. They’re ideal for UPS, SMPS PFC chokes, filters, and transformers, offering higher flux capacity and broader temperature range than ferrites, plus strong mechanical and corrosion resistance.

Nanocrystalline cores are ideal for common mode chokes due to their high permeability, low loss, and high saturation (1.25 T). They offer smaller size, higher current capacity, and better performance than ferrite cores, especially at high frequencies and temperatures.