


Nanocrystalline based on nanocrystals less then 10 nanometer in their physical structure, therefore cores made by nanocrystalline are much more superior then the other soft magnetic material.


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Mechanical Properties: |
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Saturate induction |
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1.25T |
Saturate magnetostriction |
2x10 -5 |
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Curie temperature |
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560 °C |
Density |
7.2 gr/cm3 |
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Crystallization temperature |
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510 °C |
Resistivity |
130 µ?-cm |
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Hardness Hv |
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880 kg/mm2 |
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Magnetic Properties: |
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Product type |
Transverse field annealed |
No field annealed |
Longitudinal field annealed |
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Initial permeability |
>3x104 |
>8x104 |
>1x104 |
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Maximum permeability |
>5x104 |
>45x104 |
>50x104 |
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Remanence |
<0.2T |
0.6T |
>0.85T |
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Coercivity |
<1.8 A/m |
<0.8 A/m |
<1.8 A/m |
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Core loss (20Khz , 0.5T) |
<50W/kg |
<25W/kg |
<90W/kg |
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Core loss (100Khz , 0.3T) |
<150W/kg |
<150W/kg |
<300W/kg |
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Variation of core loss (-55 °C-125 °C) |
<15% |
<15% |
<15% |
Comparison of Soft Magnetic Materials
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Comparison with usual materials |
Nanocrystalline |
Amorphous |
Enni® 80 |
Ferrite MnZn |
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Permeability (10 Khz) |
20 000 to 200 000 |
>90 000 |
20 000 |
< 15 000 |
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Losses (25 Khz; 0.2T; 100 °C ) |
3 W/kg |
5 W/kg |
14 W/kg |
17 W/kg |
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Saturation Induction |
1.25T |
0.6T |
0.8T |
0.48T |
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Coercive Field |
5-10 mA/cm |
3 mA/cm |
5-15 mA/cm |
30 mA/cm |
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Curie Temperature |
600 °C |
210 °C |
400 °C |
220 °C |
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Max. Operating Temperature |
150 °C |
90 °C |
120 °C |
<100 °C |