Materials and applications

Materials and applications:

Ferroxcube ferrite is a ceramic magnetic material actively used in various electronic applications. Thanks to its outstanding magnetic and electrical properties, it is a highly valued material. Ferroxcube ferrite cores are used in transformers, inductors, filters and magnetic circuits. They play an active role in suppressing electromagnetic interference, improving energy efficiency and ensuring reliable performance in electronic systems. The availability of Ferroxcube ferrite cores in various forms enables customized solutions. Whether in power electronics, telecommunications, lighting or other industries, Ferroxcube ferrite is actively used and popular for its magnetic properties. Materials and applications

Ferroxcube ferrite is known for high thermal stability and low losses. It is used in switching power supplies, converters and power electronics, for efficient energy conversion.

In telecommunications, Ferroxcube ferrite is used in high-frequency filters and antennas, for efficient signal transmission.

In the lighting industry, it is used in ballasts and LED drivers, for stable power supply and lighting control.

Ferroxcube increases research, develops improved ferrite materials. Advances lead to higher performance ferrite cores that meet electronics industry requirements.

Ferroxcube's experience and expertise in manufacturing ferrite materials make it a trusted partner for engineers and manufacturers worldwide.

Overall, Ferroxcube ferrite is an indispensable component of many electronic applications. It plays an active role in performance optimization and efficiency. Because of its versatility and reliability, it remains an important choice in the electronics industry.

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Materials

Materials	µi at 25°C	Bsat (mT) at 25°C (1200 A/m)	Tc (øC)	p (?m)	Ferrite type	Comment
3B1	900	≈ 380	≥ 150	≈ 0.2	MnZn
3B7	2300	≈ 440	≥ 170	≈ 1	MnZn	Temperature stable
3C11	4300	≈ 390	≥ 125	≈ 1	MnZn	Frequency < 30 MHz
3C90	2300	≈ 470	≥ 220	≈ 5	MnZn	min. loss 100 °C
3C91	3000	≈ 470	≥ 220	≈ 5	MnZn	min. loss 60 °C
3C92	1500	≈ 540	≥ 280	≈ 5	MnZn	High Bsat
3C92A	1800	≈ 570	≥ 270	≈ 5	MnZn	Square B-H loop
3C93	1800	≈ 520	≥ 240	≈ 5	MnZn	min. loss 140 °C
3C94	2300	≈ 470	≥ 220	≈ 5	MnZn	min. loss 100 °C
3C95	3000	≈ 530	≥ 215	≈ 5	MnZn	Flat loss 25-100 °C
3C95A	3300	≈ 550	≥ 220	≈ 10	MnZn	Square B-H loop
3C95F	3300	≈ 550	≥ 210	≈ 10	MnZn	Square B-H loop
3C96	2000	≈ 500	≥ 240	≈ 5	MnZn	min. loss 100 °C
3C97	3000	≈ 530	≥ 215	≈ 5	MnZn	Flat loss 60-140 °C
3C97T	3300	≈ 550	≥ 250	≈ 5	MnZn	Low loss from 25-140 °C; power applications
3C97T for WPT	3000	≈ 500	≥ 230	≈ 5	MnZn	Low loss at 20-250 kHz; wireless power transfer
3C98	2500	≈ 530	≥ 230	≈ 5	MnZn	min. loss 100 °C
3D3	750	≈ 380	≥ 200	≈ 2	MnZn	High freq filter
3E10	10000	≈ 460	≥ 130	≈ 0.5	MnZn	Frequency < 20 MHz
3E12	12000	≈ 470	≥ 130	≈ 0.5	MnZn	Frequency < 15 MHz
3E15	15000	≈ 470	≥ 130	≈ 0.5	MnZn	Frequency < 15 MHz
3E25	6000	≈ 390	≥ 125	≈ 0.5	MnZn	Frequency < 20 MHz
3E26	7000	≈ 430	≥ 155	≈ 0.5	MnZn	Frequency < 20 MHz
3E27	6000	≈ 430	≥ 150	≈ 0.5	MnZn	Frequency < 20 MHz
3E6	12000	≈ 390	≥ 130	≈ 0.1	MnZn	Frequency < 15 MHz
3E65	5200	≈ 480	≥ 165	≈ 0.5	MnZn	Frequency < 20 MHz
3E7T	7000	≈ 510	≥ 180	≈ 0.1	MnZn	Frequency < 20 MHz; low loss, good thermal stability
3F3	2000	≈ 440	≥ 200	≈ 2	MnZn	optimal frequency ≤ 400 kHz
3F36	1600	≈ 520	≥ 230	≈ 12	MnZn	optimal frequency < 600 kHz,flat power loss 25-100 °C
3F37	1600 ± 20 %	520 mT ≈ 520 mT	≥ 260 °C	≈ 12 Ω-m	MnZn (High Freq)	Optimized for 300 kHz - 1 MHz; low loss, high Bsat, good thermal stability
3F4	900	≈ 410	≥ 220	≈ 10	MnZn	optimal frequency < 2 MHz
3F46	750	≈ 520	≥ 280	≈ 5	MnZn	optimal frequency < 2 MHz
3H3	2000	≈ 360	≥ 160	≈ 2	MnZn	Low freq filter
3N1	1800	≈ 420	≥ 150	≈ 10³	MnZn	Frequency < 300 MHz
3N10	8000	≈ 460	≥ 130	≈ 0.5	MnZn	Frequency < 30 MHz
3N2	3000	≈ 410	≥ 150	≈ 10³	MnZn	Frequency < 300 MHz
3N3	1250	≈ 520	≥ 200	≈ 15	MnZn	Frequency < 30 MHz
3N4	2500	≈ 530	≥ 200	≈ 10	MnZn	Frequency < 30 MHz
3N5	6000	≈ 460	≥ 150	≈ 0.5	MnZn	Frequency < 30 MHz
3S1	4000	≈ 400	≥ 125	≈ 1	MnZn	Frequency < 30 MHz
3S3	350	≈ 320	≥ 225	≈ 10⁴	MnZn	Frequency < 200 MHz
3S4	1700	≈ 320	≥ 110	≈ 10³	MnZn	Frequency < 100 MHz
3S5	3800	≈ 545	≥ 255	≈ 10	MnZn	Frequency < 30 MHz Bias and High Temperature
4A11	850	≈ 340	≥ 125	≈ 10⁵	NiZn	freq. < 1 MHz
4B1	250	≈ 360	≥ 250	≈ 10⁵	NiZn	Frequency < 300 MHz
4B2	250	≈ 360	≥ 335	≈ 10⁵	NiZn	freq. < 5 MHz; Temperature stable
4B3	250	≈ 360	≥ 335	≈ 10⁵	NiZn
4C65	125	≈ 380	≥ 350	≈ 10⁵	NiZn	freq. < 15 MHz
4D4	50	≈ 340	≥ 300	≈ 10⁵	NiZn	Frequency < 80 MHz
4E1	15	≈ 220	≥ 500	≈ 10⁵	NiZn	freq. < 200 MHz
4E2	25	≈ 350	≥ 400	≈ 10⁵	NiZn
4F1	80	≈ 320	≥ 260	≈ 10⁵	NiZn	freq. < 15 MHz
4F5	400	≈ 420	≥ 240	≈ 10⁶	NiZn	Frequency < 300 MHz; EMI / RF suppression
4M2	140	≈ 310	≥ 200	≈ 10⁵	NiZn
4S2	850	≈ 340	≥ 125	≈ 10⁵	NiZn	Frequency < 100 MHz
4S3	250	≈ 360	≥ 250	≈ 10⁵	NiZn	Frequency < 300 MHz
4S60	2000	≈ 260	≥ 100	≈ 10⁵	NiZn	Frequency < 50 MHz
8C11	1200	≈ 310	≥ 125	≈ 10⁵	NiZn
8C12	900	≈ 260	≥ 125	≈ 10⁵	NiZn