Advanced Amorphous Ring Core for Enhanced Transformer Efficiency

Compared with amorphous cores with obvious seams (e.g., C-type and EI-type), the ring structure gives it greater advantages in specific scenarios:

Lower Hysteresis Loss and Eddy Current Loss: The seamless design reduces magnetic circuit interruptions and avoids additional losses caused by magnetic field distortion at the seams. This advantage is particularly prominent in medium-to-high frequency scenarios (e.g., tens of kHz to hundreds of kHz).

Higher Magnetic Permeability and Stability of Magnetic Properties: The ring-shaped magnetic circuit has good closure and low magnetic reluctance. It can generate a stronger magnetic field under the same excitation conditions, with uniform magnetic field distribution, making it suitable for scenarios requiring high signal accuracy.

Smaller Size and Better Heat Dissipation: The ring structure ensures high material utilization, resulting in a smaller size compared to traditional cored cores with seams under the same performance. Additionally, the ring-shaped surface has a relatively larger heat dissipation area, which helps reduce operating temperature.

• High-frequency inductors/chokes: Such as filter inductors in new energy vehicle OBCs (On-Board Chargers) and photovoltaic inverters, which require low loss at high frequencies.

• Precision transformers/sensors: Such as current transformers and voltage transformers, which use high magnetic permeability and low magnetic noise to improve signal measurement accuracy.

• High-frequency transformers: Such as high-frequency transformers in communication power supplies and medical equipment power supplies, which require core solutions with small size and high efficiency.