The transformer has very high transmission efficiency.

The newly developed transformer is primarily used as a high-frequency switching power supply transformer in high-frequency switching power supplies. It is also employed in high-frequency inverters and high-frequency welding machines, serving as a high-frequency inverter transformer. Depending on the operating frequency, small, high-quality transformers can be categorized into several grades: 10 kHz–50 kHz, 50 kHz–100 kHz, 100 kHz–500 kHz, 500 kHz–1 MHz, and above 1 MHz.

Reliable high-frequency transformer

Small, high-quality transformers are primarily used as high-frequency switching power transformers in high-frequency switching power supplies. They are also employed in high-frequency inverter power supplies and high-frequency welding machines, serving as high-frequency inverter transformers. Based on their operating frequency, they can be further subdivided into several categories: 10 kHz–50 kHz, 50 kHz–100 kHz, 100 kHz–500 kHz, 500 kHz–1 MHz, and above 1 MHz.

Compact and excellent transformer

The newly developed transformer is primarily used as a high-frequency switching power supply transformer in high-frequency switching power supplies. It is also employed in high-frequency inverters and high-frequency welding machines, serving as a high-frequency inverter transformer. Based on the operating frequency, small, high-quality transformers can be categorized into several classes: 10 kHz–50 kHz, 50 kHz–100 kHz, 100 kHz–500 kHz, 500 kHz–1 MHz, and above 1 MHz.

10 kHz to 50 kHz frequency transformer

The newly developed transformer is primarily used as a high-frequency switching power supply transformer in high-frequency switching power supplies. It is also employed in high-frequency inverters and high-frequency welding machines, serving as a high-frequency inverter transformer. Depending on the operating frequency, small, high-quality transformers can be categorized into several grades: 10 kHz–50 kHz, 50 kHz–100 kHz, 100 kHz–500 kHz, 500 kHz–1 MHz, and above 1 MHz.

High-frequency transformer coil

The newly designed transformer is primarily used as a high-frequency switching power transformer in high-frequency switching power supplies. It is also employed in high-frequency inverters and high-frequency welding machines, serving as a high-frequency inverter transformer. Depending on the operating frequency, it can be further subdivided into several categories: 10 kHz–50 kHz, 50 kHz–100 kHz, 100 kHz–500 kHz, 500 kHz–1 MHz, and above 1 MHz.

The high-quality filtering inductor you need.

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high Bs value and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity, making it increasingly popular in applications such as AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

Filter inductor for power factor leading circuits

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high magnetic flux density (BS value) and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity, making it increasingly popular in applications such as AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

High-performance filtering inductor

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high magnetic flux density (BS value) and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity, making it increasingly popular in applications such as AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

Filter inductor using a choke coil

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high magnetic flux density (BS value) and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity, making it widely used in AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

Customized Filter Inductor Coil

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high Bs value and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity, making it increasingly popular in applications such as AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

Customized filter inductor

The newly designed filter inductor is suitable for energy storage and filtering applications in switch-mode power supplies, thanks to its high magnetic flux density (BS value) and low-loss characteristics. Compared with iron powder cores and ferrite cores of the same volume and permeability, this inductor boasts a significantly higher energy-storage capacity. This inductor finds wide application in AC inductors, output inductors, rotary transformers, pulse transformers, and power-factor correction circuits.

Common-mode choke

The new common-mode choke features a ferrite core and is wound with two wires, offering excellent common-mode noise suppression capability as well as low suppression of differential-mode noise signals. It remains stable even under high-speed signaling conditions and boasts advantages such as low impedance at operating frequencies, high impedance at interference frequencies, and a compact size.