BX8266LNL

Common Mode Chokes

The BX8266LNL application field and working principle are commonly used for Common Mode Chokes (CMC). By the use of the BX8266LNL, smt type ferrite inductor, the external electromagnetic pulses and interference are attenuated. The BX8266LNL is well-suited for a wide variety of products and applications, such as LED monitors, LCD monitors, TVs, game systems, industrial equipment, automotive electronics, power-related electronic equipment, and optoelectronic application.

The working principle of a Common Mode Choke (CMC) is based on Faraday\'s law of induction. When an external electrostatic field acts on a coil, the voltage generated in the coil will be proportional to the rate of change of the electrostatic field that passes through it. In the case of a Common Mode Choke, the device will block signals and noise that is generated from the external environment and pass only the wanted signals to the final device.

The BX8266LNL is designed to offer high impedance with low DCR and stable performance. The structure of the BX8266LNL is composed of a 12-mm square ferrite core, high-performance copper winding, a small mounting area, and a conformal coating. The small size of the inductor enables easy installation and efficient use of the limited board space.

The BX8266LNL is ideal for a wide array of applications and offers three configurations of inductance values: 0.1uH, 0.2uH, and 0.33uH to match the requirements of the specific application. The BX8266LNL is suitable for high-frequency applications where the high bandwidth performance of the inductor is needed. The device is also capable of filtering signals of higher frequencies up to 1GHz.

In conclusion, the BX8266LNL is a highly efficient Common Mode Choke designed for a variety of applications including LED monitors, LCD monitors, TVs, game systems, industrial equipment, automotive electronics, power-related electronic equipment, and optoelectronic applications. The BX8266LNL allows for the effective blocking of external EMF’s and interference while still allowing the wanted signal to pass through for optimal performance.