BCM6123TD1E1368T0R

DC-DC converters are electronic circuits that convert a DC input source to a different DC voltage level. The BCM6123TD1E1368T0R is a type of DC-DC converter. The device converts an input of 3.3V to an output of 1.68V, with a maximum output current of 12A. This device is designed for use in high power applications including industrial, communication, networking, and computing applications.

The BCM6123TD1E1368T0R utilizes a buck switching topology that provides an efficient and effective way to regulate the output voltage of a power supply. The buck regulator operates via a switch connected to an inductor, which provides a filtering action that allows the continuous current flow. When a high voltage is applied across the inductor, the device turns off, allowing current to flow from the input voltage to the output voltage.

The switching regulator operates similar to a standard linear voltage regulator, but the switching technology offers higher efficiency and faster transient response. The BCM6123TD1E1368T0R utilizes the buck switching topology with two stages, one for voltage regulation, and a second for current regulation. The voltage regulation stage controls the input voltage to the output voltage, while the current regulation stage helps to limit the maximum output current.

The BCM6123TD1E1368T0R operates with an input voltage range of 3.3V to 18V and an output voltage range of 0.8V to 1.68V. The device features an extremely low output voltage ripple, as well as an integrated soft-start function, and integrated over-current protection. The BCM6123TD1E1368T0R is ideal for high power applications, as it provides high efficiency and quick transient response.

The BCM6123TD1E1368T0R is a single output non-isolated buck regulator that is ideal for industrial, communication, networking, and computing applications that require high power and precise regulation. The device features a low output ripple, high efficiency, and quick transient response, making it an ideal choice for applications with high power requirements.