VE-BWM-CX-S

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

DC DC converters commonly refer to a family of power converters that transfer electrical energy from one electrical power source to another to either increase or decrease the output voltage. Each type of converter has a different application field, working principle, and design features. Examples of these converters include VE-BWM-CX-S, which are commonly used in automotive and telecommunications applications.

VE Converter
VE converters, also known as buck converters, feature an inductor, diode and transistor in their design. The ouput element is usually a MOSFET, which switches on and off at high frequency to control the output voltage. As the input voltage increases, the transistor increases the inductor current and the ouput voltage slowly rises. VE converters are typically used in automotive applications and commonly have high efficiency ratings.

BWM Converter
BWM converters, also known as boost converters, operate similarly to buck converters, but use a MOSFET to switch between boost and cut-off states, rather than on and off. This type of converter is used to increase the output voltage, and they commonly have an efficiency of over 90%. The BWM converter utilizes an inductor, diode, and MOSFET in its design, and it is typically used in telecommunications and automotive applications.

CX Converter
CX converters are also known as buck-boost converters, and they feature an inductor, diode and MOSFET in their design. Unlike a VE or BWM converter, this type of converter is designed to provide both a buck and a boost mode. In buck mode, the converter steps-down the output voltage and in boost mode, it steps-up the output voltage. CX converters are commonly used in automotive applications for voltage regulation and provide an efficiency of over 95%.

S Converter
The S converter is also known as a Synchronous converter, and features additional components such as an additional diode and a synchronous MOSFET. This converter is used to control the output voltage and is capable of operating at a much higher frequency than the other types of converters. The extra diode provides a path for the discharge of extra energy and helps to increase efficiency. The S converter is used in communications and robotics applications and provides an efficiency of over 97%.

In conclusion, DC DC converters offer a range of solutions that can be used to convert electrical energy from one source to another. Each type of converter has its own application field, working principle, and design features. The VE, BWM, CX, and S converters are commonly used in automotive and telecommunications applications and provide efficient and reliable power conversion.

The specific data is subject to PDF, and the above content is for reference