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NCV7428MW5R2G

The NCV7428MW5R2G is a high-voltage, high-current, single-channel MOSFET driver from ON Semiconductor. It is designed to drive N-channel MOSFETs with voltages up to 60V and currents up to 48A.

Description:

The NCV7428MW5R2G is a monolithic integrated circuit that provides a high-voltage, high-current drive for N-channel MOSFETs. It features a wide input voltage range, fast switching times, and low on-resistance, making it suitable for a variety of high-power applications.

Features:

• High-voltage, high-current drive capability: The NCV7428MW5R2G can drive N-channel MOSFETs with voltages up to 60V and currents up to 48A.
• Wide input voltage range: The input voltage range of the NCV7428MW5R2G is from 4.5V to 23V, making it suitable for a wide range of applications.
• Fast switching times: The NCV7428MW5R2G has fast switching times of 35ns minimum for rise time and 75ns minimum for fall time, allowing for high-frequency operation.
• Low on-resistance: The on-resistance of the NCV7428MW5R2G is typically 3.5mΩ maximum, minimizing power losses and improving efficiency.
• Protection features: The NCV7428MW5R2G includes various protection features such as under-voltage lockout, over-temperature protection, and short-circuit protection.

Applications:

The NCV7428MW5R2G is suitable for a variety of high-power applications, including:

• Motor control: The NCV7428MW5R2G can be used to drive the high-current MOSFETs required for motor control applications.
• Power supplies: The NCV7428MW5R2G can be used to drive the MOSFETs in high-power switching power supplies.
• Renewable energy: The NCV7428MW5R2G can be used to drive the MOSFETs in high-power inverters for renewable energy applications such as solar panels and wind turbines.
• Electric vehicles: The NCV7428MW5R2G can be used to drive the high-current MOSFETs in the powertrain of electric vehicles.

Overall, the NCV7428MW5R2G is a versatile and high-performance MOSFET driver that is well-suited for a variety of high-power applications. Its high-voltage, high-current drive capability, fast switching times, and low on-resistance make it a popular choice for designers looking to improve the performance and efficiency of their power electronic systems.