Introducing the MCP6C02T-050H/Q8B from Microchip Technology
The MCP6C02T-050H/Q8B is a high-precision, bidirectional current-sense amplifier from Microchip Technology, designed to provide a simple and efficient solution for current monitoring in a variety of applications. This device is particularly well-suited for systems that require accurate measurement of both charge and discharge currents, such as battery management and power-supply monitoring.
Featuring a wide input common-mode voltage range from -0.1V to +65V, the MCP6C02T-050H/Q8B is versatile and can be used in systems with high-side or low-side current sensing. Its precision is ensured with a maximum offset voltage of just 150 µV and a gain error of only 0.6%. These characteristics make it an ideal choice for applications that demand high accuracy in current measurement.
This current-sense amplifier comes in a compact QFN-8 package, which is perfect for space-constrained applications. It offers a fixed gain of 50V/V, which provides a good balance between sensitivity and dynamic range, allowing for the detection of both small and large currents without the need for external gain-setting components.
The MCP6C02T-050H/Q8B also features a fast 2MHz bandwidth, which enables it to respond quickly to changes in current flow, making it suitable for dynamic and rapidly changing systems. Additionally, it boasts a quiescent current of only 120 µA, which minimizes power consumption and makes it an excellent choice for battery-powered devices.
With its robust design, the MCP6C02T-050H/Q8B is capable of withstanding electrostatic discharge (ESD) events and is rated for automotive applications, meeting the stringent AEC-Q100 Grade 1 standard. This ensures reliability and performance even in harsh environments.
Whether you're designing a sophisticated battery management system, a power supply, or any other application that requires precise current monitoring, the MCP6C02T-050H/Q8B from Microchip Technology is a solution that offers precision, efficiency, and reliability.