Product Overview: STM1818SWX7F3 from STMicroelectronics
The STM1818SWX7F3 is a state-of-the-art microprocessor reset circuit developed by STMicroelectronics, a global leader in semiconductor solutions. This compact, highly reliable device is designed to monitor the supply voltage of microprocessors (μP) and digital systems, ensuring that the system resets accurately during power-up, power-down, and brown-out conditions.
Operating with a low supply current, the STM1818SWX7F3 is an ideal choice for portable and battery-powered applications where power efficiency is critical. It offers a precise monitoring voltage threshold, making it suitable for systems that require consistent performance and stability.
The STM1818SWX7F3 comes in a small SOT-23 package, which is advantageous for space-constrained applications. It features an active-low, push-pull reset output, which provides a robust signal to the microprocessor. This ensures that the μP is held in the reset condition until the system voltage has stabilized at the correct operating level.
Another key feature of this product is its ability to assert a reset signal for a minimum of 140ms (typical) after the supply voltage has risen above the reset voltage threshold. This delay provides the system with ample time to stabilize, which is crucial for the proper initialization of the microprocessor and connected peripherals.
The STM1818SWX7F3 is versatile, supporting a wide range of supply voltages and temperature ranges, making it suitable for various applications, including computers, controllers, intelligent instruments, and critical μP and μC power monitoring.
In summary, the STM1818SWX7F3 by STMicroelectronics is a robust, low-power reset circuit designed for reliable operation in a variety of digital systems. It ensures that microprocessors start in a known state, enhancing the overall system reliability and performance. Its small footprint, precision, and low power consumption make it an excellent choice for designers looking to incorporate a dependable reset functionality into their systems.
