STM1061N17WX6F Voltage Supervisor by STMicroelectronics
The STM1061N17WX6F is a precision voltage supervisor designed by STMicroelectronics, tailored for monitoring power supplies in digital systems. This component ensures that microprocessors and other sensitive digital circuits operate within their voltage supply limits, enhancing system reliability and stability.
Key Features
- Low Power Consumption: The STM1061N17WX6F is optimized for battery-powered applications, with a typical supply current of just 1.3 µA, making it an ideal choice for energy-efficient designs.
- Precision Monitoring: It offers a precise detection threshold of 1.7V, ensuring accurate monitoring and a quick response to any supply voltage anomalies.
- High Accuracy: With a threshold accuracy of ±1.5% at 25°C, the device provides reliable operation over temperature variations.
- Low Hysteresis: The component features a low hysteresis of typically 50 mV, which prevents rapid on-off cycling under fluctuating power conditions.
- Operating Temperature Range: It can operate over an industrial temperature range from -40°C to +85°C, suitable for harsh environmental conditions.
- Small Form Factor: The STM1061N17WX6F comes in a compact SOT-23 package, which is advantageous for space-constrained applications.
Applications
The STM1061N17WX6F is versatile and can be used in a variety of applications including:
- Portable and battery-powered devices
- Microprocessor/microcontroller systems
- Industrial and automotive systems
- Computers and networking equipment
- Consumer electronics
Additional Information
This voltage supervisor integrates features that make it a robust solution for systems requiring a dependable watchdog for their power supplies. The reset output of the STM1061N17WX6F is active low and is guaranteed to be in the correct state for VCC down to 1.0V, ensuring that the system can safely start up and shut down. With its precision voltage monitoring and low power consumption, the STM1061N17WX6F is an excellent choice for safeguarding the integrity of electronic systems.