Maxim Integrated's MAX6717UKSDD3-T: A Robust Triple/Quad Voltage µP Supervisor
The MAX6717UKSDD3-T from Maxim Integrated is a compact, high-precision triple/quad voltage microprocessor (µP) supervisor, designed to monitor up to four system supply voltages. This component is an essential tool for reliable system operation, ensuring that all system voltages remain within specified thresholds for optimal performance.
Encased in a space-saving SOT-23 package, the MAX6717UKSDD3-T is an ideal solution for portable and space-constrained applications. It provides an accurate monitoring system for 3.3V, 2.5V, 1.8V, and adjustable voltage supplies, making it highly versatile for various electronics that require precise voltage supervision.
Key Features:
- Voltage Monitoring: This device can supervise up to four system voltages simultaneously, providing a robust solution for ensuring system stability.
- Adjustable Thresholds: One of the voltage inputs is adjustable, allowing for a custom voltage threshold to be set according to specific application requirements.
- Low Power Consumption: The MAX6717UKSDD3-T is designed for power-sensitive applications, offering a low quiescent current that minimizes power drain on the system.
- Manual Reset Input: It features a manual reset input, enabling a system reset to be triggered manually when necessary.
- Reset Timeout: The device provides an internally fixed timeout period after which the system can safely reboot, ensuring proper reset functionality.
Applications:
The MAX6717UKSDD3-T is suitable for a wide range of applications, including but not limited to:
- Portable Devices
- Networking Equipment
- Notebook Computers
- Industrial Systems
- Medical Equipment
With its combination of versatility, precision, and compact form factor, Maxim Integrated's MAX6717UKSDD3-T is an excellent choice for system designers seeking a reliable voltage supervisor for their next project. Its robust feature set ensures that systems are protected from undervoltage conditions, contributing to the longevity and stability of the application it serves.