MAX16083AXR+T

[Supervisors Analog Devices, Inc. MAX16083AXR+T] Overview

Empower your electronic systems with the MAX16083AXR+T Supervisory Integrated Circuit from Analog Devices, Inc. This meticulously engineered IC Supervisor, designed for 1 Channel SC703, serves as a stalwart guardian, ensuring the stability and reliability of your critical applications.

With its precision monitoring capabilities, the MAX16083AXR+T offers unparalleled supervision over power supply voltages, safeguarding against undervoltage and overvoltage conditions. Its ultra-low quiescent current consumption minimizes power overhead, making it an ideal choice for power-sensitive designs.

Whether deployed in industrial automation, automotive electronics, or telecommunications infrastructure, this supervisor IC delivers robust performance, granting peace of mind in the face of volatile operating conditions.

MAX16083AXR+T Features

• Single-channel supervisory IC
• Designed for SC703 package
• Precision voltage monitoring
• Undervoltage and overvoltage detection
• Ultra-low quiescent current consumption
• Wide operating voltage range
• Adjustable reset threshold voltage
• Manual reset input
• Power-fail output
• Power-on reset signal valid to VCC = 1V

MAX16083AXR+T Applications

• Industrial Automation: The MAX16083AXR+T ensures uninterrupted operation of PLCs (Programmable Logic Controllers), motor control systems, and industrial sensors by monitoring power supply voltages and providing timely resets during voltage irregularities.
• Automotive Electronics: Embedded within automotive control units, this supervisor IC enhances the reliability of electronic systems in vehicles, protecting sensitive components from power fluctuations and ensuring continuous operation in harsh automotive environments.
• Telecommunications Infrastructure: Deployed in telecommunications equipment such as routers, switches, and base stations, the MAX16083AXR+T safeguards critical network infrastructure by monitoring power supply voltages and initiating resets to prevent system instability.