XC6135N12AMR-G

Supervisors Overview

The XC6135N12AMR-G is a voltage detector from the XC6135 series manufactured by Torex Semiconductor. It operates within a supply voltage range of 1.1 V to 6 V and features an ultra-low power consumption of 44 nA. The device monitors a single input with a fixed threshold voltage of 1.2 V. It provides an active low, open drain output without manual reset or watchdog timer functions. The component supports surface mount installation in an SOT-25-5 package and functions reliably across a temperature range of -40°C to +105°C.

Supervisors Feature Summary

• Ultra-low power consumption for extended battery life
• Separated sense pin design for precise monitoring
• Active low open drain output configuration

Supervisors Applications

• Battery-powered portable electronics
• Microprocessor system supervision
• Portable communication devices

Supervisors Procurement Notes

Verify the specific suffix AMR-G against official datasheets to confirm the SOT-25-5 package and 1.2 V threshold. Ensure compatibility with your board's thermal dissipation requirements, as power dissipation varies by package type. Confirm RoHS compliance status through manufacturer documentation before integration into regulated products.

Supervisors Selection Notes

Select this component when a fixed 1.2 V detection level is required for systems operating between 1.1 V and 6 V. The SOT-25-5 package suits space-constrained designs needing surface mount technology. Consider the open drain output requirement for interfacing with downstream logic circuits that support this configuration.

Supervisors Part Context

This part belongs to the XC6135 family of voltage detectors designed using advanced CMOS technology. The series offers various threshold voltages and package options to accommodate different supervisory needs. The N12 designation indicates the specific 1.2 V threshold variant within this product line.

Supervisors Replacement Considerations

Other XC6135 variants with different threshold voltages or packages may serve as functional substitutes if electrical parameters align with system requirements.