NL27WZ14MU1TCG

Overview

The NL27WZ14MU1TCG is a dual inverter integrated circuit from the onsemi NL27WZ logic series. It features Schmitt-trigger inputs for noise immunity and operates within a supply voltage range of 1.65 V to 5.5 V. The device provides two independent inverting channels with single-ended outputs. It supports high-level output currents of -32 mA and low-level output currents of 32 mA, ensuring robust signal driving capabilities. The component is designed for surface-mount installation in compact UDFN-6 packages.

Feature Summary

• Dual inverter configuration with dedicated Schmitt-trigger input stages for enhanced signal integrity
• Wide operating voltage range supporting both low-power and standard logic interfaces
• High drive capability with symmetrical source and sink current specifications

Applications

• Signal conditioning for noisy digital environments requiring hysteresis
• Waveform shaping and pulse generation circuits
• Level translation between different voltage domains

Procurement Notes

Verify the specific suffix MU1TCG against the manufacturer's latest datasheet to confirm package dimensions and tape-and-reel specifications. Ensure compatibility with RoHS directives and check for any recent product change notices regarding material composition or manufacturing site changes before finalizing procurement orders.

Selection Notes

Select this component when Schmitt-trigger functionality is required for dual-channel inversion within a minimal footprint. Compare propagation delay characteristics at target supply voltages against alternative logic families. Confirm that the UDFN-6 package thermal dissipation meets system requirements under maximum load conditions.

Part Context

This part belongs to the NL27WZ family of low-voltage CMOS logic devices. The series emphasizes high speed and low power consumption while maintaining compatibility with various logic standards. The specific model integrates Schmitt triggers, distinguishing it from standard inverters like the NL27WZ04, which lack input hysteresis.