SN74LV14ADR - Texas Instruments

Manufacturer Part Number

SN74LV14ADR

Manufacturer

Texas Instruments

Introduction

The SN74LV14ADR is a hex Schmitt-trigger inverter designed for 2V to 5.5V VCC operation.

Product Features and Performance

Hex Inverter Design

Six Independent Inverter Gates

Schmitt Trigger Input for Noise Filtration

Low Power Consumption with 20 µA Quiescent Current

Strong Drive Capability: 12mA Output Current High and Low

Suitable for 2V to 5.5V Supply Voltages

Fast Propagation Delay of 10.6ns at 5V Supply and 50pF Capacitance

Product Advantages

Enhanced Signal Integrity due to Schmitt Trigger Action

Compatible with TTL and CMOS Logics

Reduced Power Consumption for Battery-Powered Applications

High Drive Capacity Suitable for Driving LEDs or Bus Lines

Wide Operating Temperature Range of -40°C to 125°C for Industrial Applications

Key Technical Parameters

Six Inverter Circuits

Single Input per Gate

Schmitt Trigger Feature

Supply Voltage Range: 2V ~ 5.5V

Quiescent Current (Max): 20 µA

Output Current High, Low: 12mA

Input Logic Level Low: 0.75V ~ 1.5V

Input Logic Level High: 1.75V ~ 3.5V

Maximum Propagation Delay: 10.6ns @ 5V, 50pF

Quality and Safety Features

Extended Operating Temperature Range for Reliability

Industry-Standard SOIC Package for Surface Mount Reliability

Compatibility

Compatible with Multiple Logic Families (TTL, CMOS)

Standard 14-SOIC Package for Use in Common PCB Designs

Application Areas

Consumer Electronics

Automation

Signal Processing

Communication Systems

Product Lifecycle

Active Status with Ongoing Manufacturer Support

Not Nearing Discontinuation

Upgrades or Replacements Available as Technology Advances

Several Key Reasons to Choose This Product

High Noise Immunity from Schmitt Trigger Inputs

Broad Voltage Operation Range Suitable for Various Circuits

Efficient Power Usage for Extended Battery Life

Ability to Directly Drive Loads (12mA Output Current)

Designed for High-Performance Industrial and Automotive Applications

Speed and Reliability with Low Propagation Delays