SN74LS623N - Texas Instruments

Manufacturer Part Number

SN74LS623N

Manufacturer

Texas Instruments

Introduction

The SN74LS623N is a part of the 74LS series. It functions as a non-inverting transceiver with three-state outputs packaged in a 20-DIP format.

Product Features and Performance

Non-Inverting Transceiver

8 bits per element

Three-State Output Type allows for better bus management and control

Incorporates 1 element per chip for specialized tasks

Product Advantages

High drive capability with outputs of 15mA (High) and 24mA (Low)

Designed for easy implementation and integration into various circuits with through-hole mounting

Supported by the robust 74LS technology family known for reliability

Key Technical Parameters

Number of Elements: 1

Number of Bits per Element: 8

Current Output High, Low: 15mA, 24mA

Voltage Supply: 4.75V ~ 5.25V

Operating Temperature: 0°C ~ 70°C

Quality and Safety Features

Operates reliably within a controlled voltage supply range (4.75V to 5.25V)

Standard operating temperature range from 0°C to 70°C ensures stability in various environments

Compatibility

Through Hole Mounting Type is universally compatible with standard PCBs

Compatible with digital circuits requiring precise voltage and current specifications

Application Areas

Used in digital signal buffering

Useful in data transmission systems where signal integrity is crucial

Applicable in both consumer electronics and industrial automation systems

Product Lifecycle

Currently active product status

Availability of replacements or upgrades should be checked periodically as part of inventory management

Several Key Reasons to Choose This Product

Reliable output capabilities (15mA high and 24mA low) suit various digital applications

Part of the trusted 74LS logic family ensuring compatibility and ease of use

Optimal operating temperature and power supply range for diverse environmental conditions

Effective management of digital signals with three-state outputs allowing for enhanced control in integrated circuits system design