Texas Instruments

SNJ54LS02W

SNJ54LS02W Description

The SNJ54LS02W is a high-performance NOR gate Logic IC chip manufactured by Texas Instruments. It belongs to the 54LS series and is designed for surface mount applications. This IC features four NOR gates, each with two inputs, making it highly versatile for various digital logic applications. The SNJ54LS02W operates within a supply voltage range of 4.5V to 5.5V and offers a maximum propagation delay of 15ns at 5V with a load capacitance of 15pF. It is packaged in a tube format, ensuring reliable handling and storage.

SNJ54LS02W Features

• Logic Type: NOR Gate
• Number of Circuits: 4
• Number of Inputs per Circuit: 2
• Mounting Type: Surface Mount
• Package: Tube
• Voltage - Supply: 4.5V to 5.5V
• Max Propagation Delay: 15ns @ 5V, 15pF
• Input Logic Levels: 0.7V (Low), 2V (High)
• Current - Quiescent (Max): 5.4 mA
• Current - Output High, Low: 400µA, 4mA
• Moisture Sensitivity Level (MSL): Not Applicable
• Compliance: ROHS3 Compliant, REACH Unaffected

SNJ54LS02W Applications

The SNJ54LS02W is ideal for applications requiring high-speed digital logic operations. Its low propagation delay and efficient power consumption make it suitable for use in:

• Digital Circuits: Implementing complex digital logic functions.
• Control Systems: Managing control signals in embedded systems.
• Communication Devices: Processing digital signals in communication protocols.
• Consumer Electronics: Enhancing performance in various consumer devices.

Conclusion of SNJ54LS02W

The SNJ54LS02W from Texas Instruments stands out as a robust and reliable NOR gate Logic IC chip. Its combination of high-speed performance, low power consumption, and compliance with industry standards makes it a preferred choice for engineers and designers. The SNJ54LS02W is particularly advantageous in applications where compact size, high efficiency, and reliable performance are critical. Its surface mount design and tube packaging further enhance its usability and durability, making it an excellent addition to any digital logic circuit design.