74LCX126SJ

Buffers, Drivers, Receivers, Transceivers Fairchild Semiconductor 74LCX126SJ Overview

The 74LCX126SJ from Fairchild Semiconductor is a member of the high-performance Si-gate CMOS technology class and serves as a non-inverting buffer. It is designed to meet the needs of 3.6V technologies with power-down high impedance inputs and outputs. This product, with its 14-SOP compact footprint, offers an excellent solution to drive lines with its robust characteristics, making it ideal for interfacing with high-speed microprocessors. Its design is tailored to reduce noise in digital systems, preventing signal reflection and ensuring signal integrity. The Buffers, Drivers, Receivers, Transceivers Fairchild Semiconductor 74LCX126SJ seamlessly fits into a plethora of digital applications, combining high-speed operation, low power consumption, and noise reduction in a small-sized package to deliver value to B2B customers seeking reliable and efficient circuit integration.

74LCX126SJ Features

• Designed for 3.6V V_CC Operation
• Low Power Dissipation: 4 µA maximum ICC
• High Noise Immunity: V_NIH = V_NIL = 28% V_CC
• Power Down High Impedance on Inputs and Outputs
• Supports Live Insertion and Withdrawal
• 14-SOP Package for Compactness
• Lead-Free Finish

74LCX126SJ Applications

• Computing Systems - Used for interfacing with high-speed CPUs, providing a buffer that preserves signal integrity and reduces noise.
• Telecommunications - Serves as line driving equipment in telecom infrastructure aiding in clear signal propagation.
• Industrial Controls - Assists in the digital signaling within control circuits, ensuring robust operation in industrial environments.
• Data Storage Devices - Employs as a buffer in data read/write channels to maintain data fidelity and stable operation.
• Portable Electronics - Utilized in low-power portable devices for signal buffering, benefiting from the IC’s low power consumption.
• Networking Equipment - Enables reliable data transmission across network routers and switches by minimizing signal reflections.