9DB633AGLF

Application Specific Clock/Timing Intersil (Renesas Electronics Corporation) 9DB633AGLF Overview

The Application Specific Clock/Timing Intersil (Renesas Electronics Corporation) 9DB633AGLF is a high-performance, zero delay buffer designed to meet the demanding requirements of high-speed communication infrastructures. This IC ensures precise timing and distribution of clock signals essential for synchronous operations, packaged in a compact 28-TSSOP format. The 9DB633AGLF excels in applications where low jitter and skew are critical, making it an ideal choice for advanced computing and networking systems. Its robust design and capability to fan out six clock outputs from a single input while maintaining zero delay is pivotal for systems requiring consistent and reliable clock distribution.

9DB633AGLF Features

This clock fanout buffer integrates several features that enhance its performance and suitability for sophisticated electronic systems. It supports multiple clock inputs while maintaining low skew and minimal jitter, ensuring that the clocks distributed across different components are synchronized without degradation. The device is also designed for low power consumption, contributing to energy efficiency in system designs. Furthermore, the 28-TSSOP package allows for a compact footprint on PCBs, making it suitable for dense circuit designs.

9DB633AGLF Applications

• Server Motherboards: Utilized for distributing synchronized clock signals to various components, enhancing overall system stability and performance.
• Telecommunications Equipment: Ensures reliable clock distribution essential for high-speed data transmission and signal integrity in telecom infrastructures.
• Networking Hubs and Routers: Applied in managing clock synchronization across network pathways, crucial for maintaining data coherency and timing accuracy in network operations.
• Data Centers: Used to provide stable and synchronized clock signals across extensive server arrays, critical for large-scale data management and real-time processing.