9DB633AFILF

Application Specific Clock/Timing Intersil (Renesas Electronics Corporation) 9DB633AFILF Overview

The Application Specific Clock/Timing Intersil (Renesas Electronics Corporation) 9DB633AFILF is an integrated circuit specifically designed to address advanced clock distribution and fanout requirements in high-performance computing systems. This IC, encapsulated in a 28-SSOP package, excels in delivering zero delay and low skew characteristics, making it a critical component in maintaining system timing accuracy across multiple devices. Its robust design and advanced features ensure that it meets the stringent demands of today's complex digital environments, making it an ideal solution for applications requiring precise clock timing and distribution.

9DB633AFILF Features

The 9DB633AFILF offers several key features that make it stand out in the realm of clock/timing specific ICs. Notably, it provides six differential clock pairs capable of fanout, which are crucial for achieving the synchronous operation in multi-clock systems. The zero delay buffer enhances the integrity and precision of the signal, while built-in skew management minimizes timing discrepancies, thus ensuring reliable and consistent performance. Additionally, its compatibility with various signal standards, including LVPECL, LVDS, and HSTL, offers versatile integration options for multiple technology platforms.

9DB633AFILF Applications

• Data Centers

  This IC can be utilized to manage clock distribution in server motherboards, ensuring synchronous data handling and processing, which is vital for the operational efficiency of data centers.

• Telecommunications

  In telecommunication equipment, the 9DB633AFILF helps in maintaining the timing integrity of high-speed signals across various network components, critical for error-free data transmission and reception.

• High-Performance Computing (HPC)

  The IC is ideal for HPC environments where multiple processors require precise clock synchronization to efficiently process complex computations and maintain system stability.