8N4SV76EC-0149CDI8

Programmable Timers and Oscillators Intersil (Renesas Electronics Corporation) 8N4SV76EC-0149CDI8 Overview

The Programmable Timers and Oscillators Intersil (Renesas Electronics Corporation) 8N4SV76EC-0149CDI8 IC is a cutting-edge, high-performance Voltage-Controlled Crystal Oscillator (VCXO) designed to meet the demanding specifications of advanced telecommunication systems and precision frequency applications. This component operates at a robust frequency of up to 350 MHz and is housed in a compact 6CLCC package, making it ideal for high-density mounting on modern PCBs. Its ability to provide precise frequency control and stability under varying environmental conditions makes it indispensable for critical applications where timing accuracy is paramount.

8N4SV76EC-0149CDI8 Features

This VCXO integrates several key features that enhance its performance and reliability. It offers low phase noise, which is crucial for systems requiring high signal integrity. The device also supports a wide range of supply voltages and has excellent pull range options. Its design ensures minimal power consumption while maintaining maximum output consistency, crucial for sustainable, long-term operations in energy-sensitive environments.

8N4SV76EC-0149CDI8 Applications

• Telecommunications: Utilized in network timing devices for synchronizing high-speed data transfers and signal processing. The precision of the 8N4SV76EC-0149CDI8 ensures minimal latency and jitter in communication systems.
• Broadcasting Equipment: Applied in the timing control of broadcast systems where stable and precise frequency generation is necessary to maintain the integrity of audio and video transmissions.
• Data Centers: Helps in managing server timing, ensuring synchronized operations across extensive digital infrastructures, critical for maintaining the reliability and efficiency of cloud services.
• Industrial Systems: Used in control mechanisms that require precise timing sequences to operate automated machinery with high accuracy and minimal error rates.