8N3SV76LC-0152CDI8

Programmable Timers and Oscillators Intersil (Renesas Electronics Corporation) 8N3SV76LC-0152CDI8 Overview

The Programmable Timers and Oscillators Intersil (Renesas Electronics Corporation) 8N3SV76LC-0152CDI8 is a high-performance IC oscillator that delivers precision timing solutions, ideal for demanding applications requiring high frequency and low jitter. This VCXO (Voltage Controlled Crystal Oscillator) is designed to operate at a frequency of 328.125 MHz, providing exceptional frequency stability and control, essential for advanced telecommunications and data communication networks. With its robust packaging and proven performance, the 8N3SV76LC-0152CDI8 oscillator is a reliable choice for engineers looking to optimize their system performance while ensuring consistency and reliability.

8N3SV76LC-0152CDI8 Features

This oscillator features a compact 6CLCC (Ceramic Leadless Chip Carrier) package that ensures minimal footprint and enhanced durability. It offers superior phase noise characteristics, which are crucial for high-speed digital networks. Additionally, the oscillator's ability to be voltage-controlled allows for fine-tuning and precise frequency management, making it adaptable to varied operating conditions and specific system requirements.

8N3SV76LC-0152CDI8 Applications

• Telecommunications Infrastructure: Used in base station equipment, providing the timing needed for synchronization and channel allocation.
• Data Centers: Ensures reliable frequency sources for server clocks that require high precision to maintain system integrity and speed.
• Broadcasting Equipment: Provides the exact timing necessary for digital broadcasting systems, ensuring signal integrity and synchronization across various equipment.
• Test and Measurement Gear: Ideal for high-precision test equipment where stable and precise frequency control is mandatory for accurate measurements.
• High-Speed Networking: Supports network equipment in maintaining critical timing for data transfer and signal integrity across complex network architectures.