MC-10287F1-HN4-A#YB2

Microcontrollers Overview

The MC-10287F1-HN4-A is a high-speed differential clock buffer and fanout buffer manufactured by Renesas Electronics Corporation. Designed for demanding digital systems, this component accepts differential LVDS or CML inputs and provides multiple low-power differential outputs. It operates within a supply voltage range of 3.135V to 3.465V, ensuring stable performance in high-frequency applications. The device features a 48-pin TQFP package, facilitating integration into complex circuit boards requiring precise clock distribution and signal integrity management.

Microcontrollers Feature Summary

• Provides differential input buffering with multiple output channels for clock distribution
• Supports LVDS and CML input standards for versatile interface compatibility
• Operates at high frequencies suitable for advanced digital system timing requirements

Microcontrollers Applications

• High-speed data communication equipment
• Telecommunications infrastructure
• Computer networking hardware

Microcontrollers Procurement Notes

Verify the specific suffix HN4-A#YB2 against official Renesas documentation to confirm package type and tape-and-reel specifications. Ensure compatibility with existing PCB footprints and thermal management designs. Cross-reference the date code and lot information to meet quality assurance standards for critical infrastructure components.

Microcontrollers Selection Notes

Select this component when differential clock distribution with LVDS or CML inputs is required. Consider the 48-pin TQFP package constraints and operating temperature range. Evaluate power consumption profiles against system thermal limits. Confirm that the output drive strength meets the load requirements of connected downstream logic devices.

Microcontrollers Part Context

This part belongs to the MC10287 family of high-speed clock buffers. These components are engineered for precision timing in high-performance digital environments. The series offers various pin configurations and output counts to suit different system architectures while maintaining signal integrity across wide frequency ranges.