XC5VLX50-1FF324C

Field Programmable Gate Array Overview

The XC5VLX50-1FF324C is a Virtex-5 LX Field Programmable Gate Array (FPGA) manufactured by AMD. It features 46,080 logic elements and 3,600 LABs/CLBs within a 324-pin FBGA package. The device provides 220 I/O interfaces and operates at a supply voltage of 1V. It includes 1.7 Mbit of embedded block RAM and supports an operating temperature range from 0°C to +85°C.

Field Programmable Gate Array Feature Summary

• Utilizes 65nm CMOS technology for high-density logic implementation
• Integrates dedicated digital clock manager blocks for precise timing control
• Supports SelectIO standards with active termination capabilities

Field Programmable Gate Array Applications

• High-performance general-purpose logic processing
• Industrial automation control systems
• Telecommunications infrastructure equipment

Field Programmable Gate Array Procurement Notes

Verify the specific suffix designation against official AMD documentation to confirm exact electrical characteristics and compliance status. Ensure compatibility with existing board layouts regarding the 324-pin FBGA footprint and thermal requirements before procurement.

Field Programmable Gate Array Selection Notes

Compare this model with other Virtex-5 LX variants based on required I/O count and package size. Consider the -1 speed grade for performance needs and verify that the 324-pin form factor meets space constraints while providing sufficient connectivity for the target design.

Field Programmable Gate Array Part Context

This component belongs to the Virtex-5 LX family, optimized for high-performance general logic applications. It shares architectural similarities with other LX devices but differs in pin count and I/O capacity. The series utilizes the ASMBL column architecture for efficient resource utilization.

Field Programmable Gate Array Replacement Considerations

Evaluate XC5VLX50-1FFG324C as a direct functional substitute with verified pinout compatibility. Cross-reference specifications for identical logic density and memory resources to ensure seamless integration without redesign.