5SGSMD8K3F40I3

Overview

The Altera 5SGSMD8K3F40I3 is a Stratix V GS Field Programmable Gate Array featuring 695,000 logic elements and 262,400 adaptive logic modules. It integrates 50 Mbit of embedded memory and supports up to 14.1 Gb/s data rates across 36 transceivers. The device operates at a core voltage of 0.82V to 0.88V within an industrial temperature range of -40°C to 100°C junction temperature. It utilizes a 1517-ball FCBGA package for surface-mount installation.

Feature Summary

• High-density programmable logic architecture with extensive embedded memory resources
• High-speed serial connectivity via integrated transceiver PHYs
• Industrial-grade thermal performance for demanding environments

Applications

• Telecommunications infrastructure equipment
• Data center interconnect solutions
• Enterprise networking switches and routers
• Test and measurement instrumentation

Procurement Notes

Verify component authenticity through authorized channels due to potential availability constraints. Confirm specific suffix designations match exact electrical and mechanical specifications. Check for moisture sensitivity level requirements during storage and handling. Ensure compatibility with existing PCB footprints and thermal management strategies before integration into production systems.

Selection Notes

Compare against other Stratix V variants based on required logic density and I/O count. Evaluate power consumption profiles relative to available cooling solutions. Assess software toolchain support via Quartus Prime for design implementation. Consider pinout compatibility if migrating from previous generation FPGA families or alternative vendors.

Part Context

This component belongs to the Stratix V GS family, designed for cost-sensitive high-performance applications. It shares architectural similarities with other Stratix V devices but offers optimized resource allocation for specific market segments. The part represents a mature technology node within Intel's FPGA portfolio, supporting established design methodologies and IP cores.