5SEE9H40I4N

Overview

The Altera 5SEE9H40I4N is a Stratix V E Field Programmable Gate Array (FPGA) featuring 840,000 logic elements and 31,700 Adaptive Logic Modules (ALMs). It provides 696 I/Os and includes 52 Mbit of embedded memory within a 1517-pin BGA package. The device operates at a core voltage of 850 mV and supports an industrial temperature range from -40°C to +85°C. This component belongs to the Stratix V Extended series, designed for high-performance digital signal processing and complex logic applications requiring robust environmental tolerance.

Feature Summary

• Stratix V E architecture with 840,000 LEs and 31,700 ALMs
• 696 I/O pins with 52 Mbit embedded memory
• Industrial temperature rating (-40°C to +85°C)
• 1517-pin BGA surface-mount package

Applications

• High-speed digital signal processing
• Telecommunications infrastructure
• Industrial control systems

Procurement Notes

Verify current availability status as distribution channels may list this part as obsolete or limited stock. Confirm RoHS compliance and moisture sensitivity level (MSL) ratings prior to ordering. Check for any Product Change Notifications (PCNs) regarding packaging or labeling updates that may affect integration timelines.

Selection Notes

Select the 5SEE9H40I4N when extended temperature operation is required alongside high logic density. Compare pin counts and memory resources against similar Stratix V models to ensure optimal fit for board space constraints. Validate power supply requirements for the 850 mV core voltage during PCB design.

Part Context

This FPGA is part of the Intel (formerly Altera) Stratix V family, specifically the 'E' (Extended) variant which offers enhanced reliability and wider operating temperature ranges compared to commercial grade parts. It utilizes the Quartus Prime software for configuration and development.

Replacement Considerations

Direct substitutes are not explicitly listed in public documentation. Consider other Stratix V E variants with compatible pinouts or higher/lower logic densities depending on specific design flexibility needs.