5AGXBA1D4F31I5G

Overview

The Altera 5AGXBA1D4F31I5G is an Arria V GX Field Programmable Gate Array (FPGA) integrated circuit. It features a logic density of 75,000 logic elements and includes 9 transceivers capable of data rates up to 6.5536 Gb/s. The device provides 416 I/Os and integrates 10.26 Mbit of embedded memory. It operates within a junction temperature range of -40°C to 100°C and utilizes a 896-ball FineLine BGA package measuring 31x31 mm.

Feature Summary

• Supports high-speed serial communication via integrated transceivers
• Provides flexible programmable logic resources for custom hardware acceleration
• Integrates embedded memory blocks for on-chip data storage

Applications

• High-performance digital signal processing systems
• Industrial automation and control interfaces
• Test and measurement equipment prototyping

Procurement Notes

Verify the specific suffix 'I5G' against official Intel/Altera documentation to confirm industrial temperature rating and RoHS compliance status. Cross-reference the manufacturer part number with current product lifecycle notices to ensure availability and long-term supply stability before finalizing procurement plans.

Selection Notes

Compare this model against other Arria V GX variants based on required logic element count and transceiver bandwidth. Ensure the 896-FBGA package footprint matches the target PCB design constraints. Verify that the 1.1V core voltage requirements align with the system power delivery architecture.

Part Context

This component belongs to the Arria V GX family, designed for cost-sensitive applications requiring moderate performance. It shares architectural similarities with the SX and ST families but distinguishes itself through its specific mix of logic density and transceiver capabilities tailored for general-purpose high-speed interconnects.

Replacement Considerations

Direct substitutes may include other Arria V GX devices with equivalent pin counts and logic densities. Consult official migration guides for pin-compatible alternatives if redesigning the board is not feasible.