10AX022E4F27E3LG

Overview

The Altera 10AX022E4F27E3LG is an Arria 10 GX FPGA featuring 220,000 logic elements and 82,950 adaptive logic modules. It integrates 11.6 Mbit of embedded memory and supports up to 336 I/Os within a 780-ball FBGA package. The device includes 16 high-speed transceivers capable of 17.4 Gb/s data rates. Core voltage ranges from 870 mV to 980 mV, with an operating temperature range of -40°C to +100°C.

Feature Summary

• Integrates hardened ARM Cortex-A9 processor subsystem for system control
• Supports high-speed serial connectivity via integrated transceivers
• Provides dense programmable logic resources for complex acceleration

Applications

• High-performance networking equipment
• Industrial automation controllers
• Medical imaging systems

Procurement Notes

Verify the specific ordering suffix against official Intel/Altera documentation to confirm speed grade and package details. Ensure compliance with export control regulations, as indicated by ECCN classifications in distributor listings. Confirm moisture sensitivity level requirements for surface-mount assembly processes prior to procurement.

Selection Notes

Select this variant based on the required balance between logic density and power consumption. Verify that the 780-ball FBGA package fits the target board layout constraints. Ensure the design utilizes the appropriate core voltage settings within the specified operational range for reliable performance across the industrial temperature spectrum.

Part Context

This component belongs to the Arria 10 GX family, designed for bandwidth-intensive applications. It combines programmable logic with a hardened processing subsystem. The series targets cost-sensitive markets requiring significant computational throughput without the higher costs associated with Stratix devices.

Replacement Considerations

Direct pin-to-pin replacements are limited within the same family. Consider the 10AX022E4F27E3SG for different speed grades or packaging options. Cross-family migration to Agilex may require significant redesign.