10AX027H2F34E1SG

Overview

The Altera 10AX027H2F34E1SG is an Arria 10 GX FPGA featuring 270,000 logic elements and 101,620 adaptive logic modules. It integrates 14.65 Mbit of embedded memory and supports up to 384 I/Os within a 1152-pin FBGA package. The device operates with core voltages between 870 mV and 930 mV, supporting data rates up to 17.4 Gb/s across 24 transceivers. It functions within a temperature range of 0°C to +100°C.

Feature Summary

• Integrates high-speed serial transceivers for advanced connectivity
• Provides scalable logic resources via adaptive logic modules
• Supports complex digital signal processing through embedded memory blocks

Applications

• High-performance networking infrastructure equipment
• Industrial automation control systems
• Test and measurement instrumentation

Procurement Notes

Verify the specific suffix E1 against official Intel documentation to confirm electrical grade and packaging details. Ensure compliance with export regulations as this component may require additional authorization for international shipment. Confirm availability status directly with authorized distributors due to potential supply constraints.

Selection Notes

Select this model when requiring moderate logic density with high-speed serial capabilities in a compact form factor. Compare against the 10AX048 variant if higher resource counts are needed. Verify that the 1152-pin FBGA footprint matches the target PCB design constraints and thermal management requirements.

Part Context

This part belongs to the Arria 10 GX family, designed for cost-sensitive applications requiring significant parallel processing. It shares architectural similarities with other Arria 10 devices but offers distinct resource scaling. The H2 suffix typically denotes specific performance or power characteristics within the series.

Replacement Considerations

Publicly confirmed substitute part numbers are not available in the provided source material. Consult official Intel lifecycle notices for end-of-life status or recommended migration paths to newer families.