AGIC040R39A2I1VB

Overview

The Altera AGIC040R39A2I1VB is an Agilex I Series System on Chip (SoC) integrating a quad-core ARM Cortex-A53 processor with FPGA fabric. It features 4.047M logic elements and operates at speeds up to 1.4GHz. The device includes 256KB of embedded RAM and supports 576 I/O pins. Connectivity options include Ethernet, USB OTG, SPI, UART, and MMC/SD interfaces. It utilizes a 3948-BGA package measuring 56x56 mm and functions within a junction temperature range of -40°C to 100°C.

Feature Summary

• Integrates ARM Cortex-A53 MPCore processors with CoreSight debug capabilities
• Combines high-density FPGA fabric with embedded processing subsystems
• Supports diverse peripheral interfaces including Ethernet and USB OTG

Applications

• High-performance industrial automation controllers
• Telecommunications infrastructure equipment
• Advanced automotive infotainment systems

Procurement Notes

Verify the specific suffix 'VB' against official Intel/Altera documentation to confirm pinout or electrical variations compared to standard variants. Ensure compatibility with Agilex I series design tools and validate thermal requirements for the BGA package before procurement.

Selection Notes

Select this model when requiring integrated ARM processing alongside substantial FPGA resources. Consider the 3948-ball BGA footprint for PCB layout constraints. Verify that the 1.4GHz operating frequency meets system timing requirements and that the 576 I/O count satisfies interface needs.

Part Context

This component belongs to the Agilex I Series, designed for mid-to-high performance applications. It bridges the gap between pure FPGAs and general-purpose processors by combining programmable logic with hardened ARM cores. The series emphasizes power efficiency and connectivity for edge computing tasks.

Replacement Considerations

Direct substitutes may include other Agilex I SoC variants with different logic densities or core configurations. Cross-family replacements from Intel's Stratix or Arria lines are possible but require significant architectural adaptation and toolchain adjustments.