5ASTFD3K3F40I3G

Overview

The Altera 5ASTFD3K3F40I3G is an Arria V SoC ST FPGA featuring a dual-core ARM Cortex-A9 MPCore processor with CoreSight. It integrates 350,000 logic elements and 18 transceivers capable of 10.3125 Gb/s data rates. The device includes 19.3 MB of total embedded memory and operates within a junction temperature range of -40°C to +100°C. It utilizes a 1152-pin BGA package for surface mount installation.

Feature Summary

• Integrates dual-core ARM Cortex-A9 processing subsystem with FPGA fabric
• Supports high-speed serial communication via 18 integrated transceivers
• Provides extensive embedded memory resources for system integration

Applications

• High-performance industrial automation controllers
• Telecommunications infrastructure equipment
• Medical imaging systems requiring real-time processing

Procurement Notes

Verify the exact suffix configuration against official Intel/Altera documentation to ensure compatibility with specific thermal and electrical requirements. Confirm availability status as distribution channels may list obsolete or limited stock items. Cross-reference the manufacturer part number with authorized distributors to avoid counterfeit components.

Selection Notes

Select this component when a combined processing and programmable logic solution is required. Ensure the design accommodates the 1152-pin BGA footprint and associated thermal management needs. Verify that the available I/O count and memory capacity meet the specific application bandwidth constraints.

Part Context

This model belongs to the Arria V SoC ST family, designed for cost-sensitive applications requiring ARM processing capabilities. It shares architectural similarities with other Arria V variants but offers specific logic density and transceiver counts tailored for mid-range performance requirements in embedded systems.

Replacement Considerations

Direct replacements include the 5ASTFD3G3F40I3N and 5ASTFD3G3F40I5G from the same Arria V ST series. Verify pinout and electrical specifications before substitution to ensure functional equivalence in existing designs.