10AS066K1F40I1SG

Overview

The Altera 10AS066K1F40I1SG is an Arria 10 SoC FPGA featuring a dual-core ARM Cortex-A9 processor with a maximum clock frequency of 1.2 GHz. It includes 2 x 32 kB L1 instruction and data caches per core. The device provides 660,000 logic elements (LEs), organized into 82,500 Logic Array Blocks (LABs) and 251,680 Adaptive Logic Modules (ALMs). Embedded memory capacity is 41.62 Mbit. High-speed connectivity is supported by 36 transceivers.

Feature Summary

• Integrates a hard ARM Cortex-A9 processor subsystem for embedded control tasks alongside programmable fabric
• Provides high-density logic resources through Adaptive Logic Modules for complex digital signal processing
• Supports high-speed serial communications via integrated transceiver blocks

Applications

• Telecommunications infrastructure equipment requiring combined processing and I/O capabilities
• Industrial automation systems utilizing embedded control and real-time logic
• Test and measurement instruments needing high-performance data acquisition and processing

Procurement Notes

Verify the specific suffix codes against official Intel/Altera documentation to confirm package type, temperature range, and speed grade. Ensure compatibility with existing board designs regarding pinout and power requirements before procurement.

Selection Notes

Select this model when both embedded processing and significant parallel logic resources are required. Compare against other Arria 10 variants based on the specific number of transceivers and memory needs. Verify that the 1.2 GHz processor speed meets system timing constraints.

Part Context

This component belongs to the Arria 10 SX series of System-on-Chip FPGAs. It combines the programmability of an FPGA with the efficiency of an embedded processor, targeting applications that benefit from heterogeneous computing architectures.

Replacement Considerations

Check for updated revisions within the same Arria 10 family. Consider Arria 10 GX or MX series if different transceiver speeds or memory configurations are needed, ensuring functional equivalence in logic density and processor cores.