XAZU2EG-1SBVA484Q

Soc System On Chip Overview

The XAZU2EG-1SBVA484Q is a Zynq UltraScale+ RFSoC FPGA manufactured by AMD. It integrates dual ARM Cortex-A53 cores, quad ARM Cortex-R5 cores, and an ARM Mali-400 MP2 GPU with programmable logic. The device features 7.6 Mbit of embedded memory, including distributed RAM and embedded block RAM. It supports a maximum clock frequency of up to 1.2 GHz for the processing system and operates within a temperature range of -40°C to +125°C. The component utilizes an FCBGA-484 package and includes 82 I/O pins.

Soc System On Chip Feature Summary

• Integrates heterogeneous processing systems combining ARM processors with programmable logic
• Includes integrated graphics processing unit for multimedia acceleration
• Supports high-speed data conversion capabilities inherent to the RFSoC architecture

Soc System On Chip Applications

• Software-defined radio systems
• High-performance industrial automation controllers
• Medical imaging equipment signal processing

Soc System On Chip Procurement Notes

Verify the specific speed grade suffix '1' against design timing requirements. Confirm the BGA-484 package dimensions match the PCB footprint. Ensure moisture sensitivity level handling procedures are followed during assembly to prevent damage.

Soc System On Chip Selection Notes

Select this model when dual-core application processing is required alongside moderate logic capacity. Compare against higher-density variants if additional embedded memory or logic elements are needed. Verify power supply voltage requirements align with the 850 mV core specification.

Soc System On Chip Part Context

This component belongs to the XAZU2EG series within the Zynq UltraScale+ RFSoC family. It represents a mid-range option in the portfolio, balancing processing performance with logic resources for embedded control applications requiring mixed-signal integration.

Soc System On Chip Replacement Considerations

Direct substitutes include other speed grades within the XAZU2EG-1SBVA484Q series. Cross-family migration requires re-evaluation of pin compatibility and resource utilization constraints.