5CEFA2U19A7N

Overview

The Altera 5CEFA2U19A7N is a Cyclone V E series Field Programmable Gate Array (FPGA) featuring 25,000 logic elements and 9,434 Adaptive Logic Modules. It integrates 2,002,944 total RAM bits with 224 I/O pins housed in a 484-UBGA package measuring 19x19 mm. The device operates at a supply voltage of 1.07V to 1.13V and supports a maximum frequency of 925 MHz. It functions within a junction temperature range of -40°C to 125°C.

Feature Summary

• Integrates ARM Cortex-A9 hard processor system for heterogeneous computing capabilities
• Supports high-speed serial transceivers for advanced communication interfaces
• Features low-power 28nm process technology optimized for cost-sensitive applications

Applications

• Industrial automation control systems
• Telecommunications infrastructure equipment
• Consumer electronics signal processing

Procurement Notes

Verify the specific speed grade suffix A7 against project timing requirements. Confirm the UBGA-484 package dimensions match PCB footprint constraints. Check for any recent Product Change Notifications regarding label or assembly site updates that may affect compliance documentation.

Selection Notes

Compare total logic density and memory capacity against alternative Cyclone V variants to ensure sufficient resource headroom. Evaluate power consumption profiles under typical operating loads. Ensure compatibility with existing development tools and programming cables for the selected FPGA family.

Part Context

This component belongs to the Cyclone V E family, designed for entry-level system-on-chip solutions. It combines programmable logic with embedded processors, targeting applications requiring moderate performance and low power consumption. The U19 designation indicates the specific 484-ball ball grid array package configuration used for this density level.

Replacement Considerations

Direct substitutes include other 5CEFA2 variants with different speed grades or industrial temperature ratings, such as 5CEFA2U19I7N. Cross-family upgrades may require significant design adjustments due to architectural differences.