EP2AGX125EF35C4N

Field Programmable Gate Array Overview

The EP2AGX125EF35C4N is an Arria II GX Field Programmable Gate Array manufactured by Altera. It features 118,143 logic elements and 4,964 Adaptive Logic Modules within a 1152-pin FBGA package. The device includes 7.93 Mbits of embedded memory and supports data rates from 600 Mb/s to 6.375 Gb/s via its transceivers. Operating temperatures range from 0°C to +70°C with supply voltages between 1.5 V and 3.3 V.

Field Programmable Gate Array Feature Summary

• Integrates high-speed serial transceivers for multi-gigabit communication applications
• Utilizes Adaptive Logic Modules for efficient logic resource utilization
• Supports complex digital signal processing through extensive embedded memory blocks

Field Programmable Gate Array Applications

• High-speed networking equipment
• Industrial automation control systems
• Medical imaging hardware

Field Programmable Gate Array Procurement Notes

Verify component authenticity through authorized channels as the part is discontinued. Confirm RoHS compliance status and check for moisture sensitivity handling requirements before assembly. Ensure compatibility with existing design files and development tools.

Field Programmable Gate Array Selection Notes

Compare against other Arria II GX variants based on I/O count and package size. Evaluate total embedded memory capacity relative to system requirements. Consider thermal management needs given the surface mount installation style and operating temperature range.

Field Programmable Gate Array Part Context

This component belongs to the Arria II GX family, designed for cost-sensitive high-performance applications. It shares architectural similarities with other devices in the series but differs in specific pin counts and logic density configurations suitable for mid-range programmable logic tasks.

Field Programmable Gate Array Replacement Considerations

Direct substitutes include EP2AGX125EF35I5 and EP2AGX125EF35C4G. Verify package compatibility and electrical specifications when transitioning between these variants.