5CGTFD7C5F23C7N

Overview

The Altera 5CGTFD7C5F23C7N is a Cyclone V GT Field Programmable Gate Array (FPGA) designed for high-performance digital logic applications. It features 104,000 Logic Elements and 38,000 Adaptive Logic Modules within its fabric. The device integrates 6.47 Mbit of embedded memory and provides 236 Input/Output terminals. It operates with a maximum data rate of 6.144 Gb/s via six transceivers. The component supports surface mount installation in an FBGA-672 package and functions within a commercial temperature range of 0°C to +85°C.

Feature Summary

• Supports high-speed serial communication through integrated transceiver blocks
• Provides scalable logic density using adaptive logic modules
• Integrates substantial on-chip memory resources for data buffering

Applications

• High-speed data acquisition systems
• Industrial automation controllers
• Telecommunications interface cards

Procurement Notes

Verify the specific suffix codes against official datasheets to confirm temperature grade and packaging variations. Ensure compatibility with existing board layouts regarding the FBGA-672 footprint dimensions. Confirm lead times directly with authorized distributors as availability fluctuates based on production cycles.

Selection Notes

Select this model when designs require moderate logic capacity combined with multi-gigabit transceiver connectivity. Compare total embedded memory requirements against alternative Cyclone V variants to ensure optimal cost-to-performance ratio. Validate that the I/O count meets system interface needs without excessive unused pins.

Part Context

This component belongs to the Cyclone V GT family, which targets gateways and infrastructure equipment requiring reliable high-speed serial links. It sits between the lower-end GX series and higher-end Stratix devices in terms of performance and resource allocation.

Replacement Considerations

Direct substitutes include other Cyclone V GT parts such as 5CGTFD5C5F27C7N or 5CGTFD9C5F23I7NQS, provided pin counts and package types match exactly. Verify functional equivalence before swapping components in existing hardware designs.