5SGXMA7H3F35I3

Field Programmable Gate Array Overview

The Altera 5SGXMA7H3F35I3N is a Stratix V GX Field Programmable Gate Array featuring 622,000 logic elements and 234,720 adaptive logic modules. It integrates 50 Mbit of embedded memory and supports 552 I/Os within an FBGA-1152 package. The device includes 24 transceivers capable of data rates up to 14.1 Gb/s. Operating voltage is fixed at 900 mV, with a temperature range spanning from -40°C to +85°C.

Field Programmable Gate Array Feature Summary

• Stratix V GX architecture optimized for high-speed serial communications
• Integrated hard processor system support capabilities
• High-density logic fabric with extensive embedded memory resources

Field Programmable Gate Array Applications

• Telecommunications infrastructure equipment
• Data center interconnect solutions
• Industrial automation control systems

Field Programmable Gate Array Procurement Notes

Verify the complete part number including suffixes such as N or LN, as these indicate specific packaging or environmental ratings. Confirm lifecycle status, as many Stratix V devices are discontinued. Ensure compatibility with Quartus Prime software versions supporting this legacy family before procurement planning.

Field Programmable Gate Array Selection Notes

Compare against the 5SGXEA7 series for potential pin-compatible alternatives with different power profiles. Evaluate total memory requirements against the 50 Mbit limit. Consider thermal management needs due to the high transistor count in the 1152-ball BGA package.

Field Programmable Gate Array Part Context

This component belongs to the Stratix V GX family, designed primarily for gigabit transceiver applications. It sits between the lower-density Stratix V E series and higher-end Stratix V GT models in terms of transceiver count and performance characteristics.

Field Programmable Gate Array Replacement Considerations

Public confirmed substitute part numbers are not available. The Stratix V family is largely discontinued; Agilex or Stratix 10 families may require significant design changes.