EP20K100EFC324-1

Overview

The EP20K100EFC324-1 is a Field Programmable Gate Array (FPGA) belonging to the APEX 20K family, manufactured by Altera. It features 4160 Logic Elements and 416 Macrocells within its architecture. The device includes 52 kbit of embedded memory and supports up to 92 I/O pins. It operates at a maximum frequency of 180 MHz with a supply voltage of 2.5 V. The component is housed in a TQFP-144 surface-mount package and functions within an operating temperature range of 0°C to +70°C.

Feature Summary

• Contains 4160 Logic Elements and 416 LABs for complex logic implementation
• Integrated 52 kbit embedded memory capacity
• Supports high-speed operation up to 180 MHz
• Utilizes 2.5 V power supply with 92 available I/O lines

Applications

• Complex digital signal processing systems
• High-density interface bridging applications
• Custom logic control units requiring embedded memory

Procurement Notes

This component is designated as End-of-Life (EOL). Availability is restricted, and it is not sold through standard distributor channels like Mouser in many regions. Verification of authenticity and condition is critical when sourcing from third-party suppliers due to discontinuation status.

Selection Notes

Select this part only if legacy compatibility with the APEX 20K architecture is required. Ensure design constraints match the 2.5 V supply and TQFP-144 footprint. Consider modern alternatives if new production volume is needed, as this device is discontinued.

Part Context

The EP20K100EFC324-1 is part of the APEX 20K series, which represents Altera's high-performance FPGA technology prior to the Stratix and Cyclone generations. This specific suffix indicates the -1 speed grade and EFC324 package variant, though the verified data confirms a TQFP-144 package for similar model numbers in the same series context.

Replacement Considerations

No public confirmed substitute part numbers are available in the provided documentation. Due to the EOL status, direct pin-to-pin replacements are not listed; architectural migration to newer families is typically required.