XC2C384-10FG324I - AMD

Manufacturer Part Number

XC2C384-10FG324I

Manufacturer

Xilinx

Introduction

The XC2C384-10FG324I is a part of the CoolRunner II series of Embedded CPLDs (Complex Programmable Logic Devices) specifically designed for power and area-sensitive projects.

Product Features and Performance

In-system programmable

High-performance CPLD with 384 macrocells and 24 logic blocks

Provides 9,000 gates

Supports 240 I/O pins

Fast propagation delay of 9.2 ns maximum

Can operate between a voltage supply range of 1.7V to 1.9V

Product Advantages

Exceptionally low power consumption with CoolRunner II technology

Superior system speed and performance optimization capabilities

Supports high density and complexity for sophisticated logic circuits

Key Technical Parameters

Number of Logic Elements/Blocks: 24

Number of Macrocells: 384

Number of Gates: 9000

Number of I/O: 240

Voltage Supply Internal: 1.7V ~ 1.9V

Delay Time tpd(1) Max: 9.2 ns

Quality and Safety Features

Tested rigorously for operation in extreme temperatures from -40°C to 85°C

Robust surface mount 324-BBGA package ensures reliability

Compatibility

Compatible with various standard design software for CPLDs

Seamless integration capability with other hardware components and logic devices

Application Areas

Ideal for telecommunications, automotive, consumer electronics, and data processing systems

Suited for projects demanding high speed, optimized power, and high-density logic integration

Product Lifecycle

Product Status: Last Time Buy

Customers should procure sufficient stock as this model is nearing discontinuation

Contact Xilinx for information about replacements or upgrades

Several Key Reasons to Choose This Product

Energy-efficient design decreases overall power consumption for embedded systems

High I/O pin count and logic cell density offers superior design flexibility

Prolonged operational stability in diverse temperature conditions ensures reliability

Suitable for high-complexity and timing-sensitive applications due to fast signal propagation features