XC95288XL-10TQG144C - AMD

Manufacturer Part Number

XC95288XL-10TQG144C

Manufacturer

Xilinx

Introduction

The XC95288XL-10TQG144C is a high-performance CPLD from Xilinx's XC9500XL series, designed for system-level integration with high density and low power consumption.

Product Features and Performance

In System Programmable with a minimum of 10K program/erase cycles

Maximum delay time of 10 ns for speed critical designs

Operating voltage from 3V to 3.6V

Features 288 macrocells and 16 logic blocks for complex designs

Provides 6400 logic gates

A vast array of 117 I/O pins to support numerous functions

Product Advantages

Enhanced system speed due to low propagation delay

High integration facilitates complex logic designs within a single device

Low power consumption aids in energy-efficient designs

Key Technical Parameters

Programmable Type: In System Programmable

Delay Time tpd(1) Max: 10 ns

Voltage Supply Internal: 3V to 3.6V

Number of Logic Elements/Blocks: 16

Number of Macrocells: 288

Number of Gates: 6400

Number of I/O: 117

Operating Temperature: 0°C to 70°C

Quality and Safety Features

Operational in standard temperature ranges ensuring reliability

Compliant with industry standards for embedded system applications

Compatibility

Compatible with surface mount technology for easy board placement

Supports various programming and debugging tools available for CPLDs

Application Areas

Widely used in telecommunications, consumer electronics, automotive systems, data processing systems, and industrial controls

Product Lifecycle

Currently in a Last Time Buy status due to impending discontinuation

Users are advised to arrange final purchases or look for suitable replacements and upgrades

Several Key Reasons to Choose This Product

Robust in-system programmability promotes flexibility in design and updates

Extensive I/O capability accommodates diverse and complex design requirements

Low power design maximizes efficiency, ideal for portable and power-sensitive applications

Industry-leading performance due to advanced manufacturing processes