Manufacturer Part Number
EPM1270GF256C3N
Manufacturer
Intel
Introduction
The EPM1270GF256C3N is an embedded Complex Programmable Logic Device (CPLD) from Intel's MAX® II series. It offers a high-performance, low-power solution for a wide range of embedded applications, providing advanced logic functionality, flexible I/O, and in-system programmability.
Product Features and Performance
1270 Logic Elements/Blocks
980 Macrocells
212 I/O Pins
2 ns Maximum Delay Time (tpd(1))
71V to 1.89V Internal Voltage Supply
0°C to 85°C Operating Temperature Range
Surface Mount Package (256-BGA)
Product Advantages
Optimized for low-power, high-performance embedded applications
Flexible I/O configuration and in-system programmability
Robust design for reliable operation in diverse environments
Seamless integration with Intel's development tools and ecosystem
Key Reasons to Choose This Product
Exceptional performance and power efficiency for your embedded designs
Ease of use and flexibility to adapt to changing requirements
Trusted Intel quality and reliability for mission-critical applications
Compatibility with a wide range of development tools and platforms
Quality and Safety Features
Rigorously tested to meet high-reliability standards
Robust design for operation in harsh environments
Compliance with relevant safety and regulatory requirements
Compatibility
The EPM1270GF256C3N is compatible with a wide range of embedded systems and development platforms, making it a versatile choice for various applications.
Application Areas
Industrial automation and control systems
Medical devices and healthcare equipment
Automotive electronics and transportation systems
Telecommunications and networking infrastructure
Consumer electronics and smart home devices
Product Lifecycle
The EPM1270GF256C3N is an active product, and Intel continues to support and maintain it. While there may be equivalent or alternative models available, it is recommended to contact our website's sales team for the most up-to-date information on product availability and potential alternatives.