Intel

EPM7064BFC100-3  

CPLDs

EPM7064BFC100-3 Description

The EPM7064BFC100-3 is a Complex Programmable Logic Device (CPLD) from Intel's MAX® 7000B series, designed for high-performance and versatile digital logic applications. This device features 64 macrocells, 68 I/O pins, and a programmable type that supports in-system programming, making it highly adaptable for various electronic designs. The EPM7064BFC100-3 operates within a voltage supply range of 2.375V to 2.625V and can function in an ambient temperature range of 0°C to 70°C. It is housed in a 100-pin BGA package, which is ideal for surface-mount applications. Despite its obsolete status, the EPM7064BFC100-3 remains a reliable choice for legacy systems and specific applications where its unique features are advantageous.

EPM7064BFC100-3 Features

• High-Density Logic: With 64 macrocells and 4 logic elements/blocks, the EPM7064BFC100-3 offers a significant amount of programmable logic, capable of implementing complex digital circuits.
• Fast Performance: The device boasts a maximum delay time (tpd) of 3.5 ns, ensuring high-speed operation suitable for demanding applications.
• Flexible I/O: Equipped with 68 I/O pins, this CPLD provides ample connectivity options for interfacing with various peripherals and systems.
• In-System Programmability: The EPM7064BFC100-3 supports in-system programming, allowing for easy updates and reprogramming without the need for additional hardware.
• Robust Power Supply Range: The device operates within a voltage supply range of 2.375V to 2.625V, ensuring compatibility with a wide range of power sources.
• Surface-Mount Compatibility: The 100-pin BGA package is designed for surface-mount technology, facilitating compact and efficient PCB designs.
• Moisture Sensitivity Level 3: The EPM7064BFC100-3 is rated at MSL 3 (168 hours), ensuring reliability in various environmental conditions.

EPM7064BFC100-3 Applications

The EPM7064BFC100-3 is well-suited for a variety of applications due to its high-density logic, fast performance, and flexible I/O capabilities. Some specific use cases include:

• Telecommunications: Ideal for implementing digital signal processing and control logic in communication systems.
• Industrial Automation: Used in programmable controllers, motor control systems, and other industrial applications requiring high-speed logic and I/O flexibility.
• Consumer Electronics: Suitable for digital signal processing in devices such as digital cameras, gaming consoles, and other consumer electronics.
• Automotive: Employed in engine control units, infotainment systems, and other automotive applications where reliability and performance are critical.
• Medical Devices: Used in diagnostic equipment, imaging systems, and other medical devices that require precise digital logic and control.

Conclusion of EPM7064BFC100-3

The EPM7064BFC100-3 is a versatile and high-performance CPLD that offers significant advantages over similar models. Its 64 macrocells, 68 I/O pins, and fast 3.5 ns delay time make it an excellent choice for complex digital logic applications. The in-system programmability and surface-mount compatibility further enhance its adaptability and ease of use. Despite being marked as obsolete, the EPM7064BFC100-3 remains a reliable solution for legacy systems and specific applications where its unique features are essential. Its robust power supply range and moisture sensitivity level ensure reliability in various operating conditions, making it a valuable component in the electronics industry.

EPM7064BFC100-3 Documents

Download datasheets and manufacturer documentation for EPM7064BFC100-3

Datasheets :

100-FBGA Pkg Info       MAX 7000B Device Family Data Sheet      

PCN Packaging :

All Dev Pkg Chg 1/Aug/2018       Mult Dev Dessicant Chg 19/Jul/2019      

PCN Other :

Software Disc 06/Nov/2020      

PCN Obsolescence/ EOL :

EOL 01/Dec/2016       EOL 21/Nov/2016      

HTML Datasheet :

100-FBGA Pkg Info       MAX 7000B Device Family Data Sheet      

PCN Design/Specification :

Mult Series Software Chgs 26/Mar/2020