Festo CPV14-GE-DI01-8 Electrical Interface for Industrial Control Systems

Product Type:Electrical Interface Module

Model Number:CPV14-GE-DI01-8 165811

Festo Type Designation:Standard

Reverse Polarity Protection:For all electrical connections

Baud Rate Range:9.6 kbps – 12 Mbps

Automatic Detection:Yes

Nominal Operating Voltage (DC):24 V

LED Display:For BUS: Communication and configuration error

Cover Material:PA Reinforced

CP Strand Expansion:16 Inputs / 8 Outputs (or 16 Valves)

Communication Types:Cyclical Communication

Max. Number of Valve Coils with Strand Expansion:32

Power Input in Nominal Operating Voltage:Sensor Supply: Sensor dependent, Electronics: <= 100 mA

    The Festo CPV14-GE-DI01-8 165811 is a versatile industrial control module, meticulously crafted for seamless integration into diverse automation environments. Its robust design ensures reliable performance under challenging conditions.

    Featuring advanced reverse polarity protection, this module safeguards against electrical damages, ensuring continuous operation and longevity. The extensive baud rate range allows compatibility with various communication protocols, facilitating smooth data exchange.

    With automatic detection capabilities, the CPV14-GE-DI01-8 165811 effortlessly identifies and adapts to the system requirements, streamlining installation and reducing setup time. Its LED display serves as an intuitive interface for monitoring communication and configuration errors, enhancing operational efficiency.

    Equipped with a PA-reinforced cover, the module offers enhanced durability and protection against environmental factors. The inclusion of 16 inputs and 8 outputs (or 16 valves) caters to a wide range of application needs, providing flexibility in configuring control systems.

    Cyclical communication ensures consistent and reliable data flow, crucial for real-time process monitoring and control. The ability to support up to 32 valve coils with strand expansion enables the management of multiple actuators or valves efficiently. The power input in the nominal operating voltage and sensor supply dependency allow for optimized energy consumption and adaptability to various sensor configurations.