Allen-Bradley 1791-16A0 BLOCK I/O INPUT MODULE

Manufacturer:Allen-Bradley

Model Number:1791-16A0

Type:Block I/O Input Module

Operating Voltage:10 – 30 VDC

Number of Inputs:16

Current Rating:0.5 A

Voltage Rating:24 VDC

Surge Current Rating:1 A

Isolation Voltage:500 VAC

Enclosure Type:IP20, Open Type

Communication Protocol:DeviceNet

Mounting Method:DIN Rail, Panel

Dimensions:Length: 1.9 IN, Width: 1.5 IN, Height: 4.4 IN

Temperature Range:0 – 60 DEG C

Environmental Conditions:Non-Operating Temperature: -40 – 70 DEG C

    Engineered for efficiency and reliability, the Allen-Bradley 1791-16A0 BLOCK I/O INPUT MODULE is a cornerstone in modern industrial automation systems. This compact, high-performance module is designed to integrate seamlessly into existing control networks, enhancing system responsiveness and accuracy.

    Featuring a robust 16-channel input configuration, it is ideal for applications requiring precise data acquisition from sensors and other input devices. With its wide voltage range of 10-30 VDC, this module is compatible with a variety of power sources, ensuring compatibility across different manufacturing environments.

    Equipped with advanced surge protection capabilities, the 1791-16A0 ensures uninterrupted operation even under harsh conditions, safeguarding against transient voltage spikes. Its IP20 enclosure type offers a balance between protection against dust and splash water, making it suitable for industrial settings.

    The inclusion of DeviceNet communication protocol allows for easy integration with Allen-Bradley’s ControlLogix family of controllers, facilitating a seamless data exchange between modules and the central control system. This enhances system flexibility and scalability, enabling manufacturers to adapt their automation strategies as needed.

    Installation options include DIN Rail and panel mounting, providing versatility in deployment scenarios. The compact dimensions (1.9 inches by 1.5 inches by 4.4 inches) and low weight make it an efficient solution for space-constrained areas without compromising on performance.