Model Type:1746-NO81
Manufacturer:Allen Bradley
Module Type:Analog Output
Operating Voltage Range:12 to 36 VDC
Current Rating:0.5 A per channel
Output Channels:8
Communication Protocol Compatibility:ControlNet, DeviceNet, EtherNet/IP
Maximum Load Resistance:250 Ohms
Environmental Conditions:Operating temperature: -10°C to +60°C, Storage temperature: -20°C to +85°C
Dimensions (WxHxD):110mm x 100mm x 66mm
Weight:0.28 kg
The Allen-Bradley 1746-NO81 Analog Output Module is engineered to deliver exceptional precision and reliability in industrial automation environments. This module is specifically designed for applications where accurate analog output signals are critical for process control, such as temperature regulation, pressure control, and flow management.
Each of the eight channels on this module offers a resolution of 12 bits, ensuring a wide dynamic range and high accuracy in signal representation. The ability to operate within a voltage range of 12-48V DC makes it compatible with a broad spectrum of industrial systems, enhancing its versatility.
With support for multiple communication protocols including ControlNet, DeviceNet, and EtherNet/IP, the 1746-NO81 module seamlessly integrates into existing network infrastructures, streamlining communication and data exchange between different components of an automated system.
The current capacity of up to 25mA per channel allows for efficient power delivery to connected devices, while the compact design and lightweight construction make it suitable for both new installations and retrofit applications. Its robust temperature specifications (-20°C to +60°C operational, -40°C to +85°C storage) ensure reliable performance in a variety of environmental conditions.
To further enhance usability, the Allen-Bradley 1746-NO81 Analog Output Module is designed with user-friendly interfaces and intuitive setup procedures, enabling operators to quickly configure and monitor the module’s settings. Comprehensive documentation and technical support are available to ensure a smooth integration process and optimal performance.
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