Hitachi EH-AX44 Analog Input Module – High Precision, Reliable Industrial Solution
The Hitachi EH-AX44 Analog Input Module is a high-performance industrial control component designed for precise analog signal acquisition in demanding environments. Ideal for integration into complex automation systems, this module ensures reliable data collection and processing.
Detailed content
Brand:Hitachi
Model:EH-AX44
Module Type:Analog Input
Input Channels:4
Signal Range:-10V to +10V
Sampling Rate:Up to 100Hz
Power Consumption:1.5W
Operating Temperature:-20°C to +70°C
Reliability Rating:MTBF > 50,000 hours
Communication Interface:RS-485
Installation Method:Panel-Mount
Dimensions:90mm x 90mm x 25mm
Weight:0.2kg
The Hitachi EH-AX44 Analog Input Module is engineered with precision and reliability, making it an ideal choice for demanding industrial environments. Its robust design ensures longevity and minimal downtime, crucial for continuous operation in manufacturing and processing facilities.
Featuring 4 independent analog input channels, this module offers a wide signal range (-10V to +10V), enabling accurate measurement across a variety of applications. With a sampling rate of up to 100Hz, it captures dynamic changes swiftly, ensuring real-time monitoring and control.
Operated within a temperature range of -20°C to +70°C, the EH-AX44 is designed for versatility, capable of functioning in extreme conditions found in industrial settings. Its high MTBF rating of over 50,000 hours indicates exceptional durability and reliability, backed by Hitachi’s reputation for quality.
Equipped with an RS-485 communication interface, the module facilitates efficient data exchange with other components in the system. This feature supports seamless integration into existing automation networks, enhancing operational efficiency.
For easy installation and maintenance, the EH-AX44 is available in a panel-mount design. Its compact size (90mm x 90mm x 25mm) and lightweight construction (0.2kg) make it suitable for space-constrained environments, ensuring optimal use of resources without compromising functionality.