Allen Bradley 1747-M2 SLC 500 EEPROM Memory Module

Memory Type:EEPROM

Memory Capacity:32 KB

Instructions:4K

Compatible Systems:SLC 5/01, 5/02 Programmable Controllers

Dimensions:Depth: 1.1 IN | Width: 2.6 IN | Height: 4.58 IN

Power Rating:7 – 30 VDC, 250 MA

Operating Temperature:0 – 60 DEG C

Environmental Conditions:Storage: -40 To 85 DEG C | Humidity: 5 – 95% Non-Condensing | Vibration: 10 To 57 HZ, 0.3 MM | Peak-To-Peak Displacement 57 – 500 HZ, 2 G | Shock: 30 G (Operating), 50 G (Non-Operating)

    The Allen Bradley 1747-M2 SLC 500 EEPROM Memory Module is specifically designed to enhance the functionality and reliability of programmable controllers in industrial automation environments. It offers a robust storage capacity for instructions and data, ensuring seamless operation and efficient data management within the SLC 5/01 and 5/02 series.

    With a compact size and high environmental resistance, this module can withstand a wide range of operational conditions, from extreme temperatures to varying humidity levels, making it ideal for diverse industrial settings. Its vibration and shock resistance further ensures stable performance even in harsh environments.

    Featuring an energy-efficient design, the 1747-M2 consumes minimal power, reducing energy costs and contributing to sustainable operations. Its compatibility with NEMA standards guarantees reliable performance across different industrial applications.

    This memory module is a crucial upgrade for existing SLC 5/01 and 5/02 systems, offering enhanced security through its secure EEPROM technology. It enables users to store critical software and data without the risk of loss due to power failures, ensuring continuous operation and data integrity.

    For users seeking to maximize efficiency and reliability in their automation systems, the Allen Bradley 1747-M2 SLC 500 EEPROM Memory Module is an indispensable component. Its integration with Allen-Bradley’s comprehensive line of automation products ensures seamless compatibility and optimization of overall system performance.