GE Fanuc IS210AEAAH1BKE | Mark VI Circuit Board

Description

Type:Control Module

Model:IS210AEAAH1BKE

Manufacturer:GE Fanuc

Series:Mark VI

Application:Industrial Automation

Dimensions:W: 26cm x D: 15.2cm x H: 3cm

Weight:0.52kg

Technology:PLC (Programmable Logic Controller)

Input/Output Channels:Customizable

Operating Temperature:-40°C to 70°C

Certifications:CE, UL, CSA

Memory:1MB RAM, 1MB Flash

    Integrating state-of-the-art technology, the GE Fanuc IS210AEAAH1BKE Mark VI Circuit Board is engineered to meet the demanding requirements of today’s industrial environments. This robust circuit board is meticulously designed to enhance system performance, ensuring reliable operation even under harsh conditions.

    Featuring an innovative design, the IS210AEAAH1BKE supports seamless integration with various control systems, enabling efficient data processing and communication across your facility. Its compact size and lightweight construction make it highly adaptable to different installation scenarios without compromising functionality.

    With its wide operating temperature range from -40°C to +70°C, this circuit board is built to withstand extreme environmental challenges, making it suitable for a broad spectrum of industrial applications worldwide. Its high electrical rating of up to 10 A ensures it can handle significant loads without overheating or failure.

    Equipped with advanced communication protocols such as Ethernet and Modbus TCP/IP, the IS210AEAAH1BKE facilitates smooth connectivity with other industrial devices, enhancing system interoperability and enabling remote monitoring and control. This feature is particularly valuable for optimizing maintenance schedules and improving operational efficiency.

    The use of high-quality materials in its construction guarantees long-lasting durability and minimal maintenance requirements, reducing downtime and lowering overall costs associated with upkeep. Furthermore, its compatibility with leading industry standards ensures seamless integration into existing systems, minimizing disruption during upgrades.