GE-FANUC IS200TBCIH1B Contact Terminal Board

Model:IS200TCI-H1B

Brand:GE Fanuc

Type:Contact Terminal Board

Series:Mark VI

Dimension:33 cm x 10.2 cm x 4.8 cm

Weight:0.54 kg

Material:High-grade aluminum alloy

Operating Temperature Range:-20°C to +70°C

Connection Compatibility:Wide range of industrial connectors

Current Rating:Up to 10 A per channel

Voltage Rating:Up to 250V AC/DC

Reliability Rating:Over 1 million cycles

Certifications:[“CE”,”UL”,”ISO 9001″]

    The GE Fanuc IS200tbcih1B Contact Terminal Board is meticulously designed for applications requiring high-precision signal processing and control within industrial automation environments. It is constructed from high-grade, corrosion-resistant steel, ensuring durability and longevity even under the most challenging operational conditions.

    This board offers an efficient and reliable connection through its solderable terminals, simplifying installation and maintenance processes. Its compact size and lightweight design make it ideal for space-constrained environments without compromising on functionality.

    With an operating temperature range of -40°C to +85°C, this terminal board is suitable for use in a wide variety of industrial settings, from cold storage facilities to hot manufacturing plants. Its compatibility with the GE Fanuc Mark VI system ensures seamless integration, enhancing the overall system performance and efficiency.

    For optimal performance, the IS200tbcih1B is recommended for use with advanced diagnostic tools, allowing for real-time monitoring and troubleshooting of potential issues. This proactive approach minimizes downtime and maximizes system uptime, contributing to increased productivity and cost-effectiveness.

    Designed with safety and ease of use in mind, the GE Fanuc IS200tbcih1B Contact Terminal Board is backed by comprehensive documentation and support services. Whether you’re upgrading existing systems or integrating new components, our team is here to assist with every step of the process, ensuring a smooth transition and optimal system performance.