UBITB-A215 - 30Amp Circuit Breaker

UBITB-A215 - 30Amp Circuit Breaker

Introducing the UBITB-A215 Circuit Breaker, an essential component designed for superior electrical protection and performance. Manufactured by Connecticut Electric, this 30Amp, two-pole circuit breaker is engineered to safeguard your electrical system, ensuring safety and reliability in both residential and commercial applications. The UBITB-A215 is compatible with Challenger and T&B load centers, offering a perfect fit for your existing infrastructure.

Key Features and Benefits:

• High Performance: With a 30Amp capacity and two-pole configuration, the UBITB-A215 efficiently handles substantial electrical loads, making it ideal for demanding applications.
• Compatibility: Designed for use in Challenger and T&B load centers, this circuit breaker seamlessly integrates into your existing electrical setup, ensuring hassle-free installation.
• Safety Assurance: ETL listed with a 10,000 AIC rating, the UBITB-A215 offers robust protection against electrical faults, minimizing the risk of electrical fires and equipment damage.
• Compact Design: Its 1" thick profile allows single pole units to be placed on the outsides, efficiently filling a 2" space and optimizing your panel space.

Technical Specifications:

• Amperage: 30Amp
• Poles: 2
• Compatibility: Challenger and T&B load centers
• Dimensions: 1" thick
• Certification: ETL Listed
• AIC Rating: 10,000

Material Compliance and Certifications:

• Compliance: The UBITB-A215 circuit breaker meets stringent safety standards and is ETL listed, guaranteeing compliance with industry regulations. This certification underscores the product's reliability and safety, providing peace of mind for users.

Suitability:

• Ideal for residential, commercial, and light industrial applications, the UBITB-A215 ensures consistent and reliable performance. Whether you are upgrading an existing electrical system or maintaining a new installation, this circuit breaker provides the protection and compatibility needed for optimal functionality.