Eaton LGS3500FAG - 600 V, 3-Pole Circuit Breaker | AmpState

The Eaton LGS3500FAG is a 600 V, 3-pole molded case circuit breaker engineered to provide dependable branch circuit overcurrent and short-circuit protection in panelboards and load centers. With a compact molded case design, it helps maximize panel space while delivering consistent protection for your electrical distribution system.

Why this breaker stands out

• Space‑efficient design: The compact molded case footprint makes it ideal for tight panel layouts, helping you fit more circuits without sacrificing protection.
• Thermal‑magnetic trip unit: This setup delivers stable, repeatable protection performance against overloads and short circuits, reducing nuisance trips and ensuring reliable operation when demand spikes occur.
• OEM compatibility: Designed to pair with matching OEM load centers and panelboards, simplifying replacement or upgrades without compatibility concerns.
• Versatile applications: Suitable for residential, commercial, and light industrial environments, making it a practical choice across a range of projects.

Technical snapshot

• Manufacturer: Eaton
• Part Number: LGS3500FAG
• Type: Thermal-magnetic molded case circuit breaker
• Voltage Rating: 600 V
• Poles: 3
• Application: Branch circuit overcurrent and short-circuit protection

Ideal use cases

Install the LGS3500FAG in panelboards and load centers where a reliable, 3‑pole solution is needed to guard 3‑phase distribution or multi‑wire circuits. It’s an excellent choice for new commercial builds, panel upgrades, or standard residential/industrial panels that demand robust protection with efficient space use.

Practical considerations

• Confirm compatibility with your OEM panelboard or load center to ensure seamless replacement or upgrade.
• Use in circuits where three-phase protection is required or desired for balanced distribution across phases.
• Leverage the thermal‑magnetic trip to provide both time‑delay and instantaneous protection, helping to prevent equipment damage during surge events while avoiding unnecessary trips during normal startup currents.