Eaton HFD3015LA02 - 15 A, 600 V, 3-Pole Bolt-On Circuit Breaker | AmpState

Meet the Eaton HFD3015LA02 — a 15 A, 600 V, 3-pole bolt-on molded case circuit breaker designed to shield your panelboards and load centers from overcurrent and short-circuit events. Built for dependable branch circuit protection, this breaker delivers consistent performance in residential, commercial, and light industrial settings.

Key advantages you’ll notice in real-world use

• Secure bolt-on mounting — a rigid, vibration-resistant bus connection that stays tight, reducing the risk of loose contacts and arcing in panels subject to movement or vibration.
• Thermal-magnetic trip unit — delivers stable, repeatable protection across temperature swings, with instantaneous response to short circuits and appropriate inverse-time protection for overloads.
• OEM compatibility — engineered to integrate with matching OEM load centers and panelboards, facilitating straightforward replacement and consistent electrical characteristics.
• 3-pole, 600 V design — ideal for three-phase distribution and higher-voltage applications while providing reliable branch-circuit protection at 15 A.
• Versatile for multiple environments — suitable for homes, small businesses, and light industrial applications where robust, long-lasting protection is essential.

Technical snapshot

• Manufacturer: Eaton
• Part Number: HFD3015LA02
• Type: Thermal-magnetic molded case circuit breaker
• Amperage Rating: 15 A
• Voltage Rating: 600 V
• Number of Poles: 3
• Mounting Style: Bolt-on
• Application: Branch circuit overcurrent and short-circuit protection

Choosing the Eaton HFD3015LA02 means opting for a dependable, purpose-built solution that tackles common panel challenges head-on: secure mounting to minimize bus-bar movement, a reliable thermal-magnetic trip for predictable protection, and seamless compatibility with existing OEM panelboards. It’s the practical, no-nonsense choice for protecting circuits in environments where reliability matters from the first amp to the last fault current.