GE THQC32100 - 100A, 240VAC, 3-Pole, Circuit Breaker

GE THQC32100 delivers precise overcurrent protection for 3-phase power systems with a 100A rating at 240V. This 3-pole circuit breaker is engineered for reliable performance in panelboards, switchboards, and control panels, making it a practical choice for commercial, industrial, and OEM applications where safe, coordinated protection matters.

What sets the GE THQC32100 apart

• Three-pole design for 3‑phase systems — provides synchronized interruption across all phases, safeguarding equipment and preventing phase imbalance faults in motor control centers and distribution panels.
• 100A, 240VAC rating — by matching typical 3‑phase load profiles, it efficiently protects feeders and motors without unnecessary nuisance tripping.
• Versatile installation — suitable for panelboards, switchboards, and control panels, simplifying upgrades, retrofits, and new builds in demanding environments.
• Industrial and OEM ready — designed to meet the needs of heavy-use applications where dependable protection and safe operation are critical.

Key specifications

• Current rating: 100 A
• Voltage rating: 240 VAC
• Poles: 3-Pole
• Breaker type: Circuit Breaker

Ideal use cases

• Motor control centers and equipment rooms in factories and warehouses
• Distribution panels feeding 3‑phase equipment and machinery
• Commercial electrical rooms requiring robust protection for multiple feeders
• OEM panel builds where a reliable, easy-to-source 3‑pole protective device is needed

Practical integration tips

When incorporating the GE THQC32100 into your electrical system, verify that your panel rating supports 3‑phase 240V and that installation follows standard safety practices and local codes. Use appropriate tools to secure mounting and ensure proper torque on connections. For OEM and retrofit projects, align the breaker with your existing wire sizes and conductor ratings to maintain consistent protection across the distribution network. In systems with motor loads, the 3‑pole design helps ensure simultaneous disconnection across all phases during a fault, reducing the risk of residual voltage and equipment damage.