17in High Output Electrc Fan Std Kit

The 17in High Output Electric Fan Standard Kit by DERALE is purpose-built for automotive enthusiasts and mechanics who demand reliable engine cooling without the mechanical complexity of belt-driven fans. This push/pull configuration electric cooling fan solves the fundamental problem of engine bay heat management in modified vehicles, street rods, and high-performance applications where traditional mechanical fans fall short. Whether upgrading a restoration project or optimizing a tuned engine, this 17-inch fan delivers the thermal control needed to maintain safe operating temperatures under sustained driving conditions.

The kit achieves 2400 CFM (cubic feet per minute) of air movement through its curved blade design and 12-volt electrical operation, making it compatible with standard automotive electrical systems without major rewiring. The 16.875-inch square mounting footprint and 2.625-inch depth integrate into most radiator bays with minimal fitment challenges, while the push/pull dual-function design maximizes cooling efficiency by pulling air through the radiator core from both sides. The plastic shroud reduces weight compared to metal alternatives and the complete installation kit includes all necessary brackets, wiring harnesses, and thermostat controls, eliminating the need for fabrication or auxiliary component sourcing.

Technicians and builders working on street machines, muscle car restorations, and engine-swapped vehicles benefit most from this electric cooling solution, particularly in applications where engine bay space is tight or where underhood temperatures exceed the cooling capacity of original equipment. The standard kit format means no custom fabrication—the shroud, motor assembly, and controls arrive ready to bolt to your radiator. At 8.67 lbs, the fan assembly remains lightweight enough to minimize accessory load on the engine, making it ideal for builds prioritizing both thermal management and drivability across a wide range of throttle positions and ambient conditions.