9in Pusher Fan Straight Blade 590 CFM

The 9in Pusher Fan Straight Blade 590 CFM is a compact electric cooling fan engineered for low-profile engine bay installations where airflow efficiency meets spatial constraints. Designed as a pusher-type unit, this fan pulls cool air through the radiator and pushes it toward the engine—a configuration ideal for custom builds, vehicle restorations, and applications requiring discrete thermal management without sacrificing performance. Whether you're upgrading an aging cooling system or integrating supplemental airflow into a tightly packed engine compartment, this straight-blade pusher delivers reliable 12-volt operation in a format that fits where larger, conventional fans cannot.

At 590 cubic feet per minute (CFM), the 9in Pusher Fan Straight Blade 590 CFM generates substantial airflow from a compact 9.75-inch square footprint and 2-inch thickness, achieved through straight-blade geometry that optimizes air movement while minimizing turbulence and noise. The plastic construction keeps weight minimal at 2.5 lbs, reducing strain on mounting brackets and electrical systems while offering corrosion resistance in damp or salt-exposed environments. The pusher design positions the motor and shroud behind the blades, enabling closer proximity to radiators and other heat exchangers without mechanical interference, making this fan a practical choice for retrofit applications where OEM clearances are tight.

Enthusiasts, hot rodders, and fleet maintenance professionals benefit most from this low-profile pusher fan when upgrading vintage vehicles, modifying engine compartments, or supplementing factory cooling on higher-output builds. The 12-volt specification ensures compatibility with standard automotive electrical systems, while the square mounting pattern accepts universal shroud brackets and relay harnesses readily available through performance suppliers. Installation requires basic mechanical knowledge and standard wiring practices; ensure adequate clearance behind the radiator and verify airflow direction before operation to maximize cooling efficiency and component longevity.