Wheel 13x8 3in 4.50in BC Black w/Bead Humps

The Wheel 13x8 3in 4.50in BC Black w/Bead Humps from AERO RACE WHEELS is a purpose-built steel wheel assembly engineered for high-performance off-road and tactical vehicle platforms that demand durability under extreme operating conditions. Designed for serious operators—law enforcement, military personnel, and off-road enthusiasts—this wheel combines lightweight construction with reinforced structural integrity to handle rough terrain, heavy payloads, and prolonged field deployment. The 13-inch diameter and 8-inch width provide optimal tire clearance and stability on uneven ground, making this wheel ideal for light truck and utility vehicle builds where reliability cannot be compromised.

This wheel features a 3-inch backspace and 4.50-inch bolt circle diameter, precision-engineered for proper suspension geometry and brake clearance on 4x4.50-inch bolt-pattern vehicles. The steel construction with black powder-coat finish delivers superior corrosion resistance and a tactical aesthetic suitable for military and law enforcement fleet applications. Bead humps integral to the wheel design lock the tire bead securely in place, preventing tire slippage during aggressive maneuvers, water crossings, or high-stress tactical operations—a critical feature when vehicle control is non-negotiable. At 19.5 pounds per unit, the wheel maintains a manageable unsprung weight while delivering the impact resistance required for rugged field conditions.

This wheel is best suited for operators outfitting compact pickup trucks, utility vehicles, and purpose-built tactical platforms that require enhanced ground clearance and all-terrain capability. Installation is straightforward on any vehicle with a 4x4.50-inch bolt pattern and appropriate suspension geometry; verify backspace compatibility with your vehicle's suspension and brake assembly before purchase. The AERO RACE WHEELS 36-Series platform has earned trust across competitive off-road racing and military logistics circles for its consistent performance under demanding load cycles and extreme environmental exposure.