Fuel 1PC FC874 Celsius 17x9 Inch Matte Gunmetal with Matte Black Lip Wheel

Upgrade your vehicle's appearance and performance with the Fuel 1PC FC874 Celsius 17x9 inch wheel, designed for enthusiasts who demand both style and durability. Crafted with a sleek matte gunmetal finish accented by a matte black lip, this wheel adds a bold, modern touch to any truck or SUV. Its 9-inch width and 17-inch diameter provide a perfect balance of strength and style, making it an ideal choice for off-road adventures or street performance. The wheel features a 6x135 bolt pattern with an offset of 1.0 inches and a center bore of 87.10 mm, ensuring a precise fit on compatible vehicles.
Constructed with high-quality materials, the FC874 Celsius wheel offers excellent resistance to corrosion and wear, maintaining its aesthetic appeal over time. The one-piece design enhances overall strength and stability, providing confidence during high-performance driving or rugged terrain. Whether you're customizing your ride or replacing worn-out wheels, this model from Fuel 1PC delivers reliable performance and a distinctive look that turns heads.
Designed for easy installation and long-lasting durability, the Fuel FC874 Celsius wheel is an excellent investment for anyone looking to elevate their vehicle’s style while ensuring optimal performance. Perfect for those who value a combination of aggressive styling, robust construction, and precision fit, this wheel will serve as a standout addition to your vehicle's setup.

Features:

• Model: FC874 Celsius with a matte gunmetal finish and matte black lip for a modern, aggressive look

• Size: 17 inches in diameter with a 9-inch width for optimal performance and style

• Bolt Pattern: 6x135 for wide compatibility with various trucks and SUVs

• Offset: 1.0 inches to enhance stance and handling

• Center Bore: 87.10 mm for a precise fit on compatible vehicles

• Finish: Durable matte gunmetal with matte black lip for corrosion resistance and aesthetic appeal

• Construction: One-piece design for strength and stability in demanding conditions