Konig MK98512366 Flow Formed Wheel Hyper Carbon - MRK1 18x9 5x112

The Konig MRK1 is a mesh-styled flow formed wheel available in 17, 18, and 19-inch sizes, finished in Hyper Carbon—a wet look dark grey finish with exceptional depth. Drawing inspiration from mesh-style wheels found on some of the fastest and most iconic race vehicles in history, the MRK1 brings motorsport heritage to modern performance vehicles.

Flow Formed Construction:

Flow forming technology applies pressure to the inner barrel while spinning after casting, compressing aluminum molecules to create a lighter and stronger wheel with greater shock resistance. This advanced manufacturing process delivers performance characteristics similar to forged wheels at a more accessible price point.

Key Specifications:

• Size: 18x9 with 5x112 bolt pattern and 36mm offset
• Center bore: 66.56mm
• Approximate weight: 23.28 lbs per wheel
• Load rating: 1609 lbs
• Backspacing: 6.41 inches
• Knurled bead seats for secure tire mounting

Unique Center Cap Design:

The lug area is covered by a color-matched cover plate held securely with an all-aluminum threaded gear cap finished with a flat pop-in Konig logo. Each set includes a gear cap wrench for easy loosening and fastening, plus a pull tool for aluminum cover plate removal. This design hides the lug area for an uncluttered, clean appearance.

What's Included:

• MRK1 wheel in Hyper Carbon finish
• Color-matched cover plate
• Aluminum threaded gear cap with Konig logo
• Gear cap wrench
• Pull tool for cover plate

Optional Customization:

The aluminum center cap can be used with Konig's Arocover, an optional accessory produced in lightweight ABS with airflow veins, rubber spacers, and strategic tabs that prevent spinning at high speeds. An anodized red gear center cap is also available separately for additional personalization.

Konig Wheels is one of the most recognizable aftermarket wheel brands worldwide, setting high standards for over 40 years. Every MRK1 wheel design undergoes Finite Element Analysis (FEA) and advanced engineering simulations through countless variations of impact, bending, and stress testing to optimize weight, strength, and rigidity before physical testing begins.