Lyndall Brakes 4107-2133 9 Spoke Rear Rotor - Black/Black Bow Tie Finish, 11.5-inch, 6mm Thickness

Designed for high-performance powersports applications, the Lyndall Brakes 4107-2133 9 Spoke Rear Rotor is crafted from premium high-carbon steel and CNC-machined to precise tolerances in the USA. This full-floating rotor features a durable outer friction ring that ensures consistent braking performance and longevity under extreme riding conditions. The rotor's intricate design includes a sleek black finish on both the outer friction surface and the inner carrier center, providing an aesthetic appeal that complements aggressive styling. The helical retaining ring securely fastens the friction ring to the carrier center, preventing unwanted noise or movement during operation, which enhances rider confidence and safety. Built with meticulous attention to detail, this rotor is engineered to withstand demanding environments and deliver reliable stopping power over the lifespan of your bike. When used exclusively with Lyndall's premium organic brake pads, the rotor is backed by a lifetime guarantee, underscoring Lyndall's confidence in its durability and performance. Whether you're tackling rugged trails or high-speed pursuits, this rotor provides the optimal balance of strength, precision, and style for your motorcycle. Installation is straightforward, and the rotor's high-quality construction ensures it maintains optimal performance even after extensive use, making it an ideal upgrade for serious riders seeking enhanced braking reliability and a sleek aesthetic. Trust Lyndall Brakes for innovative, durable, and high-performance motorcycle components that meet the demands of extreme riding environments.

Features:

• Outer friction ring (wear surface) made from high-carbon steel for durability and consistent braking performance

• Inner carrier center with a sleek black finish for aesthetic appeal and corrosion resistance

• Helical retaining ring securely fastens the friction ring to the carrier center, preventing noise and looseness during operation