Lyndall Brakes 2103-1103 High Carbon Steel Phoenix Front Rotor – 11.8 Inch Black Floating Disc

The Lyndall Brakes 2103-1103 High Carbon Steel Phoenix Front Rotor offers exceptional performance with American craftsmanship. CNC-machined from high carbon steel in California, this rotor is engineered to withstand extreme temperatures and demanding braking conditions, making it ideal for high-performance applications. Its three-piece floating design combines the robust appearance of a one-piece rotor with the functional benefits of superior cooling and reduced warping, providing a balance of durability and performance. The outer friction ring is attached to the carrier via a secure attachment ring, ensuring a flush, sleek appearance that complements your vehicle's aesthetic.
Designed for longevity, this rotor is compatible with Lyndall Z Plus brake pads to maintain its finish when opting for the black coating. The rotor features a 3.25-inch bolt hole circle diameter and a 2.215-inch center hole diameter, ensuring proper fitment with compatible vehicles. For optimal performance and rotor preservation, it is essential to profile your Lyndall pads, especially when using specific models like 7058, 7059, 7195, or 7257, which are designed to work seamlessly with this rotor.
Built to meet the demands of high-performance braking, the Lyndall Phoenix rotor provides excellent heat dissipation and consistent stopping power. Its design and material composition make it a reliable choice for enthusiasts seeking a durable, high-quality rotor that delivers both aesthetic appeal and functional excellence on the road or track.

Features:

• Constructed from high carbon steel for durability and heat resistance

• CNC-machined in California for precise manufacturing

• Three-piece floating rotor design for enhanced cooling and performance

• Outer friction ring attached securely to the carrier for a flush appearance

• Compatible with Lyndall Z Plus brake pads to maintain black finish

• Requires profiling of specific Lyndall brake pads for optimal fit and function