10 Speed Medium Sram Red Aero Glide Rear Derailleur Short Cage

Description

Elevate your cycling performance with the SRAM Red Rear Derailleur – 10 Speed, Short Cage, Black/Silver. Crafted for serious cyclists and competitive racers, this top-tier derailleur combines advanced materials and innovative engineering to deliver unrivaled precision, durability, and lightweight performance on the road or mountain trails. Materials & Lightweight Design: Constructed with a combination of carbon fiber, titanium hardware, and high-grade aluminum, the SRAM Red Rear Derailleur offers an optimal balance of strength and weight savings. Its sleek carbon fiber cage reduces weight to just 145 grams, enhancing bike agility and responsiveness while maintaining exceptional durability. Advanced Technology & Performance: Featuring SRAM's Exact Actuation technology, this derailleur provides crisp, precise shifting across a 10-speed drivetrain. Ceramic bearing pulleys further minimize friction for smooth, effortless gear changes, ensuring optimal energy transfer and consistency during intense rides. Compatibility & Versatility: Designed for use with SRAM 10-speed drive systems, it is compatible with 10×1 standard rear hubs and supports a chain wrap capacity of 33 teeth, accommodating cassettes up to 28T for versatile riding styles. The short cage configuration is ideal for race bikes and lightweight setups, offering quick and accurate shifting performance. Style & Use Case: With its striking black and silver finish, the SRAM Red Rear Derailleur not only enhances your bike's aesthetics but also signifies high-performance engineering. Perfect for road racing, mountain biking, or gravel adventures, it provides reliable gear changes in demanding environments. Innovative & Differentiating Features: – Carbon fiber and titanium construction for maximum strength-to-weight ratio – Ceramic bearing pulleys for superior efficiency and reduced wear – Compatible with SRAM's 10-speed systems for seamless integration – Precise, quick shifting with SRAM's Exact Actuation t