Callaway Elyte Fairway Woods 2025 - RIGHT - DENALI CHAR 70X - #9/24 - Golf Clubs

The Callaway Elyte Fairway Woods feature a new Tungsten Speed Wave. Consisting of a thirty-five-gram weight positioned low and forward in the head, this innovative design delivers explosive ball speeds and enhances low-face strikes, the most common miss with a fairway wood. To ensure clean contact from the turf, an integral component of successful fairway wood play, Callaway engineered a new Step Sole. The sole, developed based on the successful Apex UW, moves smoothly across the surface, minimizing skidding to promote solid strikes and consistent results. Callaway's industry-leading artificial intelligence once again takes another step forward in Elyte. Like Ai Smoke, real player data and cutting-edge machine learning are utilized to develop an exceptionally fast, forgiving, accuracy-boosting face. However, the new Ai10x Face delivers ten times more control points than the Ai Smart Face, making it Callaway's most advanced to date. With thousands more smart points on Elyte, Callaway's latest fairways produce a vastly tighter downrange dispersion, markedly increased ball speeds, and optimized launch conditions across the face. Thanks to its progressive shaping, an outstanding blend of distance and forgiveness, and a broad selection of lofts, the standard Elyte model suits the widest range of players. Adjustable hosels in the 3 and 3HL offerings allow golfers to fine-tune trajectory and dial in the ideal ball flight. Callaway Elyte Fairway Woods Feature: Designed to blend speed and forgiveness with a consistent launch and a neutral ball flight New Tungsten Speed Wave (3-7 wood) is a 35g weight that positions mass low and forward to promote fast ball speeds; also enhances misses low on the face New Step Sole engineered to improve turf interaction via minimized skidding, ensuring smoother, more solid strikes and consistent results Ai10x Face with C300 Face cup delivers 10x more control points to produce exceptionally fast ball speeds, tight dispersions, and optimized la