Wilson Rush Pro 4.0 Clay Mens Tennis Shoe French Blue/White/Navy Blazer 42 2/3 Men´s Tennis Shoes

The Rush Pro 4.0 fuses explosive power with rock-solid stability in a sleek silhouette for the player who was born to dictate the point.

The Rush Pro 4.0 Clay upgrades dynamic court movement thanks to a pair of innovations in the midsole and outsole. An evolution of the Rush Pro 3.5 chassis construction, 4D Support Chassis 2.0 splits the chassis into two pieces for a dual purpose: one piece runs under the foot for enhanced support and forward propulsion, while the other runs laterally for additional stability and control. In the forefoot of the midsole, Energy Cell features a lightweight EVA foam designed to optimize the transfer of body weight through impact for more explosive propulsion. Layer in a sleek silhouette, and the result is a shoe that takes the popular Rush Pro franchise to all-new heights for both design and performance. 

4D Support Chassis 2.0

• Split chassis extends chassis under the foot to provide enhanced support and forward propulsion. Lateral piece runs from heel to toes for ultimate stability and control throughout dynamic movement.

Sensifeel 2.0

• Minimally layered upper with an engineered mesh provides enhanced breathability, feel, comfort, and a homogeneous fit.

Endofit

• Full inner sock construction administers enhanced comfort, stability and an intuitive fit.

Medial Rubber Drag Pad

• Rubber overlay in the medial area supplies additional durability and protection when dragging the foot.

OrthoLite EVA Molded

• High-density OrthoLite foam offers maximum cushioning and impressive longevity.

DF2

• Heel-toe drop (9 mm) provides best compromise between comfort and performance.

Duralast

• High-density, consummately durable rubber compound provides abrasion resistance and maximum traction on all surfaces.

R-DST+

• Midsole foam offers the best combination of cushioning and rebound for dynamic performance.

Energy Cell

• Lightweight EVA foam in forefoot of midsole lends softer feel for optimal transfer of body weight through impact, creating more explosive acceleration.