ASICS Court FF3 CLAY (Women's) > WHITE/WATERSHED ROSE

ASICS Court FF3 shoes are designed for a player who wants stability and durability for baseline grinding combined with speed and flexibility for all court coverage.

Colour: WHITE/WATERSHED ROSE

Gender: Women's

Playing style: All court player

Outsole: Clay

Pro players: Novak Djokovic

We've personally tried every ASICS shoe then compared them to tennis shoes from other brands and we really can recommend ASICS tennis shoes as the best there is.

ASICS are the only shoe company with their own sports science research facility (in Kobe, Japan) where they have 100 scientists working every day on improving the technology in their shoes.

For tennis they've really focussed on the style of the player as they realise that the way you move on the court effects the type of shoe you need.

These ASICS Court FF3 shoes are designed in close collaboration with Novak Djokovic. For the past 2 years he's been testing and giving feedback directly to the ASICS design team and now he's wearing them on court. 

A key element of the Court FF3, not found in any other tennis shoe, is the built-in sock that hugs your foot and ankle area creating a 'locked in' feeling of immense stability.

The shoe creates a stable landing and reduces the load placed on the body. As a result, you’re able to put more energy into generating a powerful swing

For a smoother crossover step, this shoe allows you to perform quicker turns in a shorter timeframe. With good outsole grip and support system, you can push off the ground with more force. This helps you quickly recover and get back to your ready position more smoothly.

ASICS Court FF3 Product Details

• Technology: FLYETFOAM > Improved cushioning and impact absorption

• Technology: TWISSTRUSS > Improves quickness and cutting motions

• Technology: MONOSOCK > Helps improve stability

• Technology: PGUARD > For durability in the outsole's toe and heel

• Outsole: AHAR > Improves durability

• Rearfoot and forefoot: GEL > Cushioning provides excellent shock absorption