Skechers D'Lux Walker 2.0 - Radiant Rose Women's Walking Shoes

Enjoy long walks with supportive comfort thanks to the D'Lux Walker 2.0 - Radiant Rose. Using a sporty stretch-laced style and a flat mesh upper with synthetic overlays, the shoes are a great addition to your next adventure.

Flat Mesh Upper

Providing you with comfort and excellent levels of breathability, the D'Lux Walker 2.0s utilise a flat mesh upper. The mesh allows air to flow freely through the construction of the shoes to ensure that feet don't overheat and you remain focused on the journey ahead. The seamless construction helps to prevent abrasion or irritation occurring when wearing the shoes, for distraction-free adventures. Additionally, the shoes have synthetic overlays which help to keep feet and the shoes protected in high-wearing areas, therefore providing you with a long-lasting pair of shoes, you can rely on. The Relaxed Fit of the shoes provides you with a roomy, comfortable fit at the toe and forefoot. Finally, stretch laces provide you with an easy on-and-off construction and a secure locked-in fit.

Cushioned Midsole

Providing you with excellent underfoot softness, to keep feet comfortable on long adventures, the shoes have a well-cushioned midsole. The midsole is both lightweight and flexible, allowing movement to be comfortable and flexible. Additionally, an Air-Cooled Memory Foam insole resides through the midsole and provides high rebound cushioning and enhanced breathability. The insole ensures added underfoot cushioning and works to increase breathability so your feet will always remain comfortable and cool.

Flexible Traction Outsole

Using a flexible traction rubber, the D'Lux Walker 2.0s outsole is extremely flexible, meaning there will be no lasting damage from excessive forces acting against it. The rubber is durable, which means that it will retain its shape and definition on rough terrain. The outsole supplies traction control which protects you whilst on the move, therefore allowing you to traverse across a variety of surfaces.