Built to support quick pivots and controlled stops

The New Balance WS327KC Women?M?? Trainers are a stylish and versatile addition to any wardrobe, designed to deliver both comfort and fashion-forward looks. These trainers combine premium materials with a retro-inspired design, making them ideal for casual wear and athleisure outfits. With their sleek profile and striking aesthetics, they provide a fresh take on traditional running shoe silhouettes.

Crafted from a combination of suede and mesh, the upper not only offers an attractive mix of textures but also ensures durability and breathability. The suede adds a touch of sophistication, while the mesh delivers ventilation, keeping your feet cool throughout the day. The outer material comes in a chic black and white colourway, accented by a bold oversized "N" logo on the side, which instantly identifies the trainers as a hallmark of New Balance craftsmanship.

The sole of these trainers features a rugged, gum-coloured outsole with a studded tread design, providing excellent grip and stability on various surfaces. This distinctive sole also contributes to the retro charm of the trainers, echoing styles from the 1970s while offering modern performance benefits. The midsole is lightweight and cushioned, delivering exceptional comfort for all-day wear.

Additional details include a padded tongue and collar for enhanced ankle support and a secure, snug fit. The laces offer a classic fastening system, ensuring adjustability and ease of wear. Inside, the trainers feature a soft inner lining and a cushioned insole, taking comfort to the next level and making them suitable for extended periods of use.

Overall, the New Balance WS327KC Trainers are a perfect blend of vintage-inspired design and modern functionality. Whether you?M??e running errands, meeting friends, or simply wanting an effortlessly cool look, these trainers are a reliable and stylish choice. Designed specifically for women, they offer the ideal balance of form and function for everyday wear.

asymmetric arch contour supports individualized biomechanics