The New Balance 9060 Gets a Fresh "Dark Olivine" Makeover for Sage Season
Embracing the defining color trend of the decade, the Y2K-inspired silhouette returns with a soft, summer-ready green palette.
Name: New Balance 9060 “Dark Olivine”
Colorway: Olivine/Dark Olivine/White
SKU: U90604A9
MSRP: $150 USD
Release Date: Summer 2026
Where to Buy: New Balance
New Balance is continuing to dominate the lifestyle sneaker market by leaning into one of the decade’s biggest color trends. The Boston-based brand is gearing up to release the highly popular New Balance 9060 in a fresh “Dark Olivine” colorway. Arriving just in time for the warmer months, the Y2K-inspired silhouette perfectly balances its chunky, aggressive architecture with a soft, versatile palette that sneaker enthusiasts will undoubtedly be chasing this summer.
As sage green continues to cement itself as a staple hue in modern streetwear, the “Dark Olivine” 9060 masterfully executes the earthy aesthetic. The sneaker’s upper is defined by premium, textured suede overlays dipped in the namesake dark green shade. These rich panels are layered securely over a lighter, breathable mesh base, creating a subtle, natural contrast that highlights the complex, futuristic paneling of the shoe without feeling overly loud or complicated.
Despite the soft, tonal upper, the 9060’s signature DNA remains completely intact. The model’s unapologetically chunky, segmented sole unit provides the industrial, sci-fi-esque foundation that made the shoe a global fan favorite. Beneath the earthy green upper, the exaggerated, sculpted pod midsole—equipped with both proven ABZORB and SBS technology—ensures top-tier comfort and shock absorption for all-day wear. Additional classic details, like the original 991-inspired tongue logo and the translucent CR heel device, round out the intricate, retro-futuristic design.
Whether you are an avid collector of the 9060 series or just looking for the perfect, trend-forward everyday sneaker for the season, this earthy iteration is a must-have addition to the rotation.























