POW WAYBACK GTX MITT- Snowboard Gloves - Unisex - Black

POW Wayback GTX Mitt – GORE-TEX® Warmth and Versatile Touchscreen Liner Performance

For riders who want maximum warmth and total versatility, the POW Wayback GTX Mitt delivers the best of both worlds: GORE-TEX® weather protection, Primaloft® insulation, and a removable touchscreen liner that keeps you connected — even when the temperature drops. From freezing storm days to spring park laps, this mitt adapts to every condition the mountain throws at you.

The durable nylon and 50% recycled soft poly twill shell provides a premium balance of rugged protection and supple flexibility, built to handle daily resort riding and multi-week snow trips. Inside, a touchscreen-compatible inner glove liner lets you use your phone, camera, or smartwatch without exposing your hands to the cold — perfect for checking snow reports or snapping mountain selfies mid-session.

A GORE-TEX® waterproof and breathable membrane seals out snow and slush while releasing internal moisture to keep your hands dry all day. Combined with Primaloft® Gold insulation and a soft microfleece lining, the Wayback GTX Mitt keeps your fingers warm, comfortable, and ready for whatever the mountain has in store.

Whether you’re chasing powder or relaxing on the chairlift, the Wayback GTX Mitt offers premium warmth, flexibility, and touchscreen convenience — all backed by POW’s legendary commitment to quality and durability.

Key Features:

• GORE-TEX® waterproof and breathable insert for ultimate weatherproof protection

• Removable touchscreen-compatible liner glove for phone use and layering versatility

• Primaloft® Gold insulation for efficient warmth without bulk

• Durable nylon and 50% recycled soft poly twill shell for lasting performance

• Soft microfleece lining for next-to-skin comfort and moisture control

• Pre-curved ergonomic fit for natural movement and grip

• Adjustable wrist closure and under-cuff design for a secure, snow-tight fit

• 2-in-1 modular design for all-season use and temperature adaptability