CEP Max Cushion Socks, Hiking, Mid-Cut, Grey/Mint, Women's

CEP Max Cushion Socks Hiking Mid Cut

When the trail gets tougher, your feet need stability, protection and the right microclimate. CEP Max Cushion Socks Hiking Mid Cut combine maximum cushioning with targeted 3D Compression, so you can walk with confidence in rigid hiking boots and on uneven terrain.

Maximum cushioning where you need it

The “Max Cushion” padding across the instep acts as an intelligent shock-absorbing layer. It reduces pressure points from hard soles and works seamlessly with the foot, helping you maintain stable footing on rock, dirt and slopes.

Ankle & Achilles support for less discomfort

Protective zones around the ankle and Achilles tendon reduce friction from the boot collar. This helps limit the risk of irritation and provides comfort on long hikes.

3D Compression: stability and an “active” stride

CEP’s 3D Compression technology applies all-round, 360° compression with support zones. It supports blood circulation and reduces micro-vibrations, so your foot feels more secure and movement more stable over long elevation changes.

Cool, dry and breathable feet in the mountains

Airflow channels within the foot cushioning and a mesh insert at the calf improve ventilation. Moisture is wicked away more quickly, helping keep your feet comfortable on warm or demanding routes.

Technical features

• Max Cushion padding across the instep to reduce pressure from rigid boots
• Reinforced ankle & Achilles zones for comfort and less friction
• Airflow channels in the foot + mesh at the calf for improved heat/moisture management
• 360° 3D Compression with support zones for stability and circulation support
• Mid Cut height that pairs ideally with most hiking boots

Materials & care

• Composition: 59% Polyamide, 34% Wool (Merino), 7% Spandex
• Wash at 30°C
• Do not bleach • Do not tumble dry • Do not iron • Do not dry clean

Ideal for

• hiking/trekking with more rigid boots
• long routes on uneven terrain and slopes
• those seeking substantial cushioning and stability