Women's Merino Max
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Women’s Merino Max Base Layers
Introducing the Women’s Merino Max base layer thermal from Wilderness Wear, the ultimate solution for extreme cold conditions. As the heaviest of our Merino Wool weights, this premium technical garment is expertly crafted to provide maximum protection, comfort, and performance in moderate to extreme cold environments.
Made from 100% pure Australian Merino wool with a fine 19.5-micron thickness and a substantial 300gsm single jersey construction, Merino Max delivers exceptional insulation, durability, and long-lasting wear. Its fitted, yet flexible design ensures freedom of movement while retaining warmth, making it ideal for outdoor adventures, extreme weather activities, and cold climate expeditions.
Experience the superior warmth, softness, and technical excellence of Wilderness Wear’s Merino Max base layers—engineered to perform and protect in the harshest conditions while maintaining comfort throughout your activities.
Frequently Asked Questions
Q1: What temperatures are Merino Max base layers suitable for?
Merino Max is ideal for extreme cold conditions, offering maximum warmth and insulation for outdoor adventures in sub-zero or harsh environments.
Q2: What makes Merino Max different from other Merino layers?
With 19.5-micron superfine wool and a 300gsm jersey construction, Merino Max delivers unparalleled warmth, durability, and performance compared to lighter Merino base layers.
Q3: Can I layer Merino Max with other garments?
Yes. Although Merino Max is thick and warm on its own, it can also be layered under outer jackets for extreme cold weather activities.
Q4: Is Merino Max breathable?
Yes. Despite its heavyweight construction, Merino Max naturally wicks moisture and regulates temperature, keeping you dry and comfortable during high-intensity outdoor activity.
Q5: How should I care for Merino Max base layers?
Machine wash on a gentle cold cycle using mild detergent. Avoid bleach and fabric softeners. Lay flat to dry to preserve softness, elasticity, and thermal performance.






