Mer-Thane 300 Series
High-performance elastomeric urethane systems designed to provide superior protection and aesthetic appeal for heavy usage areas exposed to high volume pedestrian traffic and heavy vehicular traffic loads.
These systems are specifically engineered to protect substrates exposed to moisture penetration due to freeze/thaw conditions thermal cycling, high temperatures and elevated humidity levels.
Mer-Thane systems are engineered to maintain superior adhesion, flexibility, weatherability, impact and abrasion resistance under tough environmental conditions and heavy use.
Mer-Thane 300
High Volume Pedestrian Traffic Surface
A decorative, durable, liquid-applied elastomeric urethane waterproofing decking system designed for surfaces subject to high volume pedestrian traffic. This seamless system is designed to protect plywood and concrete surfaces from moisture penetration in freeze-thaw cycling, thermal cycling, or high temperature, high humidity conditions.
Mer-Thane 300 exhibits exceptional abrasion and impact resistance, adhesion, flexibility and weatherability.
Mer-Thane 310
High Volume Vehicular Traffic Surface
A durable, aesthetic, liquid-applied elastomeric urethane waterproofing decking system designed for surfaces subject to high volume vehicular traffic. This seamless system is designed to protect plywood and concrete surfaces from moisture penetration in freeze-thaw cycling, thermal cycling, or high temperature, high humidity conditions.
Mer-Thane 300 exhibits exceptional abrasion and impact resistance, adhesion, flexibility and weatherability.
Mer-Thane 320
Below-grade Elastomeric Membrane System
A monolithic, liquid-applied, single component elastomeric waterproofing membrane designed for split slab construction, exterior foundation walls, planter boxes and base slab waterproofing applications. Mer-Thane 320 is designed to form an adhesive bond to the concrete substrate to provent lateral water migration between the membrane and the base slab or vertical wall while allowing for substrate movement without membrane rupture.
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