Low Surface Energy VHB - 3M LSE White 1.6mm Thick

Product Description

• Fast and easy-to-use permanent bonding method provides high strength and long-term durability indoors and outdoors
• High initial tack at low temperatures on frost free surfaces down to 0°C
• The temperature resistance of +100 ºC in long term and +150 ºC in short term bonding results in an excellent durability both, indoors and outdoors across a wide range of applications and industries
• Pressure sensitive adhesive bonds on contact to provide immediate handling strength
• White, modified acrylic adhesive and conformable acrylic foam core for LSE bonding without primer
• Can replace mechanical fasteners (rivets, welding, screws) or liquid adhesives: Eliminate drilling, grinding, refinishing, screwing, welding and clean-up
• High dynamic stress absorption reduces vibration and impact stress
• Creates a permanent seal against water, moisture and more
• LSE060WF = 0.6mm thick
• LSE110WF = 1.1mm thick
• LSE160WF = 1.6mm thick

Dream, Design, Deliver with 3M™ VHB™ Tape LSE-060WF / LSE-110WF / LSE-160WF. It is a white, 0.6mm/1.mm/1.6mm thick, modified acrylic adhesive on both sides of a conformable foam core. It can replace rivets, welds and screws as well as other forms of mechanical fasteners. The 3M™ VHB™ Tape LSE Series masters the challenge of low surface energy (LSE) bonding and delivers durable results where other bonding solutions need additional support on special surface treatment. It offers a superior bonding performance without primer on difficult to bond substrates such as PP, TPO, TPE, and composite materials. By eliminating the need for priming in your production, the LSE Series increases productivity and reduces the use of harmful chemicals in your facilities. Excellent durability including its wide temperature resistance ensure ultimate performance strength and reliability for in- and outdoor applications. The fast and easy to use permanent bonding method provides high strength and offers design flexibility with its viscoelasticity, making it an ideal fit for multi material bonding due to his properties on thermal expansion.