How to Design for Laser Plastic Welding
LIVE VIRTUAL EVENT – DEC 10 at 11 AM
Learn how to design your parts for laser plastic welding. This technology produces clean, precise welds in quick cycle times. Take full advantage of it by learning how to optimize the design of your plastic parts for laser welding. Registration is free.
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Learn about the latest in plastic welding, assembly, and additive manufacturing. You can register for upcoming webinars or download past events.
Laser plastic welding is a proven, powerful, and effective way to join plastics. It’s been used in industry for over 20 years and its ability to weld a wide variety of part sizes, with precision weld joints, minimal flash, and no particulate is.
Extol has launched a new Digital Development Center™ (DDC) to provide parts and engineering support to help customers develop high-value applications for additive manufacturing using HP Multi Jet Fusion technology.
Design engineers often ask us, “How strong will my staked joint be?” Usually, they’re designing a plastic assembly that needs to be staked, and they need to know how to design the part.
So, you’ve seen the new revolutionary nanoSTAKE technology and you are wondering how you can get it on your next plastic staking application. There are two great ways to do that. You can purchase a turnkey nanoSTAKE machine directly from Extol, or you can purchase nanoSTAKE through your preferred integrator. Either way, you get expert technology service from our knowledgeable team. Let’s talk more about what is included in a nanoSTAKE integration package and how they work.
If you do any hot-plate welding, you should start monitoring melt force to improve your weld consistency and quality. Extol’s Rapid Conductor hot-plate welder is equipped standard with three servo-driven platens: the upper and lower press platens, and the heated platen. Servo control eliminates the need for hard stops and ensures that all the pressure applied by the welder goes directly into the components being welded.
In the InfraStake process, infrared energy comes from a tungsten halogen lamp inside the module. Reflective surfaces inside the module focus the IR energy from the lamp onto a plastic boss to heat it prior to staking. So, the output of the lamp is an important factor in the InfraStake process.