Category Archives: Automotive
This Tuesday, December 11 at 2pm EST we’ll be partnering with Plasmatreat, a developer of surface treatment systems, to present a webinar hosted by Plastics Technology magazine. Dr. Giles Dillingham, BTG Labs’ CEO and Chief Scientist, and Khoren Sahagian, Chief Process Engineer and Applications Manager to Plasmatreat USA, will discuss the relationship between polymer chemistry and the development of optimal plasma treatment recipes. Plasma treatment is the cutting-edge surface processing technique of polymers for critical adhesion applications. It is increasingly crucial to know how to control this process, know how the chemistry of your surface will affect the treatment and know your target number before and after treatment. Click on the title below to register:
Here’s what you can expect to learn:
1. Basic understanding of parameters that affect plasma treatment of polymers
2. Knowledge of the effects of plasma treatment on polymer surface
3. Basic skills in developing and evaluating plasma treatment processes
4. Tools for controlling plasma treatment processes, in the lab and manufacturing
If you have any questions about surface treatment and unforeseen contaminants that may be interfering with your adhesion process, bring them to the webinar for the Q&A at the end. You can also contact us using the form below and ask about scheduling your free process walk to discover your Critical Control Points and gain total surface quality control.
What is a Critical Control Point?
A Critical Control Point (CCP) is any point in the manufacturing process where the surface condition of a material has the opportunity to change—intentionally or unintentionally—and impact adhesion, in a positive or negative way.
Why should you care about them?
The wait is finally over. Making its world debut at MD&M in Minneapolis, the Surface Analyst XA integrates the power, simplicity and ease of our handheld Surface Analyst directly into the manufacturing process. Now, the most precise surface monitoring technology will seamlessly unify with any production line, magnifying the speed and efficiency of surface quality control.
Autumnal vibes have landed at BTG Labs and along with football-watching, apple-picking, Halloween costume-planning we have an array of opportunities for you to interact with us and learn more about the Surface Analyst.
Partnering with Plastics Technology, BTG Labs held a webinar about a topic that’s attracting a lot of attention.
In the webinar you’ll learn about how blooming can be detrimental to adhesion when bonding, coating, painting and sealing and, in the cases of medical equipment failures, can be a tremendous risk. Dr. Giles Dillingham walks through strategies for detecting, controlling, and avoiding issues associated with blooming using methods like contact angle measurement.
Go here to view the webinar!
Think about your company’s manufacturing operation.
Now, think about fixing your adhesion problems simply by knowing a single number…
What do both of these statements about surface adhesion have in common?
- “We need to measure surface quality of the teeth on a gear to make sure the coating stays on.”
- “We need to make sure the coating on our tubing is uniform, but we can’t measure a curved surface with our current surface testing method.”
“We need to be solvent wiping our aluminum before it’s coated/painted/sealed/insert adhesion-intensive process here.”
Technically, that’s correct…you should be.
But is that understanding enough?
Water break testing. Dyne pens. Goniometer. No method at all.
The search for a reliable, repeatable, objective method (i.e. not based on opinion) for measuring surface readiness in manufacturing was a search all too common among our current customers, and these methods are the most commonly tried and (formerly) used among them.
Achieving great adhesion in manufacturing comes down to surface preparation (we call it “Clean to a Number”) and optimal surface prep is the difference between an average product…and an industry-leading one.
But getting there means having an objectively quantified understanding of the top 3 molecular layers of your material surface.
Did we just say “top 3 molecular layers?”