Parylene is among the strongest, safest, and most reliable conformal coatings. It can coat surfaces of many sizes and shapes, all while performing under even the most extreme conditions. Naturally, this is excellent while the coating is doing its job--but how do you remove something designed to be so strong and permanent? Today we'll cover parylene removal, which techniques to avoid, and what you need to know.

Parylene coating has applications that range from space travel to the creation of prosthetic limbs. As a result, it must be strong and reliable. Still, it must also be subtle--that is, capable of doing its work without interrupting the function or purpose of the substrate material. The good news is that thanks to a long list of impressive optical properties, parylene coating never gets in the way, even when high levels of precision are required to maintain safety, health, or accuracy standards.

Before you can decide exactly how to utilize parylene for your next project, you need to know all about this conformal coating--including its optical properties. Here's a closer look at what you can expect from parylene.

Although parylene is one of the strongest and most reliable conformal coatings available, it is not necessarily "one size fits all." Read on to learn more about using a dimer for parylene--and how to know exactly what your unique project needs.

The medical industry is one of the most precise in the world. It has to be, lives depend on that precision. Not only must every hand be steady and every mind be sharp--the tools and devices must be safe, efficient, and long-lasting. That's where parylene comes in. Long-trusted as one of the best coatings for medical applications, parylene marks the highlight of its career when it is used to protect stents.

Parylene coatings are known for many things, including their unique ability to cover even the most complicated surfaces and their reliability when it comes to longevity and effectiveness. However, one of the most valuable aspects of any parylene coating is its ability to withstand temperature extremes.