Plasmatreat Openair-Plasma Offers Safe Surface Cleaning, Activation
The atmospheric plasma solutions include high-efficiency plasma cleaning, activation and nanocoating of surfaces.
Even large components, such as an automotive dashboard, can emerge from the 3D printer and then be bonded, painted or printed — all possible through pretreatment with Openair-Plasma. Photo Credit: Plasmatreat
Plasmatreat’s Openair-Plasma processes are designed to optimize additive manufacturing (AM) by significantly improving the quality of components while also reducing the manufacturing company’s carbon footprint. The company says atmospheric pressure plasma pretreatment is one of the most efficient plasma processes for cleaning, activating or coating plastics, metals, glass, recycled materials and composite materials.
Activating the surface with Openair-Plasma enables environmentally friendly printing and painting without resorting to conventional flame treatment or chemical pretreatment. In comparison to low pressure plasma technology, no special chamber system is required when Openair-Plasma technology is used. During ultrafine cleaning with Openair-Plasma (plasma cleaning), surfaces are gently and safely cleaned of release agents and additives, and sterilized (plasma sterilization), while plasma activation makes later adhesion of glues and coatings possible. By using the nanocoating PlasmaPlus (plasma coating), functionalized surface characteristics can also be produced that meet special product requirements.
The Openair-Plasma process is a simple, safe and environmentally-friendly technology — only air, electrical power and the existing production line are required for plasma treatment under normal pressure. As a result, Openair-Plasma can be used in almost all areas of industrial manufacturing.
The long-term durability of inks and coatings can also be further increased by a supplementary PlasmaPlus coating. When bonding products from the 3D printer, the use of plasma technology also replaces the use of chemical adhesion promoters (primers) and achieves long-term stable bonds — even when originally incompatible materials are used. Users thus benefit from an expanded choice of materials.
The process is known for reliability and cost-effectiveness. High process speed and lower scrap rates provide high process efficiency. Because it enables flexible material selection, the Openair process also facilitates the use of more advantageous materials.
It also offers a high degree of activation. Unlike corona treatment, Openair-Plasma permits a high degree of activation of the surfaces to be treated. Additionally, it provides a arge process window as the danger of thermal component damage is extremely low in comparison to flaming.
The process is alo easy to integrate. In contrast to mechanical processes, like roughening and sand or aluminum oxide blasting, Openair-Plasma can easily be integrated inline in existing processes.
The process is also environmentally friendly as it makes it possible to treat surfaces with solvent-free and VOC-free methods. Unlike electrochemical processes, such as galvanizing or galvanically-supported pickling and chrome plating, wet chemistry is not required.
“3D printing alone is not enough. A strong network of manufacturers and companies that master the upstream and downstream processes is key to the breakthrough of this revolutionary technology in the industry,” says Frank Petrolli, Plasmatreat vice president of strategic market development. “Plasmatreat is taking a step ahead here and shows that solutions can be implemented quickly and sustainably.”
- Learn how plasma technology produces metal powders that are more spherical and provide better properties for additive manufacturing.
- Check out a variety of evolving postprocessing systems in our #Postprocessing section.
Related Content
Postprocessing Steps and Costs for Metal 3D Printing
When your metal part is done 3D printing, you just pull it out of the machine and start using it, right? Not exactly.
Read MoreTop 10 Additive Manufacturing Stories of 2023
Laser powder bed fusion, proprietary AM processes, machining and more made our list of top 10 articles and videos by pageviews this year.
Read MoreAdditive Manufacturing Is Subtractive, Too: How CNC Machining Integrates With AM (Includes Video)
For Keselowski Advanced Manufacturing, succeeding with laser powder bed fusion as a production process means developing a machine shop that is responsive to, and moves at the pacing of, metal 3D printing.
Read MoreVulcanForms Is Forging a New Model for Large-Scale Production (and It's More Than 3D Printing)
The MIT spinout leverages proprietary high-power laser powder bed fusion alongside machining in the context of digitized, cost-effective and “maniacally focused” production.
Read MoreRead Next
Bike Manufacturer Uses Additive Manufacturing to Create Lighter, More Complex, Customized Parts
Titanium bike frame manufacturer Hanglun Technology mixes precision casting with 3D printing to create bikes that offer increased speed and reduced turbulence during long-distance rides, offering a smoother, faster and more efficient cycling experience.
Read More3D Printed Polymer EOAT Increases Safety of Cobots
Contract manufacturer Anubis 3D applies polymer 3D printing processes to manufacture cobot tooling that is lightweight, smooth and safer for human interaction.
Read MoreCrushable Lattices: The Lightweight Structures That Will Protect an Interplanetary Payload
NASA uses laser powder bed fusion plus chemical etching to create the lattice forms engineered to keep Mars rocks safe during a crash landing on Earth.
Read More