PlasmaGear uses advanced electrospinning technology to manufacture lightweight, porous nanofiber membranes with highly tunable properties.
By controlling the membrane structure and material selection, we can tailor characteristics such as air permeability, barrier performance, stretch, thickness and weight for different applications.
Our capabilities extend from material development and prototyping to industrial roll-to-roll production, supporting the transition from R&D to commercial-scale manufacturing.
Avantages de l'électrospinning
Lightweight Thin membrane structures with minimal added weight.
Highly Tunable Performance can be adapted to specific application requirements.
Polyvalence des matériaux Compatible with a range of polymer and functional material systems.
Scalable From development samples to continuous roll production.
2. Plasma Surface Engineering
Functional Surfaces Without Conventional Wet Coatings
PlasmaGear uses plasma-based surface engineering to modify the surface properties of membranes and textile substrates without significantly changing the underlying material structure.
The technology can be used to introduce or enhance properties such as water repellency, surface energy, adhesion and other application-specific functionalities.
Our plasma capabilities can be used independently or combined with nanofiber membranes to create customized material systems.
Advantages of Plasma Surface Engineering
PFAS-Free Surface Solutions Alternative surface treatments for applications traditionally relying on fluorinated chemistry.
Minimal Material Addition Surface functionality can be introduced using extremely thin treatments.
Customizable Properties Surface characteristics can be tailored to different substrates and requirements.
Integrated Development Plasma treatment can be combined with PlasmaGear’s nanofiber membrane platforms.
3. Combining Nanofibers + Surface Engineering
Two technologies. One customizable material platform.
PlasmaGear combines nanofiber engineering with plasma-based surface modification to develop membranes with tailored bulk and surface properties.
This enables us to address performance requirements such as breathability, barrier protection, flexibility and surface functionality within a single material-development platform.