We deposit on plastics, composites and heat-sensitive materials, and deposit compounds that conventional deposition technologies cannot process — from oxides to superconductors. Our patented IJD technology unlocks applications in engineering, aerospace, defence, medicine and energy that were previously out of industrial reach.
Our patented technology offers capabilities that conventional methods simply cannot deliver.
We deposit on plastics, composites and heat-sensitive materials — process temperature stays below 120 °C. Conventional PVD excludes these substrates by its very nature.
We deposit virtually any element, including superconductors, complex ceramics and multi-element compounds. Conventional deposition technologies are inherently unable to preserve the stoichiometry of the source material.
Film quality comparable to pulsed laser deposition (PLD) — without 5× higher energy consumption and without needing 10–20× more floor space. PLD quality, now industrially accessible.
We combine 2 to 4 different materials in a single process. Their ratio can be continuously varied from the surface inward — creating precisely engineered multilayer coatings with unique properties.
Compact system, low operating costs, easy integration into a production line. What was previously the exclusive domain of large coating centres is now achievable in your own facility.
Beyond coating, we can implant gases directly into the bulk of solid materials at industrial scale — forming carbides, nitrides and oxides down to 10 µm depth. A capability with no comparable accessible alternative.
6 tunable parameters and more than 20 proprietary recipes. Process knowledge is not part of the patent — it forms a competitive moat that cannot simply be copied.
Rapid proof-of-concept and serial deposition under one roof. Your project won't stall at the transition from development to production.
We design and optimise coatings specifically for your material and application. If no suitable recipe exists, we create one — from target material selection through to final process parameters.
Each of these depositions is the result of precise work and close collaboration with the client on a specific manufacturing challenge.
Transparent TiO₂ protective coating on a polycarbonate light cover.
Homogeneous coating directly on carbon materials without any surface pre-treatment.
Molybdenum disulfide nanocoating — a lubricious, self-lubricating surface that works even in vacuum.
Extremely hard carbide coating with outstanding adhesion for demanding industrial applications.
Colour-stable coating on cubic zirconia — resistant up to 1,100 °C.
Coating reaches inside cavities and complex geometries thanks to the accelerated plasma jet.
You describe the part, the material and the required properties. No technical jargon needed — just tell us what you need to improve or protect.
Our engineers propose the optimal coating material and deposition parameters. We'll discuss realistic options and constraints with you.
We deposit a prototype coating and measure its properties — thickness, hardness, adhesion, optical and electrical parameters.
Once the prototype is approved, we fine-tune the process for repeatable deposition and move to serial production according to your needs.
Every deposition is different. Write to us about your part, its material and what you expect from the coating — we'll get back to you with a proposed next step.
At the core of IJD technology is a source of fast pulsed electrons housed in a vacuum chamber, capable of repeatedly generating very short, intense electrical discharges supported by a gas flow and directed at a solid target made of the desired coating material.
When the discharge strikes the target, localised evaporation occurs in a non-equilibrium state (ablation), emitting highly ionised material. The evaporated material expands in a plasma that condenses on any object in its path, forming a dense coating of the same material as the target.
In our process, these pulses controllably ablate material and generate a directed plasma plume, which is further accelerated by electrical energy to supersonic velocity and propagates directionally in high vacuum towards the workpiece (substrate). As the plasma condenses on the workpiece surface, the desired homogeneous thin film is formed.
Learn more about the technologyAn innovative technology company specialising in the development and manufacture of deposition systems for thin film coating using our own patented Ionized Jet Deposition method.
We work with industrial manufacturers, research institutions and startups seeking a competitive advantage through surface engineering.
More about Noivion"We don't improve surfaces — we create new performance capabilities for products."
— Tomáš Polák, CEO · Noivion