PVD Coating Technology

NTI Nanofilm optimises Physical Vapour Deposition technology, delivering superior hardness, wear & corrosion resistance coatings for tooling, decorative, and industrial parts.

Physical Vapour Deposition (PVD) Technology

PVD is a dry surface treatment and thin film deposition method that forms hard, durable, low-friction coatings in vacuum. Material from a solid target is vaporised by sputtering, cathodic arc, or electron beam, transported as a vapour to the substrate, then nucleates and grows into a functional thin film. PVD improves wear resistance, adhesion, and appearance on precision, tooling, and decorative parts while supporting a wide range of colours and finishes with an environmentally friendly process.

Main Advantages of NTI Nanofilm PVD

Compared to electroplating and wet coating methods, PVD delivers harder, more durable, and environmentally friendly finishes.

  • Eco-Friendly Process

    Environmentally safe vacuum coating process eliminating hazardous waste and minimizing emissions for a cleaner, sustainable production environment.

  • Outstanding Performance

    Produces harder, corrosion-resistant thin films with high impact strength, excellent scratch resistance, and superior abrasion resilience.

  • Coating Capabilities

    Supports a wide range of inorganic and select organic coatings on diverse substrates for tailored decorative and functional performance.

  • Nanofilm FCVA Coating Technology

    Produces ultra-dense, high-purity ta-C coatings with superior hardness, low friction, and minimal particles—ideal for semiconductor, optical, and precision components.

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  • Nanofilm PVD Coating Technology

    Delivers durable, decorative, and functional coatings with excellent adhesion, wear, and corrosion resistance through advanced sputtering and arc processes.

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  • Nanofilm Ion Beam Technology

    Combines precise film control with pre-deposition surface activation, enhancing coating density, adhesion, and uniformity on high-performance engineering components.

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  • PVD Portfolio
  • Sputtering
  • Ion-Beam
  • FCVA

  • Sputtering

  • Ion-Beam

Frequently Asked Questions

  • What is PVD coating and how does it work?

    PVD, or Physical Vapour Deposition, is a vacuum-based thin-film process where solid material is vaporised under high energy and condensed onto a substrate to create a dense, durable surface layer. The method can produce metallic, nitride, oxide, or hybrid films with strong adhesion and excellent film purity. Because the process is conducted in a clean, controlled vacuum, it achieves uniform coating thickness, smooth finishes, and stable performance without generating harmful chemical waste. PVD is widely recognized for delivering high-precision, environmentally responsible coatings used in tooling, molds, and decorative components.

  • What are the benefits of PVD coating compared to traditional surface treatments?

    PVD coating provides a unique combination of hardness, wear resistance, and aesthetic appeal that traditional methods such as electroplating or nitriding cannot match. The process forms a compact, high-density film that resists scratches and corrosion, extending component lifespan and reducing maintenance needs. It also delivers brilliant, fade-resistant finishes, from mirror silver and graphite grey to rich gold and rose tones, making it equally suitable for technical and decorative applications. Because it is Cr-VI-free and requires no hazardous liquids, PVD is also a sustainable and eco-friendly surface treatment for advanced manufacturing and consumer products.

  • Which industries and components benefit most from PVD coatings?

    PVD coatings are widely adopted across semiconductor, optics, automotive, aerospace, precision tooling, and luxury product sectors. They are used to improve the durability and performance of cutting dies, molding inserts, engine parts, precision fixtures, and optical components. For decorative markets, PVD provides vibrant metallic colours and high gloss while maintaining mechanical strength. Its combination of functional protection and visual appeal makes PVD a preferred coating for both industrial performance and high-end consumer goods such as watches, eyewear, and lifestyle accessories.

  • How does PVD coating enhance performance in high-wear environments?

    PVD coatings strengthen surface integrity by creating micro-crystalline films with exceptional hardness and adhesion. These coatings resist friction, oxidation, and elevated temperatures, allowing tools and mechanical parts to maintain precision even under continuous impact or sliding contact. Typical PVD films achieve high load-bearing capacity, low friction coefficients, and excellent heat stability, resulting in longer service life and consistent performance in demanding environments such as high-speed machining, molding, or engine operation. This reliability translates into measurable cost savings and improved production uptime.

  • How do you select the right PVD coating for your application?

    Choosing the right PVD coating begins with identifying the function and environment of the component, whether for wear resistance, corrosion protection, reflectivity, or aesthetic finish. Metallic coatings like titanium-based films offer bright colour and surface protection, while oxide or nitride variants deliver enhanced hardness and chemical stability. The final selection should consider the substrate material, working temperature, desired colour, and maintenance cycle. When properly matched, a PVD coating can deliver consistent appearance, longer lifespan, and superior surface performance across both funcational and decorative applications.

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