Black Film PVD Coating Machine
The Black Film PVD Coating Machine delivers high-quality, wear-resistant black film coatings using advanced MF magnetron sputtering technology. Ideal for decorative, industrial, and functional applications with superior durability and precision.
The Black Film PVD (Physical Vapor Deposition) Coating Machine is a high-precision vacuum coating system designed to deposit durable, high-density black films on various substrates, including metals, ceramics, plastics, and glass. These black coatings are widely used in luxury watches, tooling, automotive trim, consumer electronics, and decorative hardware, offering exceptional scratch resistance, wear resistance, and chemical stability.
This machine integrates arc ion plating and MF magnetron sputtering technology to produce black films with uniform thickness, superior adhesion, and stable color retention. With PLC-based automation and optional manual control, it ensures both flexibility and high-volume mass production.
The MF (Medium Frequency) Magnetron Sputtering Coating Machine is a high‑precision Physical Vapor Deposition (PVD) system engineered for producing uniform, high‑adhesion thin films on various substrates. Its design supports multiple coating technologies, including arc evaporation and magnetron sputtering, giving exceptional flexibility for different materials and performance requirements.
The system is widely used in:
- Decorative finishes
- Electronics manufacturing
- Optical components
- Tool and mold surface enhancement
- Automotive parts with high wear and corrosion resistance
How it works:
The MF magnetron sputtering process uses a medium‑frequency electrical power source to generate a stable plasma in a vacuum chamber.
- Inert gas introduction – Argon gas is fed into the vacuum chamber.
- Plasma generation – Medium‑frequency current energizes the plasma at the target (cathode).
- Ion bombardment – Positively charged argon ions collide with the target, ejecting atoms.
- Film formation – These atoms travel across the vacuum and uniformly deposit on the substrate, forming a dense, high‑quality thin film.
Medium‑frequency technology minimizes arc discharge, making it well‑suited for coating insulating or ceramic targets with high stability.
PVD Coating Process Steps
- Loading the Substrate – Components are placed on rotating fixtures or holders.
- Vacuum Creation – The mechanical + Roots + diffusion (or optional cryogenic) pumps evacuate the chamber to high vacuum levels.
- Gas Introduction – Inert gases are introduced through the 1–4 path gas system for plasma generation.
- Plasma Ignition – Medium-frequency power creates a stable plasma within the chamber.
- Sputtering Deposition – Target material atoms are sputtered and deposited as a uniform black film layer.
- Cooling – Components cool down in a controlled environment.
- Unloading – Coated products are removed, ready for packaging or further processing.

Key Applications
- Decorative coatings – Jewelry, watches, bathroom fittings, architectural hardware

- Functional coatings – Wear‑resistant layers for cutting tools, corrosion‑resistant coatings for marine hardware
- Electronics – Thin conductive/semiconductive layers for chips, displays, and circuitry
- Optics – Anti‑reflective films, mirrors, and protective layers for lenses and solar panels
- Automotive – Enhanced surface performance and appearance for trim and components
Advantages
- High‑quality films – Dense, uniform layers with excellent adhesion
- Material versatility – Compatible with metals, alloys, and ceramics
- Process stability – MF power reduces arcing and improves deposition stability
- Energy efficiency – Optimized vacuum and plasma use lower operating costs
- Flexible control – Manual, semi‑automatic, or fully automatic PLC control options
- Production scalability – Suitable for R&D or high‑volume manufacturing
The MF Magnetron Sputtering Coating Machine combines the versatility of medium‑frequency sputtering with multi‑target capacity and precise control systems, making it ideal for both specialized and large‑scale coating applications. Its balance of performance, film quality, and operational efficiency ensures a strong competitive edge across industries.
Technical Parameters
| Application | Examples | Advantages | |
| Eyewear & Sunglasses | Prescription lenses, fashion eyewear | Scratch resistance, anti-glare, decorative tints | |
| Camera & Imaging Lenses | DSLR, telescope, microscope optics | Anti-reflective layers, durability, light transmission | |
| Optical Filters | Colored filters, laser protection filters | Precise wavelength filtration, color stability | |
| Mirrors | Decorative mirrors, laser mirrors, telescope mirrors | High reflectivity, tarnish protection | |
| Parameter | Specification | ||
| Pumps | Mechanical pump + Roots pump + Diffusion pump + Holding pump (Optional: Cryogenic pump, Cryogenic pump system) | ||
| Gas System | 1–4 paths | ||
| Limited Vacuum | 6×10⁻⁴ Pa (cleanroom, no‑loading) | ||
| Targets | Arc: 6–18 sets; Magnetron: 1–2 sets | ||
| Power Sources | DC power supply, Medium frequency power supply, Heater supply, Activation power supply, Pulsed bias voltage power supply | ||
| Target Types | DC Magnetic Target, Medium Twin Target, Plane Target | ||
| Gas Time | 5×10⁻⁴ Pa within 30 mins | ||
| Control Options | Manual, Semi‑automatic, Fully automatic, PLC | ||



















