The RTAC1400 represents a significant leap forward in decorative coating technology. Specifically designed for glassware, porcelain, and ceramic items, this system enables double-sided gold, copper, black, and rainbow coatings with exceptional adhesion and scratch resistance.
What sets the RTAC1400 apart is its revolutionary approach that eliminates the need for spraying painting processes traditionally required for glassware coating. This not only reduces production costs but also significantly minimizes environmental impact.
Key innovations::
Arc evaporation technology for direct decorative color application
Dual trolley and rack system for enhanced productivity
CE-certified electrical enclosure with PLC control system
Siemens CPU + PLC operating software with upgrade capability
Capable of 2 additional production cycles per 24 hours
The machine has gained international traction, with installations across Europe, West Asia, and South America, serving manufacturers seeking both aesthetic excellence and durability in their products7.
Recently granted patent CN 221759954 U, Dongguan Delongbao's innovative PVD coating apparatus addresses one of the most persistent challenges in vacuum deposition: preventing surface gases and moisture from affecting film quality.
The system incorporates advanced heating and vacuum technology that removes surface contaminants before deposition, ensuring superior film adhesion and quality. This technological advancement is particularly valuable for precision components in electronics and optical applications where even microscopic defects can compromise performance1.
Technical highlights:
Integrated heating system for pre-deposition contamination removal
Multi-stage vacuum process with precise control mechanisms
Rotational workholding system with adjustable clamping
Enhanced vapor dispersion for uniform coating application
Designed specifically for the home appliances industry, the RTAC1800 exemplifies how custom PVD solutions can transform manufacturing processes. This system utilizes magnetron sputtering and arc evaporation technologies to create exceptionally durable and aesthetically pleasing surfaces on faucets and other household fixtures.
The system represents a sustainable alternative to traditional chemical electroplating, offering environmental benefits without compromising on quality or production efficiency. Its high ionization rate and exceptional film adhesion have made it particularly valuable for manufacturers seeking to combine visual appeal with longevity7.
Notable features:
High-rate deposition for large-scale production capabilities
Multiple coating material options including chromium, titanium, and zirconium
Comprehensive turnkey solution including pre-treatment and polishing lines
Superior film adhesion and extensive color options
Applied Materials has maintained its industry leadership with the Axcela™ PVD system, which continues to set benchmarks for process superiority and stability with non-uniformity of less than 2% 1σ. The system represents a paradigm shift in precision deposition for advanced electronic applications.
The platform's modular architecture allows for exceptional configuration flexibility, supporting various substrate sizes from 150mm to 330mm. This adaptability makes it ideal for diverse applications including EMI shielding, back-side metallization, MEMS devices, and through-silicon via (TSV) fabrication4.
Breakthrough technologies:
D-source magnetrons for enhanced target utilization
Chamber and target structure that maximizes collection of sputtered atoms
Ultra-low particulate performance through optimized magnetron and shield design
Multi-chamber capability for depositing three different materials simultaneously
Xinbo Technology's recently patented plasma-assisted cleaning structure (CN 119372591A) represents a significant advancement in pre-treatment technology for PVD processes. The system utilizes enhanced plasma generation efficiency to achieve superior cleaning效果 before deposition, resulting in exceptional film quality and adhesion.
The innovation centers on a specialized configuration featuring a biased power supply that applies negative voltage to processing components, dramatically increasing plasma density within the vacuum chamber. This approach addresses fundamental quality challenges in precision coating applications, particularly for advanced electronic components5.
Technical innovations:
Magnetic confinement of plasma distribution
Metallic cylinder structure aligned with rotational axis to enhance plasma density
Improved plasma discharge density for enhanced cleaning and pretreatment
Superior film uniformity and adhesion for demanding applications
System | Technology | Key Innovation | Primary Applications |
---|---|---|---|
Royal Tech RTAC1400 | Arc evaporation | Double-side coating without spraying | Glassware, decorative items |
Delongbao Nano | Multi-stage vacuum | Surface gas/moisture removal | Precision components, electronics |
Royal Tech RTAC1800 | Magnetron sputtering/arc evaporation | Eco-friendly alternative to electroplating | Faucets, home appliances |
Applied Materials Axcela | Magnetron sputtering | <2% non-uniformity | EMI shielding, MEMS, TSV |
Xinbo Technology | Plasma-assisted | Enhanced plasma density | High-end electronic components |
The global PVD vacuum coating equipment market is experiencing substantial growth, with projected expansion from $22 billion to $47 billion by 20248. This remarkable growth is driven by increasing demand across multiple sectors:
Consumer electronics continues to dominate application segments, with PVD coating essential for achieving the desired colors, brightness, and corrosion resistance in smartphones, tablets, and other devices8.
The automotive industry represents the fastest-growing segment, with manufacturers increasingly adopting PVD technologies for both functional and decorative components8.
Environmental regulations are driving adoption of PVD technologies as eco-friendly alternatives to traditional electroplating and other coating processes with higher environmental impact7.
Technical advancements in plasma control, vacuum technology, and deposition precision are enabling applications in increasingly demanding sectors including medical devices and aerospace components6.
The industry's competitive landscape includes both global giants and specialized innovators, with companies like Applied Materials, ULVAC, Optorun, and Buhler Leybold Optics leading market share, while Chinese manufacturers including Shanghai Royal Technology, Huicheng Vacuum, and Hanil Vacuum are increasingly competitive in specific applications3.
The remarkable progress in PVD technology is fueled by several converging factors:
Material Science Advances: New coating materials with enhanced properties including greater hardness, flexibility, and environmental resistance7
Precision Engineering: Enhanced capabilities in controlling deposition thickness and uniformity at nanometer scales4
Sustainability Demands: Regulatory and consumer pressure for more environmentally friendly manufacturing processes7
Automation Integration: Sophisticated control systems featuring PLC, IoT connectivity, and advanced diagnostics7
Multi-functional Requirements: Growing need for coatings that provide both aesthetic appeal and functional benefits like antibacterial properties or enhanced durability7
As we look beyond 2024, several trends are likely to shape the next generation of PVD coating systems:
Artificial intelligence integration will further enhance process control, with machine learning algorithms optimizing deposition parameters in real-time for superior results and reduced material waste5.
Hybrid deposition approaches will combine PVD with other technologies such as CVD (chemical vapor deposition) to create multi-functional coating systems with previously impossible material properties6.
Modular, customizable systems will continue to gain popularity, allowing manufacturers to tailor equipment to specific applications without the cost of completely custom solutions7.
Expansion into new markets including biomedical implants, renewable energy components, and advanced packaging will drive further innovation in this dynamic field8.