With differentiated technical design and full-scenario adaptability, VAT Vacuum Valves play a pivotal role in vacuum systems across various industries. Their technical advantages are reflected not only in basic performance, but also in customized solutions developed for pain points of different processes, while ensuring both system stability and long service life.
In terms of technical design, VAT Vacuum Valves enhance comprehensive performance through a number of patented technologies. The motion curve control technology optimizes the valve's opening and closing rhythm, slowing down the speed near the closing point to reduce vibration and impact, avoid generating extra particles and protect sensitive process environments. The sealing structure is optimized in a targeted manner, and the sealing method is selected based on material characteristics and process requirements, which not only ensures air tightness when closed, but also reduces wear of sealing parts and extends the service life of components. The integration of an intelligent control module is one of the technical highlights: through the linkage of sensors and PLC control systems, it can monitor the valve's operating status in real time, support remote control and automated integration, and adapt to the operational needs of modern production lines. Some models also feature customization, allowing parameters such as valve body material, sealing type and drive mode to be adjusted according to working condition requirements, meeting the application needs of non-standard vacuum systems. Meanwhile, all products undergo rigorous performance tests, maintaining stable performance during long-term and high-frequency operation and reducing the probability of fault shutdowns.
In terms of industry adaptation, VAT Vacuum Valves have been deeply integrated into the core processes of multiple fields. In the semiconductor manufacturing industry, processes such as etching, ion implantation and PVD/CVD have stringent requirements for the purity and stability of vacuum environments. VAT Valves can quickly isolate reaction chambers to prevent the diffusion of polluting gases, while reducing particle emissions to avoid affecting wafer processing quality. In the photovoltaic industry, the coating process of solar cells relies on a stable vacuum environment; the valves can respond to pressure fluctuations in a timely manner, maintain process consistency and adapt to the production needs of large-size substrates. For equipment such as synchrotron radiation light sources and particle accelerators in the scientific research field, which require the maintenance of ultra-high vacuum environments, VAT Valves can effectively block the interference of external gases and ensure experimental accuracy. In the medical and pharmaceutical industries, vacuum sterilization and freeze-drying equipment leverage the valves' fast-closing function to prevent bacterial intrusion and ensure the aseptic safety of products. In addition, in scenarios such as vacuum drying, crystal growth, battery production and mass spectrometry analysis, VAT Vacuum Valves can meet the vacuum control requirements of all process links through corresponding model selection and technical adaptation.
To adapt to the technological upgrading of the industry, VAT Vacuum Valves are continuously iterated and optimized. In response to the trend of automated production, their intelligent monitoring and remote control capabilities are strengthened to support linkage with the overall system; for the needs of extreme working conditions, more corrosion-resistant and high-temperature-resistant materials and structural designs are developed; for the refined needs of precision manufacturing, product models are refined to improve the stability and repeatability of airflow control. Relying on technical accumulation and in-depth scenario development, VAT Vacuum Valves have become an important supporting component for the upgrading of vacuum systems in various industries.