The core value of an ultrasonic cylindrical indium coating device lies in its capacity to reap uniform, ultra-thin, and pollution-free indium coatings. It is mainly designed for metal components with rotating shapes, usually stainless metal and aluminum alloys, and every so often oxygen-free copper and different metals. The surfaces of these substances require pre-cleaning and therapy to make sure the adhesion of the indium layer. Common examples include:
Various flanges: Sealing grooves for vacuum flanges such as CF flanges, KF flanges, and ISO flanges.
Sealing rings: Used to exchange expensive necessary indium wire rings; indium coating can be utilized to stainless metal or aluminum-based sealing rings.
Valve seats and valve cores: Critical sealing aspects of vacuum valves. Cavity door sealing surfaces: Sealing surfaces of vacuum chamber door covers.
Waveguides and connectors: Precision connecting components requiring airtightness or special electromagnetic properties.
Pistons and bushings: Rotating components requiring soft metal lubrication or sealing under certain special operating conditions.
Compared to traditional indium coating techniques (such as manual application, electroplating, and hot-dip plating), ultrasonic cylindrical indium coating machines signify a vast bounce ahead in precision, reliability, and efficiency. Their benefits are on the whole mirrored in the following aspects:
Uniform and dense coating with extremely high quality: Utilizing the high-frequency vibration energy of ultrasound, the solid indium wire undergoes instantaneous "plastic flow," forming a "metallurgical bond" with the base metal surface in a flash. This process creates a continuous, non-porous, uniform, and dense indium coating. This is crucial for achieving ultra-high vacuum and ultra-low temperature sealing.
High bonding strength and resistance to peeling: Ultrasonic energy generates intense plastic deformation and micro-friction at the interface between indium and the substrate (such as stainless steel or aluminum alloy). While cleaning the surface, it also causes the atoms of the two metals to diffuse into each other, forming an extremely thin metallic bond layer. This metallurgical bonding method results in a bonding strength far exceeding that of traditional methods, making the coating less prone to peeling and extending its service life.
Achieves ultra-thin and precise thickness control: Through a sophisticated CNC control system, the workpiece rotation speed and indium wire feed speed can be precisely matched, enabling micron-level precise control of the coating thickness. Users can customize coating thicknesses ranging from a few micrometers to tens of micrometers according to their sealing requirements, ensuring performance while saving on expensive indium materials.
Flux-free, pollution-free, clean and environmentally friendly: The entire process is a physical bonding in the solid state, requiring absolutely no flux or chemical solvents. This not only eliminates pollution problems caused by flux residue, but also makes the indium-coated workpiece extremely clean, eliminating the need for complex post-cleaning procedures, making it particularly suitable for industries with extremely high cleanliness requirements.
The ultrasonic cylindrical indium coating device is a precision machine designed for high-end manufacturing and scientific research. It solves the trouble of regular sealing techniques (such as rubber O-rings and stable steel gaskets) failing in ultra-high vacuum and extraordinarily low temperature environments. Its profitable utility relies upon on the ideal aggregate of "equipment, process, materials, and personnel."
Media Contact
Company Name: Hangzhou FUNSONIC Ultrasonic Technology Co., Ltd.
Email: Send Email
Phone: 0086-18966176048
Address:No.16 Changtai Road, Changkou Town, Fuyang District
City: Hangzhou
State: Zhejiang
Country: China
Website: https://www.funsonic-tech.com/
