Multi Ion Beam Sputtering Technique

In order to successfully fabricate ferroelectric lead zirconate titanate (PZT), multi ion beam sputtering techniques can be used. This technique is very advantageous in that the current and the voltage of the ion beam can be adjusted, which makes it possible to control the magnetic flux density and energy of the sputtered material. This technique also provides lower operating pressure, controlled deposition, excellent uniformity over a wide area, reproducibility, and localized plasma in the ion source during deposition. Ion beam sputtering is an excellent growth technique and is widely used for depositing oxide films and semiconductors.

Physical vapor deposition ("PVD") involves removing material from a target and depositing it on the surface. A technique for doing this is to allow the ion beam to emit atoms from the target and allow them to pass through the intermediate space and deposit on the desired substrate and evaporate the material from the target with either material Sputtering process. Heat (thermal evaporation) or electron beam (electron beam evaporation) in a vacuum system. Chemical deposition techniques include chemical vapor deposition ("CVD") where the feed gas stream reacts on the substrate to grow the desired material. According to technical details, this can be further divided into several categories, for example LPCVD (Low Pressure Chemical Vapor Deposition) and PECVD (Plasma Enhanced Chemical Vapor Deposition).

In order to successfully fabricate ferroelectric lead zirconate titanate (PZT), multi ion beam sputtering techniques can be used. This technique is very advantageous in that the current and the voltage of the ion beam can be adjusted, which makes it possible to control the magnetic flux density and energy of the sputtered material. This technique also provides lower operating pressure, controlled deposition, excellent uniformity over a wide area, reproducibility, and localized plasma in the ion source during deposition. Ion beam sputtering is an excellent growth technique and is widely used for depositing oxide films and semiconductors.

The PVC coating process we follow includes sputtering, ion beam evaporation, cathode arc ion plating, and electron beam evaporation. It provides an optimal solution for economical, high-tech and accurate tribology testing. Our testing method is the best in the industry. Metal lubricants that are most suitable for applications, such as solid films, greases, liquid lubricants, etc., are most suitable for customer's needs. Our lubricant engineering is the highest standard, and we use state-of-the-art technology to easily solve the wear problem in a cost-effective way. The expertise of our i-Kote® process coating is as follows.