Application of Thermal Spray Coating Technology in Automobiles

Thermal spraying technology is one of the most effective techniques for surface modification in the field of surface engineering. It is widely used in industries such as automotive, biomedical, and chemical processing. Thermal spraying can produce coatings with a wide range of properties; when applied to automobiles, it can enhance vehicle performance, reduce wear on automotive components, and extend their service life. Consequently, thermal spraying is extensively employed in both automobile manufacturing and maintenance industries.

09-05

2020

Introduction to Literature on Thermal Spraying Technology as an Alternative to Electroplating Hard Chrome Technology

In recent years, thermal spraying has been increasingly used as an alternative to hard chrome plating, and more comprehensive and in-depth research has been conducted from various perspectives, including coating materials, spraying processes, coating performance, post-coating processing techniques, and application areas of these coatings [24]. Such coatings—such as WC-Co, WC-10Cr, Cr4Cr, CgNiCr, Cr2O3, WC-NiCr, WGNi, Tribaloy 400, NiCrBSi, FeCrMo, CoMoCrSi, CoCrNiW, FeNiCr, Al2O3-TiO2, and others—have found applications in a wide range of industries, including ball valves, corrugated rollers, knurled shafts, landing gear, pumps, textile machinery, petrochemical equipment, and automobiles [25].

09-05

2020

Application of Plasma Spraying Technology in Automotive Engine Manufacturing

Automotive engines operate under harsh conditions such as high pressure, high temperature, and intense friction, which compels engine manufacturers to explore every possible means of minimizing damage to the engine during operation. As a result, a technology known as plasma coating has come into our view.

09-01

2020

Application of Tungsten Carbide Coatings in the Lithium-Ion Battery Industry

After years of practical experience in the battery industry, our company has developed comprehensive solutions for isolating iron ions and enhancing wear resistance in cathode materials and battery production equipment, thereby significantly reducing impurity introduction. Moreover, these solutions have greatly improved the self-discharge performance of finished batteries once the cathode materials are processed into end products.

09-01

2020