Ultrasonic cleaning technology is widely used in multiple industrial fields to help improve the quality and efficiency of manufacturing industry

In recent years, ultrasonic cleaning technology has been widely used in industrial fields such as automotive manufacturing, aerospace, electronic semiconductors, and optical precision manufacturing, relying on the micro cleaning ability of cavitation effect. It gradually replaces traditional manual or spray cleaning methods, effectively solves the cleaning problems of complex structural components, and helps the manufacturing industry improve quality and efficiency, and reduce costs.

In the field of automotive parts manufacturing, ultrasonic cleaning technology has become the core support for mass production. A certain German automotive parts supplier uses a five slot ultrasonic cleaning system to treat engine cylinder heads, achieving full process automation of "heavy oil cleaning → precision rinsing → spraying → rust prevention → drying", reducing residual oil from ≥ 15g/m ² to ≤ 0.5g/m ², significantly reducing the number of metal particles, achieving VDA19 standard Class 2 cleanliness, and increasing production capacity to 120 pieces/hour. Another gearbox manufacturer uses a dual frequency multi slot system to clean gears, increasing the product qualification rate from 92% to 99.7%, reducing cleaning costs by 65%, and achieving batch production of 400 pieces per hour.

In the field of aerospace precision manufacturing, ultrasonic cleaning technology has achieved a breakthrough in non-destructive deep cleaning. A certain aircraft engine manufacturer uses a multi frequency ultrasonic system to clean turbine blades, effectively removing deep oil stains and oxide layers, reducing the surface roughness of the blades from Ra0.8 μ m to Ra0.2 μ m, increasing coating adhesion by three times, and increasing fatigue life by 40%, effectively avoiding the risk of high-altitude failure. In the field of semiconductor manufacturing, high-frequency ultrasonic cleaning technology is suitable for the cleaning needs of 7nm process wafers, replacing some RCA cleaning steps and reducing the number of residual particles on the wafer surface from 32/cm ² to 0.8/cm ² without damaging the photoresist, resulting in a 5% -8% increase in yield.

Industry insiders have stated that with the upgrading of industrial manufacturing towards precision and intelligence, the application scenarios of ultrasonic cleaning equipment will continue to expand. In the future, technical parameters will be further optimized to meet the cleaning needs of more high-end manufacturing fields, providing technical support for the high-quality development of the manufacturing industry.