Laboratory-Scale Flat Lapping Machine has become one of the most popular pieces of equipment in precision laboratories of numerous domestic universities, research institutes and enterprises in recent years. Owing to its compact size and high precision, it boasts extremely high scientific research value and practicability in the industry.

Laboratory-Scale Flat Lapping Machine features strong adaptability, which is applicable for processing precision brittle and hard materials (e.g., alumina ceramics, sapphire, etc.), precision thin metal sheets (e.g., stainless steel sheets, tungsten steel, etc.), semiconductor base materials (e.g., wafer silicon wafers, gallium arsenide wafers, etc.) as well as optical functional materials.

With the servo system for precise speed and pressure control, combined with matched lapping plates and lapping slurry, it achieves micro-nanoscale surface treatment through single/double-sided contact lapping, and accurately controls the surface finish, flatness and thickness tolerance, thus meeting the surface process requirements for the research and development of new materials.

Its applications cover the semiconductor, optoelectronic information, new material R&D, precision ceramics and other fields, as well as the experimental centers of universities and enterprises, serving as a core bridge connecting material R&D and mass production.

In the semiconductor industry, it provides qualified substrates for wafer silicon wafer lapping and thinning experiments, ensuring the stable performance of chip substrates. In the optoelectronic information industry, it can realize scratch-free and high light transmittance processing of optical materials, supporting the R&D of optical components.

In the research and development of new materials and scientific experiments, process parameters can be flexibly adjusted to carry out comparative experiments, verifying the machinability and performance of new materials, shortening the R&D cycle and reducing trial-and-error costs. In the manufacturing industries such as precision ceramics, it verifies the lapping process standards prior to mass production, laying a solid foundation for large-scale production.

In conclusion, with its characteristics of multi-material adaptability and high-precision processing, it provides core support for the R&D of high-end and sophisticated industries, and drives the innovation of material technology and processing technology.