Ceramic structural components, with their core advantages of high temperature resistance, corrosion resistance, high strength, and excellent insulation, have become indispensable core parts in high-end fields such as new energy, semiconductors, and aerospace. Their precision machining processes and customization capabilities directly determine the stability and service life of terminal equipment. As a new type of high-end material component in the industrial field, ceramic structural components break through the performance limitations of traditional metal parts, adapting to various harsh working conditions, with market demand continuously rising. High-quality ceramic structural components are made from base materials such as high-purity alumina, zirconia, silicon nitride, and aluminum nitride, through systematic processes including precision powder preparation, molding, sintering, and post-processing. Each step strictly controls precision, ensuring product dimensional errors are within the μm level and surface roughness can reach Ra≤0.02μm, meeting the precision assembly requirements of high-end equipment. Compared with traditional metal structural components, ceramic structural components not only have several times higher wear resistance and a service life extended by more than five times but also offer unique advantages such as no metal contamination, low thermal expansion coefficient, and radiation resistance, effectively addressing core industry pain points. In the new energy field, ceramic structural components are particularly widely used. In the photovoltaic industry, ceramic structural components are used for silicon wafer gripping and transfer parts, avoiding metal contamination, reducing the risk of scratches and breakage of thin silicon wafers, and helping to improve battery conversion efficiency. In the lithium battery field, aluminum nitride ceramic structural components combine thermal conductivity and insulation, quickly dissipating battery heat, blocking short-circuit risks, and adapting to the long-term stable operation of high-energy-density batteries. In the wind power and nuclear energy fields, ceramic structural components can withstand harsh environments such as salt spray, radiation, and high-frequency alternating loads, ensuring long-term safe operation of equipment. In high-end fields such as semiconductors and aerospace, the precision and performance requirements for ceramic structural components are even more stringent. Ceramic structural components in semiconductor equipment, processed through precision techniques such as isostatic pressing and laser cutting, can achieve precise molding of micro-holes and irregular structures, meeting the high-precision needs of chip processing. In the aerospace field, ceramic structural components, with their lightweight, high-temperature resistance, and high strength, are used in core positions such as engine hot-end parts, helping to reduce equipment weight and energy consumption. Currently, ceramic structural components have achieved full-industry customized adaptation, allowing for the customization of products with different materials, specifications, and precision based on the needs of various industries and equipment, covering types such as ceramic bearings, ceramic seals, and ceramic substrates. With the advancement of the "dual carbon" goals and the upgrade of high-end manufacturing, the application scenarios of ceramic structural components continue to expand. Their advantages of high precision, high stability, and long service life will continue to empower high-quality development across industries, becoming an important support for the localization and substitution of high-end equipment.