Ceramic powder activation equipment, coating equipment, ball milling equipment


In the high-performance processing of ceramic materials, the particle size distribution, dispersibility, purity, and surface activity of the powder directly determine the efficiency of the subsequent sintering process and the performance of the finished product.

Honeycomb grinding adopts The innovative process pathway of “deagglomeration followed by drying, with simultaneous surface treatment” achieves integrated processing—enabling deep drying, deagglomeration and dispersion, composite modification, and particle surface engineering—all through a modular structural design. The equipment can be customized to suit the specific characteristics of ceramic powders; grinding chambers can be made from materials such as high-alumina ceramics or stainless steel, while rotor blades are crafted from wear-resistant materials like tungsten carbide steel, effectively preventing material contamination during processing and ensuring the powder’s color and purity. The processing capacity can be flexibly adjusted from 0.05 tons/hour to 15 tons/hour, with a maximum water evaporation rate of up to 3 tons/hour, making it suitable for production needs of various scales.

The Cell Mill combines the dual principles of fluidization and gravity. It utilizes the rotational kinetic energy generated by multi-stage alloy agitator discs to drive the media and ceramic slurry within the grinding chamber, creating a high-speed vortex motion. Through collision, friction, shear, and compression among material particles, ultrafine grinding is achieved. To meet specific fineness requirements for ceramic powders, the Cell Mill can precisely control the particle size of the powder by adjusting parameters such as agitator rotation speed and media composition. Within the range of 0.1 to 5 μm, it is particularly well-suited for the preparation of ultrafine ceramic powders at the nanoscale. Its uniquely designed cavity structure overcomes the sealing challenges commonly encountered in conventional equipment. Combined with a compact overall layout, this design delivers operational advantages such as a small footprint and low maintenance requirements. Moreover, by optimizing energy transfer efficiency, it reduces specific energy consumption while still ensuring excellent grinding performance.

Both types of equipment are equipped with wear-resistant, low-contamination materials: the honeycomb mill features tungsten carbide blades and a high-alumina ceramic grinding chamber, while the cell mill is fitted with alumina ceramic liners. These materials effectively prevent the introduction of metallic impurities during the processing, ensuring that the impurity level in the powder can be kept under control. Less than 0.1%. This high-purity characteristic is crucial for demanding fields such as electronic ceramics, significantly enhancing the dielectric properties and insulation stability of ceramic products. It will drive breakthroughs in the application of the ceramics industry in high-end sectors including electronics, healthcare, and new energy, and provide reliable equipment support for the large-scale production of advanced ceramic materials.

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