The international advanced ceramics and powder metallurgy sectors are gathering at the Shenzhen World Exhibition & Convention Center for PM & IACE SHENZHEN 2026. As advanced component manufacturing accelerates toward tighter tolerances, sub-100nm particle size distributions.

Selecting the proper agitator geometry is the defining factor in determining a bead mill’s power density, residence time distribution, and ultimate grinding limit. While disc-type bead mills have long served as reliable workhorses for gentle, multi-pass dispersion of low-to-medium viscosity slurries, high-tech manufacturing—spanning battery nanomaterials, digital inks, and electronic ceramics—increasingly mandates the intense shear and concentrated energy density of pin-type

Choosing between a horizontal and a vertical bead mill is one of the most critical capital decisions for high-purity chemical and nanomaterial processing. While horizontal bead mills have long served as the conventional standard for coarse paints and bulk industrial slurries, their reliance on pressurized dynamic mechanical seals and static gap screens creates frequent leakage, batch contamination, and media-jamming failures when handling micro beads below $0.2\text{ mm}$. Th

Bead Mill for Digital Inkjet Ink & High-End Paint: Achieving Sub-Micron Pigment Dispersion Without Printhead Clogging Digital printing demands zero tolerance for oversize grains: while D50​ must reach 80–150 nm, the true commercial threshold is eliminating the tail (D99​<200–300 nm) to prevent immediate piezo and thermal printhead nozzle clogging.