Bead Mill for Advanced Materials

The ability to grind thermal conductive filler raw materials to nanometer level makes the filler particles finer, increases the specific surface area, increases the contact area between the filler and the base material, and improves the thermal conductivity

The quantum dot raw materials are ground into the required small particle size range, and a fine dispersion mechanism is used to ensure uniform distribution of particles, thus avoiding performance fluctuations that may be caused by uneven particle size.

Solve the problems of insufficient raw material refinement, uneven particle size distribution, and maintaining material biocompatibility and purity in the production of biomedical coating materials

Smart textile raw materials often need to reach nanoscale or ultra-fine particle size to ensure that they have excellent properties, such as conductivity, sensing, temperature regulation, etc.

During the preparation of high-performance polymers, strict requirements are placed on the particle size, particle size distribution and dispersion state of the raw materials. Too large a particle size or uneven distribution will affect the physical and mechanical properties of the polymer, such as strength and toughness.

It can achieve uniform distribution of spray powder particle size, which is crucial for the density and performance stability of ion spray coating.

Glass coating production has strict requirements on the particle size and distribution of raw materials, because the uniformity of the coating material directly affects the flatness and optical properties of the coating layer.

Able to grind flexible electronic materials to nanometer level and achieve uniform dispersion of materials, avoiding agglomeration and sedimentation of particles

Solve the problems of insufficient raw material refinement, uneven particle distribution and incomplete impurity removal in the production of precision optical materials, ensuring the purity, uniformity and optical performance of optical materials

The performance of optoelectronic materials depends largely on their microstructure and surface morphology, including particle size, shape, distribution, and surface roughness.

Able to grind composite materials to nanometer level and achieve full mixing and uniform dispersion of raw materials

Ability to achieve nano-scale processing of smart material raw materials, ensuring uniform distribution of material components and fine control of microstructure