Colloid mills

Automatic industrial colloid mill with continuous raw material loading and cycling function. The design allows controlling the fraction of the resulting material at the output. Capacity from 500 to 2000 kg per hour. Rotation speed 2900 rpm. Weight 180 kg. The working mechanism of the colloid mill is shear, grinding and high-speed mixing. Destruction and grinding are based on the relative movement of disc-shaped chamfers. One of the chamfers rotates at high speed, and the other is stationary, so large shear forces and friction occur on the material through the disc-shaped chamfers. At the same time, under the influence of high-frequency vibration, high-speed vortex and other complex forces, the material was effectively crushed, emulsified, crushed, dispersed and homogenized, resulting in ultra-fine particles. We provide a…

Automatic laboratory colloid mill with continuous raw material loading and cycling function. The design allows controlling the fraction of the resulting material at the output. Capacity from 300 to 1000 kg per hour. Rotation speed 2900 rpm. Weight 125 kg. The working mechanism of the colloid mill is shear, grinding and high-speed mixing. Destruction and grinding are based on the relative movement of disc-shaped chamfers. One of the chamfers rotates at high speed, and the other is stationary, so large shear forces and friction occur on the material through the disc-shaped chamfers. At the same time, under the influence of high-frequency vibration, high-speed vortex and other complex forces, the material was effectively crushed, emulsified, crushed, dispersed and homogenized, resulting in ultra-fine particles. We provide a…

Automatic laboratory colloid mill with continuous raw material loading and cycling function. The design allows controlling the fraction of the resulting material at the output. Productivity from 20 to 200 kg per hour. Rotation speed 2825 rpm. Weight 50 kg. The working mechanism of the colloid mill is shear, grinding and high-speed mixing. Destruction and grinding are based on the relative movement of disc-shaped chamfers. One of the chamfers rotates at high speed, and the other is stationary, so large shear forces and friction occur on the material through the disc-shaped chamfers. At the same time, under the influence of high-frequency vibration, high-speed vortex and other complex forces, the material was effectively crushed, emulsified, crushed, dispersed and homogenized, resulting in ultra-fine particles. We provide a…