Mixer mills grind and homogenize small sample volumes quickly and efficiently by impact and friction. These ball mills are suitable for dry, wet and cryogenic grinding as well as for cell disruption for DNA/RNA or protein recovery. For special applications such as mechanosynthesis, they offer unique solutions. Mixer mills are well known for their ease of use and small foot-print compared to other types of ball mills.
- Max. feed size: <= 10 mm
- Final fineness: ~ 0.1 µm
- Vibrational frequency: 3 - 30 Hz (180 -1800 min-1)
Details on the fields of application, working mechanisms and materials used in mixer mills.
- Max. feed size: <= 10 mm
- Final fineness: ~ 0.1 µm
- Vibrational frequency: 3 - 35 Hz (180 - 2100 min-1)
- Max. feed size: <= 8 mm
- Final fineness: ~ 5 µm
- Vibrational frequency: 3 - 35 Hz (180 - 2100 min-1)
- Max. feed size: <= 8 mm
- Final fineness: ~ 5 µm
- Vibrational frequency: 3 - 30 Hz (180 - 1800 min-1)
- Max. feed size: <= 8 mm
- Final fineness: ~ 5 µm
- Vibrational frequency: digital, 5 - 30 Hz (300 - 1800 min-1)
- 测量研磨罐内的压力和温度
- 压力测量 0-5 巴
- 温度测量：-25 °C - +90 °C
Mixer Mills - Function Principle
The grinding jars of mixer mills perform radial oscillations in a horizontal position. The inertia of the grinding balls causes them to impact with high energy on the sample material at the rounded ends of the jars and pulverize it. High energy milling is possible by operating at high frequencies up to 35 Hz. The movement of the jars and balls causes further size reduction effects through friction and additionally leads to effective mixing of the sample. The degree of mixing can be increased by using several smaller balls.
Mixer Mills - Fields of application
氧化钛
湿磨
金属合金
干磨
头发
干磨
头发
干磨