Laboratory Vibratory Grinding Mill

The laboratory vibrating mill generates high-frequency vibrations through the rotation of eccentric blocks, causing the samples and grinding balls inside the grinding tank to collide and rub against each other, achieving the effects of crushing and mixing. It is used for particle size reduction and homogenization treatment of materials such as coatings and plastics, and is suitable for small-batch sample pre-treatment in laboratories.
Selection
When selecting, pay attention to the material of the grinding jar, which must match the characteristics of the sample. Stainless steel jars are corrosion-resistant, while polyurethane jars prevent metal contamination. Determine the ratio of grinding balls based on the hardness of the sample, with larger diameter balls used for harder materials. Choose the jar capacity according to the processing volume, with common sizes ranging from 100ml to 1000ml. Vibration frequency affects efficiency, and a standard model with up to 1400 cycles per minute can meet the needs of most materials.

Terms

Standards

Instruments

With 10L Processing capacity and 0.1μm discharge accuracy, four-station design and 580rpm Rotation speed, support wet and dry grinding and vacuum grinding, configuration 600CFM cooling system and a variety of materials ball mill Tank optional, good grinding conformity.

$ 2600.00

Maximum feed size 2mm, minimum discharge particle size 0.1um, support dry grinding wet grinding vacuum grinding and other methods, equipped with a variety of materials ball mill Tank, can control Rotation speed and time to ensure grinding Repeatability.

$ 7147.00

360 degree tumbling structure combined with planetary disk swirl/spin, maximum Processing capacity 80L, minimum discharge particle size 0.1μm, support dry grinding, wet grinding, vacuum and other grinding methods, equipped with a variety of materials ball mill Tank to adapt to different samples.

$ 14482.00

Adopt core noise reduction technology, low vibration and low noise; Processing capacity up to 4000ml, discharge particle size up to 0.1μm; Support dry grinding, wet grinding, vacuum grinding and other grinding methods, simple operation and easy maintenance.

$ 1826.00

Using 1400rpm speed regulation and 1.5 liters effective volume sand grinding basket, rapid dispersion and grinding are achieved through tensile shear and Impact between sand and material, and the operation is simple.

$ 574.00

Rotation speed of the ball mill can reach 1100rpm, the minimum discharge particle size is 0.1μm. It supports dry and wet milling and various material Tanks, and the grinding is uniform and efficient.

$ 2233.00

Set dispersion and sand grinding functions in one, complete two processes in a single container, speed range 130~ 3000rpm, grinding basket size Φ 80x60mm, high efficiency and easy to clean.

$ 1413.00

Adopting the principle of planetary motion, the grinding time only takes 15-20 minutes, the discharge particle size reaches 0.1 micron, supports dry grinding, wet grinding, vacuum grinding and other methods, and is equipped with a 200CFM heat dissipation system and a low center of gravity design to ensure stable operation.

$ 1573.00

With 8L Processing capacity and 0.1μm discharge particle size, four-station design and 580rpm Rotation speed, support dry grinding, wet grinding and vacuum grinding, equipped with 600CFM cooling system and a variety of ball milling Tank material selection.

$ 2453.00

Core noise reduction technology is used to reduce operating noise. The rotation ratio of planetary disk and ball mill Tank is 1:2 to pRoduce a strong crushing force. The maximum Processing capacity is 6000ml and the discharge fineness is up to 0.1μm. It supports various grinding methods such as dry and wet grinding.

$ 1939.00

Double Tank grinding design, vibration speed 60-1800rpm, discharge particle size up to 5~ 10μm, support dry grinding, wet grinding and low temperature grinding, suitable for heat sensitive materials and minimal liquid nitrogen consumption.

$ 5540.00

With 12L maximum Processing capacity and four station design, support dry grinding, wet grinding and vacuum grinding in various ways, the minimum discharge particle size is 0.1 μm, using frequency converter and motor drive to ensure grinding conformity and efficient heat dissipation.

$ 2673.00

Rotation speed up to 900rpm, discharge particle size minimum 0.1um, with forward and reverse alternating operation and intermittent grinding function, support vacuum grinding and inert gas protection, more than ten kinds of material grinding Tank to ensure no pollution.

$ 2269.00

The total grinding volume is 100L, and the maximum can be configured with 4 25L ball milling cans; with dry grinding, wet grinding, vacuum grinding and other grinding methods; using the principle of planetary motion, grinding ball high-speed collision friction material; the core components choose high-quality inverters and motors, stable and durable performance.

$ 11841.00

The double Tank design is used to achieve high-throughput grinding, the vibration speed is adjustable from 60 to 1800rpm, and the discharge particle size is 5 to 10 μm. It supports dry grinding, wet grinding and low temperature grinding, and effectively protects the molecular structure of heat-sensitive materials.

$ 5697.00

Articles

Selection of laboratory grinders is based on the fineness requirements of coatings, choosing between ball mills or sand mills.
The selection of a laboratory grinder should be based on the fineness requirements of the coating. A fineness greater than 50 microns indicates coarse dispersion, 10 to 50 microns is considered medium fineness, and less than 10 microns requires high fineness dispersion.
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This article introduces the process of using a three-roll mill to handle high-viscosity inks. It first explains that the equipment utilizes three rollers rotating at different speeds to grind materials through shearing and squeezing actions, making it suitable for high-viscosity systems.
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This article explores the impact of the coupled effects of temperature, humidity, and vibration in a three-comprehensive test chamber on the structural fatigue of products. It explains how such a coupled environment accelerates the degradation of material performance, such as high temperature and humidity reducing the material's fatigue limit, while vibration promotes crack propagation.
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For electromagnetic vibration tables, whether to choose sweep frequency or fixed frequency testing standards for simulating transportation is crucial; do not make a random selection if you are unsure.
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