Test Tube Disperser

The tube disperser uses a high-speed rotating dispersion disc to generate shear force, breaking up and mixing sample particles in the liquid. It is used in laboratories for the uniform dispersion and emulsification of materials such as coatings and inks, and is suitable for small-batch sample preparation and quality control processes.
Selection
Match motor power based on sample viscosity and processing capacity, select contact components considering material corrosion resistance, determine speed range according to dispersion precision requirements, choose fixture type based on operational convenience, and determine equipment durability by referencing daily usage frequency.

Terms

Instruments

Suitable for inner paper tube testing with an outer diaMeter of 400mm, with a capacity of 500kg and an adjustable speed of 10-80mm/min, it automatically judges the crushing force and supports data printing function.

$ 1727.00

Double shell structure with Air-Cooled system to achieve rapid cooling, 51 program temperature control system to ensure +/- 1 ℃ accuracy, the highest Operating temperature of 1700 ℃ and equipped with corundum tube to ensure high temperature Stability.

$ 3640.00

Equipped with 40 0.2ml independent tube positions, compatible with 8 * 0.2 tubes, high-quality materials are used to ensure sample safety and easy operation.

$ 127.00

Double shell structure with cold air system to achieve rapid cooling, 51 program temperature control system to ensure +/- 1 ℃ accuracy, the highest Operating temperature of 1700 ℃, corundum Furnace tube high temperature performance.

$ 4543.00

The 54-hole design is suitable for 0.5ml centrifuge tube, with a maximum temperature tolerance of 100 ° C. A variety of thermostatic modules can be selected to achieve accurate temperature control to meet various experimental needs.

$ 148.00

Support 100 ℃ high temperature heating, suitable for 24 holes 5ml centrifuge tube, optional electronic ice box and thermostatic metal Bath module, achieve precise temperature control and diverse Sample Handling.

$ 175.00

U-tube countercurrent design, viscosity measurement range of 200-1000cSt, accurate measurement based on the principle of liquid flow time in capillary tubing is proportional to viscosity.

$ 461.00

U-tube countercurrent design, Measurement range 20-100cSt, based on the principle of liquid flow time in capillary tubing is proportional to viscosity to ensure measurement accuracy and Repeatability.

$ 461.00

U-tube countercurrent design, according to BS/IP/RF standard, viscosity measurement range covering 600 to 3000cSt, based on the principle of capillary method to ensure that the liquid flow time in the upright tube is proportional to the kinematic viscosity.

$ 461.00

U-tube countercurrent design, viscosity measurement range 0.6-3 cSt, accurate determination of liquid kinematic viscosity based on capillary tubing principle, suitable for a variety of liquid samples.

$ 461.00

Using U-tube vibration principle, only 2-3ml sample can complete the measurement, measurement Precision up to +/- 0.0008g/cm ³, built-in Peltier temperature control device to ensure temperature control accuracy.

$ 7625.00

U-shaped tube design, viscosity measurement range of 200-1000cSt, based on the principle of capillary tubing can accurately determine the kinematic viscosity of liquids at constant temperature.

$ 461.00

U-shaped tube structure, viscosity measurement range of 20-100cSt, based on the liquid flow time in capillary tubing is proportional to the viscosity principle, to ensure accurate and reliable measurement.

$ 461.00

U-shaped tube design, viscosity measurement range of 0.9~ 3cSt, based on the liquid flow time in capillary tubing is proportional to the viscosity principle, suitable for a variety of liquid sample determination.

$ 461.00

U-shaped tube structure design, viscosity measurement range covering 600 to 3000cSt, High Accuracy liquid viscosity measurement based on capillary tubing principle, easy and reliable operation.

$ 461.00

Articles

When selecting a laboratory disperser, it is essential to evaluate the dispersion capacity and the speed range.
When selecting a laboratory disperser, it is crucial to evaluate the dispersion capacity and speed range. The dispersion capacity should be determined based on parameters such as material viscosity and solid content to avoid uneven dispersion or localized overheating caused by excessive or insufficient capacity.
Capacity Matching for Laboratory Small Dispersers and Pilot Dispersers
This article primarily discusses how to select the appropriate disperser for laboratory research and process development.
Laboratory dispersers achieve efficient dispersion of paint pigments.
This article introduces how laboratory dispersers efficiently disperse paint pigments. They break up pigment agglomerates through mechanical actions such as shear force, involving three stages: wetting, dispersing, and stabilizing.
Selection of disperser speed range and matching of dispersing disc form with container
This article discusses the technical points in the selection of a disperser, including the speed range, the form of the dispersion disc, and the matching with the container.
The impact of the disperser impeller structure on dispersion effectiveness.
This article mainly discusses how the impeller structure of a disperser affects the dispersion effectiveness. The impeller is the core component of a disperser, and its design directly influences the uniformity and stability of the final mixture.
Application of High-Speed Disperser in the Preparation of Water-Based Inks
This article introduces the application of a high-speed disperser in the preparation of water-based inks. It first explains the working principle of the equipment, which involves generating shear forces through high-speed rotation to disperse particles.