Asphalt fiber disperser

The asphalt fiber disperser breaks up fiber clumps in asphalt samples through mechanical shearing and fluid impact, forming a uniform suspension. It is used to detect the distribution state of fibers in asphalt mixtures, ensuring the representativeness of experimental samples, and is applied in road engineering material laboratories for fiber content determination.
Selection
When selecting, consider matching the sample processing capacity with the container volume, confirm the shear strength range based on the fiber type, check whether the temperature control system meets the requirements of the experimental environment, verify that the power supply specifications are compatible with the laboratory's electrical distribution, and confirm the maintenance cycle and access channels for consumables.

Terms

Standards

Instruments

It adopts copper ring and steel ball structure, supports 2-3.55 gram steel ball configuration, and accurately determines the softening temperature of the material through the drop distance of 25.4 mm, which is suitable for all kinds of asphalt experiment needs.

$ 122.00

Ceramic fiber Furnace to achieve multi-faceted heating, Temperature uniformity less than +/- 5 ℃, heating rate ≥ 10 ℃/min, with nitrogen filling device to slow down oxidation and flue discharge of harmful gases.

$ 1937.00

Adopting frequency conversion stirring technology, the impeller Rotation speed can be adjusted from 1000-3600rpm, and supports two test modes of counting and not counting to ensure that the fiber retains its original structural properties during the wet dissociation process.

$ 2073.00

Pottery and porcelain fiber Furnace and multi-faceted heating technology, Temperature Fluctuation +/- 2 ℃, energy saving rate of 40%, with 30 program settings and over-temperature protection function.

$ 2744.00

Using electronic technology and LCD screen, impeller rotation frequency 49 +/- 1.5S-1, motor power 370W, wet dissociation pulp to maintain the original fiber structure, easy to operate.

$ 1542.00

The samples were treated by acid-base cooking method, and 6 samples could be measured each time. The repeatability error of the absolute value of crude fiber content below 10% did not exceed 0.4%, and the determination time was about 100 minutes.

$ 912.00

Measurement range of 50~ 7600 μm, error +/- 3%, suitable for thick soft coatings such as polyurea and asphalt neoprene, providing accurate thickness detection.

$ 3226.00

Ceramic fiber material, Temperature range, Temperature Fluctuation +/- 0.5 ℃, support multi-stage programmable control, independent temperature limit alarm system to ensure safe operation.

$ 2466.00

Pottery and porcelain fiber Furnace to achieve multi-faceted heating, temperature uniformity +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 programming and double over-temperature protection function.

$ 1661.00

Pottery and porcelain fiber Furnace and multi-faceted heating technology, temperature uniformity +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 programming and over-temperature protection function, energy saving rate of 40%.

$ 4737.00

Pottery and porcelain fiber Furnace and multi-sided heating technology, temperature uniformity +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 program programming and over-temperature protection function, significant energy saving.

$ 1661.00

Pottery and porcelain fiber Furnace to achieve multi-sided heating, temperature uniformity +/- 2 ℃, 30 program control, heating rate 1-30 ℃/min adjustable, with over-temperature protection and automatic thermostatic function.

$ 1342.00

Pottery and porcelain fiber Furnace to achieve multi-sided heating, temperature uniformity of +/- 2 ℃. Support 1-30 ℃/min adjustable heating rate, with 30-stage programming and double over-temperature protection function, accurate and stable temperature control.

$ 2197.00

Pottery and porcelain fiber Furnace to achieve multi-faceted heating, temperature uniformity +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 programming and double over-temperature protection function.

$ 1285.00

Made of ceramic fiber, with high temperature resistance up to 400 ° C, liner size 450 × 450 × 450mm, 7 sets of 63-step programmable control and independent temperature limit alarm system, simplify the experimental process and ensure safe operation.

$ 2891.00

Articles

Extended Application of Paper Water Absorption Tester in the Dispersibility Evaluation of Tissue Paper
This article explores how to extend the application of an instrument originally used for testing the water absorption capacity of paper to evaluate the dispersibility of tissue paper.
Study on the Dispersion Uniformity of Blade Coating Machines in High-Load Electrode Slurry Coating
This article investigates how to optimize the dispersion uniformity of coatings by adjusting process parameters when using a blade coater to handle high-load electrode slurries.
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.
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.
How to Match the Selection of Fineness Gauge with Grinding Process Requirements
The fineness gauge is used to measure the particle dispersion of materials such as slurries and coatings, reflecting the particle size distribution through the depth of grooves on its surface.
Laser particle size analyzer measures the particle size distribution of spray powder.
Laser particle size analyzers measure the particle size distribution of sprayed powder based on the principle of light scattering, which is critical for coating uniformity and adhesion. During measurement, the powder must be dispersed in a suitable medium to avoid agglomeration, and tests should be repeated to ensure accuracy.
Operating Specifications and Result Interpretation of Paint Fineness Gauges
The fineness gauge is used to measure the dispersion of particles in paint. During operation, the sample should be applied to the groove under standard conditions, and a scraper is used to spread it evenly to form a wet film. The particle visibility is then observed under appropriate lighting, and the fineness value is read from the corresponding scale.
The laboratory pulp wet disintegrator is used for pulp disintegration treatment.
The laboratory pulp wet disintegrator is a device used to simulate the industrial pulping process. It disperses pulp fibers into individual fibers or small fiber bundles through mechanical action, while simultaneously promoting fiber swelling and fibrillation, thereby providing standardized samples for subsequent performance evaluation.
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.
Ink fineness gauge measures the dispersion degree of pigment particles.
The fineness of grind gauge is a method used to evaluate the dispersion level of pigment particles in ink.
Comparison of Pigment Fineness Dispersion between Flat Grinding Mill and Sand Mill