Micron sieve

Micron sieves separate particles through mesh apertures and are used in industries such as coatings and inks to measure particle size distribution, control product fineness, and ensure material uniformity.
Selection
When selecting a micron sieve, considerations should include the corrosion resistance of the sieve material, the precision of the aperture matching the sample, the stability of the frame structure, and compliance with standard specifications. The mesh size range should be determined based on the actual particle size and application requirements.

Terms

Standards

Instruments

Equipped with 45μm sieve and 70rpm Rotation speed, it is suitable for powders or particles dispersed in water, providing stable screening performance and easy and reliable operation.

$ 3107.00

Vibration frequency up to 6000 times/min, amplitude 0-3mm continuous adjustment, support subtle, intermittent and continuous three vibration modes, reduce operating intensity and improve efficiency.

$ 1157.00

With 3000 times/min and 6000 times/min two vibration frequencies, the amplitude can be continuously adjusted between 0mm and 3mm, supporting three modes of subtle vibration, intermittent vibration and continuous vibration, suitable for ≤ 325 mesh material analysis.

$ 811.00

Provides 13.7 micron wet film thickness, optional wide-wound and molded design, 12.7mm diaMeter, 300mm application width, stainless steel material, durable and easy to operate.

$ 186.00

The extrusion process ensures accurate 16 micron wet film thickness, the stainless steel is durable and provides 300 mm application width for efficient sample preparation.

$ 160.00

Wire-wound design can be prepared 160 micron wet film thickness, corrosion resistant stainless steel material, suitable for high viscosity test and not easy to block, longer service life.

$ 160.00

The formed pRoduction process ensures uniform film, provides 47 micron accurate wet film thickness, 304 stainless steel material is durable and easy to clean, suitable for a variety of Coating sample prepative.

$ 120.00

Spreader 64.0 micron wet film thickness, formed pRoduction process and stainless steel material, total length 400mm application width 300mm, durable and Spreader uniform.

$ 160.00

Suitable for preparing 12 micron wet film thickness in high grade wear resistant stainless steel for soft materials such as paper, Spinning & weaving to ensure uniform coating and long service life.

$ 100.00

Can be prepared 20 micron wet film thickness, total length 240mm, stainless steel material winding to form a groove control coating, suitable for soft materials such as paper and Spinning & weaving pRoducts.

$ 100.00

It can be prepared with 15 micron wet film thickness and a total length of 240mm. It is made of stainless steel and is wear-resistant and durable. It is suitable for Spreader testing of soft materials such as paper, Spinning & weaving pRoducts.

$ 100.00

Can be prepared 80 micron wet film thickness, stainless steel material wire-wound design, wear-resistant and durable, suitable for soft materials such as paper and Spinning & weaving pRoducts, to ensure uniform and accurate coating.

$ 100.00

Can be prepative 9.1 micron wet-film, application width 300mm, using formed pRoduction process, suitable for ultra-thin Spreader process, high accuracy.

$ 160.00

Spreader formed process to ensure uniform, can accurately control 80 micron wet film thickness, diaMeter 10mm with 304 stainless steel material to achieve durable and easy to clean, continuous wire design to improve operating efficiency.

$ 157.00

It can be prepared with 100 micron wet film thickness and uses stainless steel wire-wound structure, which is suitable for soft materials such as paper and Spinning & weaving pRoducts to ensure uniform and accurate coating.

$ 114.00

Articles

Laboratory rod coater for submicron wet film preparation of photoresist.
This article introduces the process of using a laboratory bar coater to prepare submicron wet films of photoresist.
Application of Desktop Viscometer Cups in Batch Sample Screening at Quality Inspection Centers
This article introduces the application of desktop viscosity cups in batch sample screening at quality inspection centers. Viscosity cups estimate viscosity by measuring the outflow time of fluids, making them suitable for rapid screening.
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.
Bauer-McNett Classifier Method and Fiber Fractionation Principle of Pulp Fiber Classifier
The Bauer-McNett classifier is a standard method that separates fibers by length and morphology through the sequential screening of pulp suspensions using sieves with different aperture sizes.
The role of the screening analyzer in pulp fiber morphology analysis
The screening analyzer separates pulp fibers through standard sieves to analyze their length distribution. Morphological parameters such as fiber length and coarseness directly affect paper properties like strength and bulk.
Sieve Residue Analyzer and Sieve Analysis for Determining Pigment Particle Size Distribution
This article introduces how the sieve residue analyzer measures the particle size distribution of pigments through mechanical sieving.
Scraper Fineness Gauge for Determining the Fineness of Paste Inks
The Scraper Fineness Gauge is used to measure the dispersion degree of pigment particles in products such as paste inks. Its principle involves scraping a film on a scraper plate with wedge-shaped grooves and observing the scale at which particles appear to assess the fineness, with the result expressed in micrometers.
The role of the coating machine in the preparation of fuel cell membrane electrode assemblies
The film coating machine is a key equipment for preparing the membrane electrode, the core component of fuel cells. It evenly coats a catalyst-containing slurry onto a substrate using techniques such as blade coating, slot-die extrusion, or spraying, forming a catalytic layer ranging from a few micrometers to several tens of micrometers in thickness.