Pulp ball mill

The pulp ball mill achieves fiber fibrillation and brushing through the impact and friction between steel balls and pulp inside the drum. It is used for adjusting beating degree and improving fiber morphology, and is employed in papermaking laboratories to process samples such as chemical pulp and mechanical pulp.
Selection
Select the drum volume based on processing capacity, match the steel ball material with the fiber type, observe the matching degree between rotation speed and pulping effect, check temperature control accuracy, confirm safety protection devices, and compare energy consumption with maintenance cycles.

Terms

Standards

Instruments

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

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

Rotation speed of the ball mill can reach 850rpm, the minimum discharge particle size can reach 0.1μm. It supports dry grinding, wet grinding and other grinding methods, and has adjustable speed rolling and intermittent operation functions.

$ 2379.00

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

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

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

The equipment adopts a combined structure for easy maintenance, and is equipped with a 200CFM heat dissipation system and a low center of gravity design to ensure stable operation. The maximum Processing capacity is 60L, the minimum discharge particle size is 0.1μm. It supports four ball mill Tank stations and various grinding modes.

$ 10374.00

360 ° tumbling structure combined with planetary disk swirl/spin, maximum Processing capacity 16L, support dry and wet grinding vacuum grinding, can reach 0.1 μm discharge particle size, with a variety of ball mill Tank material and grinding mode selection.

$ 5798.00

The 360 ° tumbling structure combined with the overall movement of the planetary disc and the ball mill can achieve stronger friction and impact energy; the maximum Processing capacity is 4000ml, and the minimum discharge particle size can reach 0.1μm. It supports dry grinding, wet grinding and other grinding methods to improve sample uniformity and efficiency.

$ 2453.00

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

360 ° tumbling structure combined with planetary disk swirl/spin, maximum Processing capacity 10L, minimum discharge particle size 0.1μm, support dry grinding wet grinding and other methods, can be equipped with a variety of materials ball mill Tank, easy to operate and with power protection function.

$ 4037.00

Processing capacity up to 100L, minimum discharge particle size 0.1μm, support dry grinding wet grinding vacuum grinding and other methods, equipped with a variety of materials ball milling Tank to meet different material needs.

$ 17416.00

Measurement range 0~ 100 ° SR, overflow discharge time 149 +/- 1s, using national standard design, can accurately detect Pulp suspension filtration rate.

$ 1171.00

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

Measurement range 0~ 100 ° SR, overflow discharge time 149 +/- 1 seconds, cone rising speed 100 +/- 10mm/s, used to detect Pulp suspension filtration rate, in line with ISO 5267-1 international standards.

$ 1340.00

Articles

Total Chlorine Content Microcoulometric Titration Detector for Pulp
This article introduces a method for detecting the total chlorine content in pulp using a microcoulometric titrator. The principle involves generating a titrant through electrolysis, which reacts with chloride ions produced from the combustion of the sample. The chlorine content is accurately calculated by monitoring the amount of electricity consumed.
Use of Muffle Furnace for Ash Determination in Pulp Inorganic Matter Testing
This article introduces the application of the ash determination muffle furnace in the detection of inorganic substances in pulp. The muffle furnace removes organic matter in the sample through high-temperature combustion, and the remaining inorganic residue, known as ash, is used to analyze the content of fillers and metal ions in the pulp.
Conductivity meter measures the conductivity of water extract from pulp.
This article introduces the method of measuring the electrical conductivity of pulp water extracts using a conductivity meter. Electrical conductivity reflects the content of soluble ions in pulp, which is used to evaluate washing effectiveness and the impact of water quality.
Determination of dry matter content in pulp using an electric thermostatic drying oven.
This article introduces the method for determining the dry matter content of pulp using an electric thermostatic drying oven. Dry matter content is a key indicator for evaluating pulp quality. The principle of determination involves evaporating the moisture in the pulp through heating and calculating the content based on the mass difference before and after drying.
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.
Application of Dry Pulp Zero-Span Tensile Strength Tester
The dry pulp zero-span tensile strength tester is a device used to measure the intrinsic strength of pulp fibers. It directly determines the tensile properties of fibers by clamping and stretching them to the point of rupture at an extremely close distance, thereby avoiding the influence of fiber length and bonding forces.
Zero-span tensile strength tester measures the tensile strength of wet pulp.
This article introduces the method of measuring the tensile strength of wet pulp using a zero-span tensile strength tester. Traditional testing is often conducted after the pulp is dried, but testing in the wet state can more directly reflect the bonding potential between fibers.
Canadian Standard Freeness Tester for Measuring Pulp Drainage Performance
The Canadian Standard Freeness Tester is used to measure the drainage properties of pulp, which is an important indicator for evaluating pulp quality. Based on the principle of gravity filtration, the instrument measures the drainage rate of pulp suspension under standard conditions to determine the freeness value.
Application of Valley Beater in Pulp Laboratory Beating
The Valley beater is a device used in laboratories to simulate industrial beating processes. It modifies the morphology of pulp fibers through mechanical action, thereby influencing paper properties. During operation, parameters such as beating pressure, pulp consistency, and beating time must be controlled, with the beating degree serving as a quantitative measure of the effect.
Standard Method for Determining the Beating Degree of Pulp Using a PFI Mill
This article introduces the standard method for measuring the degree of pulp beating using a PFI mill. The beating degree is a key indicator of the extent of pulp fiber processing and directly affects paper quality.
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.
Application of UV Spectrophotometer in the Determination of Lignin in Pulp
This article introduces the application of ultraviolet spectrophotometry in determining the lignin content in pulp. Lignin is a key component affecting pulp quality. This method utilizes the characteristic absorption of lignin under ultraviolet light for measurement, offering simple and rapid operation.
Determination of Chromaticity Value of Pulp by Spectrophotometry
This article introduces the method for determining pulp chromaticity using spectrophotometry. It first explains the importance of chromaticity for pulp quality, then details the basic principles of spectrophotometry, which quantifies color by measuring the reflection of light from the pulp, typically expressed using the CIELAB color system.
Application of Zero-Span Tensile Strength Tester in Pulp Strength Evaluation
The zero-span tensile strength tester measures the tensile strength of materials at an extremely short clamping distance, directly reflecting the inherent strength of the pulp fibers themselves, eliminating interference from factors such as fiber bonding.
Common Errors and Avoidance Methods in the Measurement of Pulp Beating Degree
In the measurement of pulp beating degree, errors primarily stem from instrument condition, operational procedures, sample handling, and environmental factors.