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Wet Ball Mill for Ore Processing with Closed-Circuit System and High Capacity Grinding for Fine Slurry Output

Product Details

Place of Origin: CHINA

Brand Name: Staurk

Certification: CE ISO

Model Number: MQG

Payment & Shipping Terms

Minimum Order Quantity: 1

Price: 2000USD-16000USD

Packaging Details: Container or Bulk Cargo Ship or Flat Rack

Delivery Time: 30 days

Payment Terms: L/C,D/A,D/P,T/T,Western Union

Supply Ability: 30 sets

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Product Details
Highlight:

Closed-Circuit System Wet Ball Mill

,

High Capacity Grinding Ore Grinding Mill

,

Fine Slurry Output Mineral Processing Ball Mill

Product Description


wet ball mill for ore processing system


1. Product Introduction

In a modern Ore Processing System (mineral beneficiation line), the Wet Ball Mill serves as the heart of the grinding circuit. It bridges the gap between the crushing stage and the downstream separation stages (such as flotation, magnetic separation, or gravity concentration).

The mill takes crushed ore (typically under 25mm) and grinds it into a fine slurry by mixing it with water. Within a complete system, the wet ball mill does not operate alone; it is usually configured in a closed-circuit system with classification equipment like hydrocyclones or spiral classifiers. This ensures that under-ground particles are returned to the mill, while perfectly sized particles move onward to extract valuable minerals.


2. Working Principle

While wet grinding is common in metallic ore beneficiation, dry grinding offers distinct and irreplaceable advantages for specific mining plant operations:

  • No Moisture Contamination: Ideal for materials that react chemically with water, cake up when wet, or require a completely dry powder state for the next industrial phase (e.g., dry magnetic separation or cement production).

  • High Product Purity: Because there is no water to cause rust or accelerated chemical wear on the steel balls and liners, dry grinding can sometimes reduce certain types of fluid-based chemical contamination.

  • Integrated Air Classification: Dry ball mills are easily paired with air classifiers (wind separators). This setup creates a closed-circuit system that instantly draws out qualified fine powders, preventing over-grinding and ensuring a very narrow, controllable particle size distribution.

  • Savings on Drying Costs: If the final product must be a dry powder, using a dry mill eliminates the need for expensive, energy-consuming dewatering systems, filters, and rotary dryers downstream.

  • Minimal Environmental Impact from Wastewater: Since no water is used, mining plants do not need to build complex tailings dams or water treatment facilities to handle contaminated process water.


3. Industrial Line Advantages

The working principle of a dry ball mill relies on impact and attrition, assisted by a continuous air-flow system to move the dry powder through the machine.

Step-by-Step Process:

  1. Feeding: The completely dry, crushed mineral ore is fed into the first chamber of the rotating cylinder through a hollow shaft via a feeding device.

  2. Lifting & Impact (First Chamber): The inner lining of the cylinder features stepped or waved liners. As the cylinder rotates, centrifugal force lifts the grinding media (steel balls of larger diameters) to a certain height. The balls then fall down, exerting a heavy impact force to crush the larger ore pieces.

  3. Secondary Grinding (Second Chamber): The material passes through a monolayer partition board into the second chamber. This chamber is typically lined with flat liners and filled with smaller steel balls or steel segments. Here, the material is further ground by attrition (friction) and shearing forces into a fine powder.

  4. Air-Assisted Discharge: In dry grinding, a draft fan at the discharge end creates a negative pressure airflow. This air current draws the fine, airborne powder out through the discharge grate and hollow shaft, moving it toward an air classifier or cyclone collector to separate the qualified product from the coarse particles (which are returned for re-grinding).


4.Technical Specifications

Model Cylinder RPM
(r/min)
Ball Load Feeding Size
(mm)
Discharging Size
(mm)
Capacity (t/h) Motor Model Power (kW) Weight (t)
MQG600*1800 45.5 0.5 ≤10 0.074-0.5 0.2-0.5 Y160M-6 7.5 2.5
MQG900*1800 38 1.8 ≤20 0.074-0.6 0.8-2 Y180L-6 15 5.8
MQG900*3000 37.4 2.7 ≤20 0.074-0.3 0.8-3 Y200L2-6 22 7.5
MQG1200*2400 32 4.8 ≤25 0.074-0.6 1.5-4 Y225M-6 30 9.8
MQG1200*4500 30 5.2 ≤25 0.074-0.6 1.5-6 Y280S-6 45 13.2
MQG1300*4000 36 5.8 ≤25 0.074-0.6 2-6 Y280S-8 45 14.8
MQG1500*3500 28.8 8.3 ≤25 0.074-0.6 3-6 YR280M-8 90 17.6
MQG1500*4500 28.8 10 ≤25 0.074-0.4 4-8 JR125-8 95 22.3
MQG1500*5700 28.8 12 ≤25 0.074-0.4 5-10 JR126-8 110 26.7
MQG1500*6400 28.8 13 ≤25 0.074-0.4 8-12 JR127-8 130 29.2
MQG1830*3600 24.5 12 ≤25 0.074-0.4 5-10 JR127-8 130 31.4
MQG1830*5400 24.5 15 ≤25 0.074-0.4 5-20 JR137-8 210 33.6
MQG1830*6400 24.5 19 ≤25 0.074-0.4 6-25 JR137-8 210 36.5
MQG1830*7000 24.5 20 ≤25 0.074-0.4 8-30 JR138-8 245 39.6
MQG2100*3600 24.1 21 ≤25 0.074-0.6 8-20 YR355L1-8 210 43.2
MQG2100*4500 24.57 26 ≤25 0.074-0.6 8-35 JR138-8 280 53.6
MQG2200*3600 21.8 22 ≤25 0.074-0.6 9-25 JR138-8 245 47.8
MQG2200*4500 21.4 27 ≤25 0.074-0.6 10-30 JR138-8 280 54.7
MQG2200*7500 21.8 35 ≤25 0.074-0.6 10-40 JR158-8 380 68.4
MQG2200*9000 21.4 36 ≤25 0.074-0.6 10-45 JR1510-8 475 76.5
MQG2400*3600 21.26 26 ≤25 0.074-0.6 10-40 JR138-8 280 63.8
MQG2400*7000 21.8 36 ≤25 0.074-0.6 10-45 JR1510-8 475 82.4
MQG2400*8000 21.8 42 ≤25 0.074-0.6 13-50 JR630-8 560 85.7
MQG2400*10000 21 65 ≤25 0.074-0.6 15-60 YR560-8 710 88.6
MQG2600*8000 19.6 52 ≤25 0.074-0.6 16-70 JR1512-8 630 97.8
MQG2700*3600 21.4 39 ≤25 0.074-0.4 13-75 JR158-8 380 86.8
MQG2700*4500 21.4 43 ≤25 0.074-0.4 13-90 JR1510-8 475 91.8
MQG3000*5400 19 58 ≤25 0.074-0.6
TDMK-30 630 119.7
MQG3000*9000 18.3 78 ≤25 0.074-0.4 20-90 YR1000-8/1180 1000 152.4
MQG3000*11000 18 100 ≤25 0.074-0.6 30-90 YR6306-8 1120 166.7
MQG3200*3600 18.6 56.5 ≤25 0.074-0.6 20-80 YR6302-8 630 127.4
MQG3200*4500 18.6 65 ≤25 0.074-0.6 20-90 YR6302-8 800 138.6
MQG3200*5400 18 72 ≤25 0.074-0.6 30-100 YR1000-8 1000 146.7
MQG3200*9000 18 85 ≤25 0.074-0.6 30-100 YR6302-8 1250 168.6
MQG3600*4500 18 86 ≤25 0.074-0.6 30-100 YR6302-8 1250 158.7
MQG3600*6000 18 117 ≤25 0.074-0.6 45-180
14000 195.6
MQG4000*6000 16.9 145 ≤25 0.074-0.6 60-230
1800 221.7
MQG4500*6000 15.6 180 ≤25 0.074-0.6 80-300
2300 269.6


5.Our Solutions





Wet Ball Mill for Ore Processing with Closed-Circuit System and High Capacity Grinding for Fine Slurry Output 0



Wet Ball Mill for Ore Processing with Closed-Circuit System and High Capacity Grinding for Fine Slurry Output 1