Ball Mill for cement is an efficient tool for grinding many materials into fine powder. The Ball Mill is used to grind many kinds of mine and other materials, or to select the mine. It is widely used in building material, chemical industry, etc. There are two ways of grinding: The dry process and the wet process. It can be divided into grate grinding type and flowing type according to different forms of discharging material.
Ball Mill for cement Working Principle
This ball mill is horizontal type and tubular running device, has two warehouses. This machine is grid type and its outside runs along gear. The material enters spirally and evenly the first warehouse of the milling machine along the input material hollow axis by input material device. In this warehouse, there is a ladder scaleboard or ripple scaleboard, and different specification steel balls are installed on the scaleboard, when the barrel body rotates and t hen produces centrifugal force, at this time, the steel ball is carried tosome height and falls to make the material grinding and striking. After grinded coarsely in the first warehouse, the material then enters into the second warehousefor regrinding with the steel ball and scaleboard. In the end, the powder is discharged by output material board andthe end products are completed.
Ball Mill for Cement Range of Applications:
Ball mill is a mineral processing machine for milling the materials into powders after they are crushed. It is widely applied to the production of cements, silicate products, building materials, fireproof materials, fertilizers, glass, ceramics as well as nonferrous and ferrous metal processing industries. It could carry out dry and wet millings on different materials.
Ball Mill for CementWays of Improving Productivity:
In addition to manufacturing ball mill, we also carry our research on improving its productivity. Generally speaking, the productivity of ball mil can be improved by
1. Adding fine crusher before the ball mill.
2. Improving grinding system to achieve better grinding efficiency.
3. Adding powder concentrator.
Ball Mill for Cement Structural Features:
This ball mill is made up of feeding part, discharging part, gyre part, transmission part (transmission part includes reducer, small transmission gear, generator and electrical control) and so on. It enjoys features like good abrasive resistance, stable and reliable operation.
Inner structure of the ball mill is made up of lining plate, grate plate, diaphragm, feeding and discharging devices. The lining plate is used to protect the tank body in order to avoid the impact and abrasion from materials. Different types of lining plates can be used to adjust the movement of materials. Our lining plates are provided by Luoyang anti-abrasion academe and have a large share in the global market with their fine design.
Ball Mill for Cement Usage in Mineral Processing:
Minerals are firstly crushed by jaw crusher until they are crushed to suitable sizes. They are then equally fed to a ball mill with a hoister and a feeder. Later, they are further crushed and milled in the ball mill. Finally, fine minerals are classified by a spiral classifier with the principle that solid particles sink at different speeds in liquid.
Ball Mill for Cement Usage in Aerocrete Equipment:
Coal ash (or sand, stone powder) are conveyed to ball mill through electric vibrating feeder and rubber belt conveyor. Grinded coal ash (or sand, stone powder) is delivered to slurry tank for storage through a coal ash pump. Lime is conveyed to jaw crusher by electric vibrating feeder and rubber belt conveyor. The crushed lime firstly is stored in a limestone storage silo with a bucket hoister. Then, it is conveyed to ball mill through a spiral conveyor. Finally, fine grinded materials are delivered to stock bin through a spiral conveyor and a bucket lifter.
Ball Mill for Cement technical data
Specification (Dia×Length) |
Rotating speed (r/min) |
Feed size (mm) |
Capacity (t/h) |
Grinding media load (t) |
Main motor |
Main reducer |
Weight(t) |
Model |
Power(kw) |
Rotating speed (r.p.m) |
Model |
Reduction ratio |
φ2.2×11 |
20.91 |
≤25 |
15~17 |
50 |
TR1512-8 |
570 |
740 |
Zd80 |
5.6 |
92 |
φ2.4×8 |
20.91 |
≤25 |
14~18 |
39.5~42 |
TRQ1512-8 |
570 |
740 |
Zd80-9 |
5 |
76.4 |
φ2.4×9 |
20.91 |
≤25 |
23~25 Closed circuit |
50 |
TR1512-8 |
570 |
740 |
Zd80-9 |
5 |
91 |
φ2.4×10 |
20.91 |
≤25 |
16~22 |
50 |
TR1512-8 |
570 |
740 |
Zd80-9 |
5 |
111 |
φ2.4×11 |
21 |
≤25 |
Open circuit 19~24
Closed circuit 22~28 |
6265 |
YR710-8/1180 |
710 |
740 |
JDX630 |
5.6 |
125 |
φ2.4×12 |
21 |
≤25 |
Open circuit18~20
Closed circuit 21~23 |
6365 |
YR800-8/1180 |
800 |
740 |
MBY710 |
6.3 |
127 |
φ2.4×13 |
21 |
≤25 |
Open circuit21~22
Closed circuit 24~26 |
6668 |
YR800-8/1180 |
800 |
740 |
MBY710 |
6.3 |
131 |
φ2.6×10 |
20.6 |
≤25 |
21~24 |
64 |
YR800-8/1180 |
800 |
740 |
JDX710 |
6.3 |
140 |
φ2.6×13 |
20.6 |
≤25 |
28~31 |
81 |
YR1000-8/1180 |
1000 |
740 |
JDX800 |
6.3 |
158 |
φ3.0×9 |
19.13 |
≤25 |
40~45 |
85 |
YR1000-8/1180 |
1000 |
740 |
MBY800 |
7.1 |
148 |
φ3×11 |
18.92 |
≤25 |
44~47 |
95 |
YR1250-8/1430 |
1250 |
740 |
JDX900 |
7.1 |
177 |
φ3×12 |
18.92 |
≤25 |
48~52 |
103 |
YR1250-8/1430 |
1250 |
740 |
JDX900 |
7.1 |
182 |
φ3×13 |
18.92 |
≤25 |
39~45 |
116max |
YR1400-8/1430 |
1400 |
740 |
JDX900 |
7.1 |
200.7 |
φ3.2×11 |
18.3 |
≤25 |
45~48 |
112max |
YR1600-8/1430 |
1400 |
740 |
JDX900 |
7.15 |
213.6 |
φ3.2×13 |
18.7 |
≤25 |
50~55 |
133max |
YR1600-8/1430 |
1600 |
740 |
JDX1000 |
7.15 |
237 |
φ3.4×11 |
18 |
≤25 |
45~55 |
120max |
YR1600-8/1430 |
1600 |
740 |
JDX1000 |
|
230 |
φ3.5×13 |
17 |
≤25 |
60~65 |
156max |
YR2000-8/1730 |
2000 |
740 |
TS130-A-F1 |
|
257.6 |
φ3.8×13 |
17 |
≤25 |
65~70 |
185 |
YR2500-8/1730 |
2500 |
740 |
DMG22/2500 |
|
313 |
φ4×13 |
16.3 |
≤25 |
78~80 |
191 |
YRKK900-80 |
2800 |
745 |
JS140-A |
|
348 |
φ4.2×11 |
15.8 |
≤25 |
100~110 |
182~190 |
YR2800-8/17830 |
2800 |
740 |
JS140-A-F1D |
|
350 |
φ4.2×13 |
15.2 |
≤25 |
110~120 |
230 |
YRKK1000-8 |
3350 |
740 |
MFY355-A |
|
380 |
φ4.6×14 |
15 |
≤25 |
100~115 |
285 |
YR1000-8 |
4200 |
740 |
J3160-C |
|
485 |