Combined structure for water and mud discharge and fine ore recovery at bottom of inclined shaft
By setting up a combined structure of ditches, powder ore sedimentation tanks, mud sedimentation tanks and bottom well water silo in the inclined shaft, efficient recycling of powder ore and safe discharge of mud water are achieved, and the problems of powder ore waste and underground pollution in the existing technology are solved, the construction process is simplified and the cost is reduced.
Patent Information
- Application Number
- CN202422474247.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-14
- Publication Date
- 2025-07-22
- Estimated Expiration
- 2034-10-14
AI Technical Summary
The prior art has problems such as manual cleaning, high mechanization and high interference in various processes in the treatment of powder ore and mud water in inclined shafts, resulting in waste of powder ore and underground pollution, which poses safety hazards.
A combined structure of inclined shaft bottom drainage and powder ore recovery is designed, including ditches, powder ore sedimentation tanks, mud sedimentation tanks, bottom water silo and tunnel repair machines. The three-level precipitation and comprehensive utilization of powder ore and mud water are realized through the tunnel upstream structure. The dust ore is shoveled to the upper and middle section ore silo, and the mud is discharged to the goaf or ground through the closed mud silo.
It realizes efficient recycling of powder ore and safe discharge of mud water, simplifies construction technology, reduces investment costs, improves production efficiency, and avoids underground pollution and safety hazards.
Smart Images

Figure CN223136201U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of underground inclined shaft sludge discharge, in particular to a combined structure for drainage, sludge discharge and fine ore recovery at the bottom of an inclined shaft. Background Technique
[0002] When using an inclined shaft to hoist ore in an underground mine, there will always be some crushed ore or ore powder mixed with a part of slurry or muddy water, which will inevitably be scattered in the inclined shaft during the ore discharging process. Therefore, after ore discharging for a period of time, a certain amount of fine ore and slurry water will accumulate in the inclined shaft. If not cleaned, on the one hand, it will cause waste of fine ore, and on the other hand, the slurry water will cause underground pollution, and over time, it will cause a safety hazard of the inclined shaft being flooded.
[0003] Generally, for the treatment of fine ore and slurry water in an inclined shaft, methods such as manual cleaning of fine ore slurry and water pump drainage, or cleaning with an electric scraper, a loader, a mucking machine and water pump drainage, or single air pressure tank sludge discharge, and jet pump sludge cleaning and water pump drainage are usually adopted. Traditional methods either have a simple method but are difficult and inefficient for manual cleaning, or have a high degree of mechanization but a large investment, are restricted by site conditions and are not conducive to large-scale mechanized operations, and the interference between the processes of cleaning fine ore, slurry and drainage is large, and the ideal effect cannot be achieved, bringing many adverse factors to subsequent production. Content of the Utility Model
[0004] The technical problem to be solved by the utility model is to overcome the defect that the existing manual and mechanical operations cannot achieve the ideal effect and bring many adverse factors to subsequent production, and provide a combined structure for drainage, sludge discharge and fine ore recovery at the bottom of an inclined shaft.
[0005] The technical solution adopted by the utility model to solve its technical problem is a combined structure for drainage, sludge discharge and fine ore recovery at the bottom of an inclined shaft, including an inclined shaft. There are ore bins and fine ore treatment chambers on both sides of the inclined shaft, and there is a fine ore trolley in the inclined shaft. There is fine ore and slurry water in the ore bin. A water channel, a fine ore sedimentation tank, a slurry sedimentation tank and a bottom water sump are arranged in the inclined shaft. The fine ore sedimentation tank, the slurry sedimentation tank and the bottom water sump are located at the bottom of the inclined shaft from right to left in sequence. The water channel is communicated with the fine ore sedimentation tank. The fine ore treatment chamber is arranged on the side of the fine ore sedimentation tank, and there is a roadway repair machine in the fine ore treatment chamber.
[0006] The fine ore and slurry water flow into the fine ore sedimentation tank through the water channel for primary sedimentation, the slurry water flows horizontally into the slurry sedimentation tank through the water channel for secondary sedimentation, and the slurry water flows horizontally into the bottom water sump through the water channel for tertiary sedimentation.
[0007] The roadway repair machine is equipped with a bucket which shovels powdered ore into the powdered ore trolley and transports it out of the inclined shaft. A sludge discharge tank and a sludge delivery pipe for transporting sludge to the outside are arranged in the sludge sedimentation tank. A water diversion device and a water diversion pipe for transporting water to the outside are arranged in the bottom sump.
[0008] Further, the powdered ore and sludge water in the ore bin flow into the powdered ore sedimentation tank through the water channel and undergo primary sedimentation in the powdered ore sedimentation tank. The powdered ore precipitates preferentially and is transferred to the powdered ore trolley by the bucket, and is lifted to the upper middle section ore bin or the ground by the powdered ore trolley for recovery.
[0009] Further, when the sludge water in the powdered ore sedimentation tank is full, it overflows and flows horizontally to the sludge sedimentation tank for secondary sedimentation. There is also a sealed mud bin chamber on the side of the inclined shaft. A steel sealed mud bin connected to the sludge delivery pipe is installed in the sealed mud bin chamber. The steel sealed mud bin is provided with a mud discharge pipe. The sludge is transported to the sludge delivery pipe, the steel sealed mud bin, and the mud discharge pipe in sequence through the sludge discharge tank, and the mud discharge pipe transports the sludge to the goaf or the ground.
[0010] Further, the steel sealed mud bin is also provided with a slag discharge pipe which is connected to a pipeline to discharge the remaining water and residues.
[0011] Further, the excess water in the sludge sedimentation tank flows horizontally into the bottom sump for tertiary sedimentation. There is also a pump chamber on the side of the inclined shaft. A pump is installed in the pump chamber. The pump is provided with a drain pipe. The water is transported to the drain pipe, the pump, and the drain pipe in sequence through the water diversion device, and the drain pipe discharges the water to the upper middle section sump or the ground.
[0012] Further, the connecting water channels of the powdered ore sedimentation tank, the sludge sedimentation tank, and the bottom sump adopt a roadway horizontal flow structure.
[0013] The utility model has the following beneficial technical effects:
[0014] The powdered ore is shoveled into the powdered ore trolley by the roadway repair machine and directly lifted to the upper middle section ore bin or the ground; the sludge is discharged to the stope for backfilling or directly to the ground through the sludge discharge tank via the steel sealed mud bin; the water is discharged to the upper middle section sump or directly to the surface through the pump. The utility model solves the problems of comprehensive utilization and discharge of powdered ore and sludge water generated during ore discharging from the ore bin in the inclined shaft. This construction process is simple, the process flow is clear and practical, the investment is small, the use is wide, and the effect is good. Description of the Drawings
[0015] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the combined structure of bottom drainage and sludge discharge and powdered ore recovery in the bottom of an inclined shaft of the utility model;
[0016] Figure 2It is a cross-sectional view of an embodiment of the combined structure of drainage, sludge discharge and fine ore recovery at the bottom of an inclined shaft of the present utility model;
[0017] Figure 3 It is a schematic structural diagram of a steel-sealed mud bin of an embodiment of the combined structure of drainage, sludge discharge and fine ore recovery at the bottom of an inclined shaft of the present utility model.
[0018] Explanation of reference numerals:
[0019] 1, Drainage ditch; 2, Fine ore sedimentation tank; 3, Mud sedimentation tank; 4, Bottom water sump; 5, Roadway repair machine; 6, Bucket; 7, Fine ore trolley; 8, Sludge discharge tank; 9, Mud delivery pipe; 10, Steel-sealed mud bin; 11, Mud discharge pipe; 12, Slag discharge pipe; 13, Water diversion device; 14, Water diversion pipe; 15, Water pump; 16, Drain pipe. Specific implementation manners
[0020] The present utility model will be further described in detail below with reference to the accompanying drawings and embodiments.
[0021] Refer to Figure 1 and Figure 2 This embodiment includes an inclined shaft. Ore bins, fine ore treatment chambers, sealed mud bin chambers and water pump chambers are arranged on both sides of the inclined shaft. In addition, there are a drainage ditch 1, a fine ore sedimentation tank 2, a mud sedimentation tank 3, a bottom water sump 4 and a fine ore trolley 7 in the inclined shaft. The drainage ditch is arranged on the surface of the inclined shaft. The fine ore sedimentation tank 2, the mud sedimentation tank 3 and the bottom water sump 4 are located at the bottom of the inclined shaft in sequence from right to left. And the drainage ditch is communicated with the fine ore sedimentation tank 2. The fine ore trolley 7 transports on the surface of the inclined shaft.
[0022] Refer to Figure 2 and Figure 3 The fine ore treatment chamber is arranged on the side of the fine ore sedimentation tank 2, and there is a roadway repair machine 5 in the fine ore treatment chamber. The roadway repair machine has a bucket 6; A steel-sealed mud bin 10 communicated with the mud delivery pipe 9 is installed in the sealed mud bin chamber. The steel-sealed mud bin 10 has a mud discharge pipe 11; A water pump 15 is installed in the water pump chamber. The water pump 15 has a drain pipe 16. In addition, the steel-sealed mud bin 10 also has a slag discharge pipe 12. The steel-sealed mud bin is made of steel and is generally fixedly installed in the sealed mud bin chamber at a slope of 30° - 45°. The slag discharge pipe is used to discharge the remaining water and residues and can be connected to other pipes as needed for easy cleaning.
[0023] Refer to Figure 1 and Figure 2, the powdered ore and slurry water in the ore bin flow into the powdered ore sedimentation tank 2 through the water channel 1, and primary sedimentation is carried out in the powdered ore sedimentation tank. The powdered ore precipitates first and is transported to the powdered ore trolley 7 by the bucket 6, and is lifted by the powdered ore trolley 7 to the upper middle section ore bin or the ground for recovery; when the slurry water in the powdered ore sedimentation tank 2 is full, it overflows and flows horizontally to the slurry sedimentation tank 3 for secondary sedimentation. The slurry is transported to the mud delivery pipe 9, the steel closed mud bin 10, and the mud discharge pipe 11 in sequence by the mud discharge tank 8, and the mud discharge pipe 11 transports the slurry to the goaf or the ground; the excess water in the slurry sedimentation tank 3 flows horizontally into the bottom water sump 4 for tertiary sedimentation, and the water is transported to the water diversion pipe 14, the water pump 15, and the drain pipe 16 in sequence by the water diversion device 13, and the drain pipe 16 drains the water to the upper middle section water sump or the ground.
[0024] The connecting water channel 1 of the powdered ore sedimentation tank 2, the slurry sedimentation tank 3 and the bottom water sump 4 adopts a roadway horizontal flow structure to ensure that the slurry water enters in a horizontal flow form.
[0025] The above are all preferred embodiments of the present invention, and the protection scope of the present invention is not limited thereby. Among them, the same parts are denoted by the same reference numerals. It should be noted that the terms "front", "rear", "left", "right", "upper" and "lower" used in the following description refer to the directions in the drawings, and the terms "inner" and "outer" refer to the directions towards or away from the geometric center of a specific component respectively. Therefore: all equivalent changes made according to the structure, shape and principle of the present invention should be covered within the protection scope of the present invention.
Claims
1. A combined structure for draining water and sludge and recovering fine ore at the bottom of an inclined shaft, comprising the inclined shaft. There are ore bins and fine ore treatment chambers on both sides of the inclined shaft, and a fine ore trolley (7) is provided in the inclined shaft. There is fine ore and slurry water in the ore bin. It is characterized in that, A drainage ditch (1), a fine ore settling pond (2), a slurry settling pond (3), and a sump (4) are arranged in the inclined shaft; the fine ore settling pond (2), the slurry settling pond (3), and the sump (4) are located at the bottom of the inclined shaft from right to left in sequence, and the drainage ditch (1) is communicated with the fine ore settling pond (2); the fine ore treatment chamber is arranged on the side of the fine ore settling pond (2), and a roadway repair machine (5) is provided in the fine ore treatment chamber; Fine ore and slurry water flow into the fine ore settling pond through the drainage ditch (1) for primary sedimentation, the slurry water flows horizontally into the slurry settling pond (3) through the drainage ditch (1) for secondary sedimentation, and the slurry water flows horizontally into the sump (4) through the drainage ditch (1) for tertiary sedimentation; The roadway repair machine (5) is equipped with a bucket (6), and the bucket (6) shovels and loads the fine ore into the fine ore trolley (7) and transports it out of the inclined shaft; a sludge discharge tank (8) and a sludge delivery pipe (9) for transporting the slurry to the outside are arranged in the slurry settling pond (3); a water diversion device (13) and a water diversion pipe (14) for transporting the water to the outside are arranged in the sump (4).
2. The combined structure for draining water and sludge and recovering fine ore at the bottom of an inclined shaft according to claim 1, wherein, The fine ore and slurry water in the ore bin flow into the fine ore settling pond (2) through the drainage ditch (1), and primary sedimentation is carried out in the fine ore settling pond. The fine ore is preferentially sedimented and transported to the fine ore trolley (7) by the bucket (6), and is lifted to the upper middle section ore bin or the ground by the fine ore trolley (7) for recovery.
3. The combined structure for draining water and sludge and recovering fine ore at the bottom of an inclined shaft according to claim 1, characterized in that, When the slurry water in the fine ore settling pond (2) is full, it overflows and flows horizontally to the slurry settling pond (3) for secondary sedimentation. There is also a sealed sludge bin chamber on the side of the inclined shaft. A steel sealed sludge bin (10) communicated with the sludge delivery pipe (9) is installed in the sealed sludge bin chamber. The steel sealed sludge bin (10) is provided with a sludge discharge pipe (11). The slurry is transported to the sludge delivery pipe (9), the steel sealed sludge bin (10), and the sludge discharge pipe (11) in sequence by the sludge discharge tank (8), and the sludge discharge pipe (11) transports the slurry to the goaf or the ground.
4. The combined structure for inclined shaft bottom drainage, sludge removal and fine ore recovery according to claim 3, characterized in that The steel sealed sludge bin (10) is also provided with a slag discharge pipe (12), and the slag discharge pipe (12) is connected to a pipeline to discharge the remaining water and residues.
5. A combined structure for draining water and sludge and recovering fine ore at the bottom of an inclined shaft according to claim 1, characterized in that, The excess water in the slurry settling pond (3) flows horizontally into the sump (4) for tertiary sedimentation. There is also a pump chamber on the side of the inclined shaft. A pump (15) is installed in the pump chamber. The pump (15) is provided with a drain pipe (16). The water is transported to the water diversion pipe (14), the pump (15), and the drain pipe (16) in sequence by the water diversion device (13), and the drain pipe (16) drains the water to the upper middle section water sump or the ground.
6. The combined structure for inclined shaft bottom drainage, sludge removal and fine ore recovery according to claim 1, characterized in that The connecting drainage ditch (1) of the fine ore settling pond (2), the slurry settling pond (3), and the sump (4) adopts a roadway horizontal flow structure.