Circulating sedimentation pool for zirconium-titanium mineral processing technology

Abstract

The utility model discloses a circulating sedimentation water tank for a zirconium-titanium ore dressing process, and relates to the technical field of zirconium-titanium ore dressing, the circulating sedimentation water tank comprises a device main body and a multi-stage ore dressing mechanism, the multi-stage ore dressing mechanism is arranged above the device main body, and zirconium-titanium ore shakes in a first-stage screening plate while the ore dressing tank is shaken; the zirconium-titanium ore is subjected to multi-stage screening, meanwhile, the small zirconium-titanium ore falls into the lower portion of the ore dressing pool, the situation that the small zirconium-titanium ore is washed away by water flow is reduced, ore pulp flowing water overflowing from the ore dressing pool is settled through the settling pool, and the ore pulp flowing water is separated from the ore dressing pool. The zirconium-titanium ore contained in the ore pulp can be better collected, and meanwhile, the zirconium-titanium ore is used for filtering and blocking water overflowing from the sedimentation tank, so that the condition that the zirconium-titanium ore is taken away by flowing water is further reduced; in this way, fine-particle minerals carried in water obtained after shaking table mineral separation or ore cleaning are fully subjected to classified sedimentation and then concentrated re-separation is conducted.

Description

Technical Field

[0001] The utility model relates to the technical field of zirconium-titanium ore dressing, in particular to a circulating sedimentation pool used in a zirconium-titanium ore dressing process. Background Art

[0002] Zirconium-titanium ore is an important mineral resource, mainly produced in the veins of igneous and metamorphic rocks, and is also commonly found in placer gold deposits. In the mining of ore, according to the physical and chemical properties of different minerals in the ore, the ore is usually crushed and ground, and then gravity separation, flotation, magnetic separation, electrostatic separation, etc. are used to separate useful minerals from gangue minerals in order to obtain the raw materials required for smelting or other industries. At the same time, the ore will also undergo a certain cleaning process during mining.

[0003] After searching, the patent number "CN210847397U" mentioned in the text that "the utility model discloses an ore cleaning device for mineral processing, including a bracket, a conveying device and a driving device are fixedly installed on the upper end of the bracket, the driving device is located on the right side of the conveying device, and a water spray device is fixedly installed on the upper and lower sides of the conveying device. The conveying device includes a conveying trough, and a rotating shaft is rotatably installed inside the conveying trough through a bearing. The number of rotating shafts is two, and the conveying trough extends from the right end of the rotating shaft. Rotary vanes are evenly fixedly installed on the circumferential outer surface of the rotating shaft, and the rotary vanes on the front and rear sides are staggered. A stirring rod is fixedly installed on the right surface of the rotary vane." It uses a stirring rod to increase the movement of the ore to improve the cleaning effect, but it will cause the ore to collide continuously and produce fine broken ore. Traditional mineral processing devices also use running water to process the ore, such as a shaking table. Although these devices can clean and select the ore, the constantly flowing water will drive the fine broken ore contained in the slurry together, resulting in fine-grained minerals being directly discharged with running water, resulting in a waste of resources.

[0004] To this end, we provide a circulating sedimentation tank for zirconium-titanium ore dressing process to solve the above problems. Utility Model Content

[0005] The purpose of the utility model is to provide a circulating sedimentation water tank for zirconium-titanium ore dressing process to solve the problems raised in the above background technology.

[0006] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: a circulating sedimentation water tank for zirconium-titanium ore dressing process, comprising a device body and a multi-stage ore dressing mechanism, wherein the multi-stage ore dressing mechanism is arranged above the device body;

[0007] The multi-stage mineral processing mechanism includes a shaking mineral processing mechanism, a buffer assembly, a lifting assembly and a screening assembly. The shaking mineral processing mechanism is arranged above the device body, the buffer assembly is arranged on the surface of the device body, the lifting assembly is installed on the outside of the shaking mineral processing mechanism, and the screening assembly is installed on the inside of the shaking mineral processing mechanism.

[0008] Preferably, the shaking beneficiation mechanism includes a beneficiation tank, a servo motor, an eccentric driving wheel and a rocker arm. The beneficiation tank is arranged above the device body, and a servo motor is installed on the left side of the top of the device body. The front end pin shaft of the servo motor is connected to the eccentric driving wheel, and the front end pin shaft of the eccentric driving wheel is connected to the rocker arm. The rocker arm is connected to the beneficiation tank by a rotating shaft.

[0009] Preferably, the buffer assembly comprises a rolling shaft and a buffer spring rod, the rolling shaft is installed on the surface of the device body, and the buffer spring rod is installed at the right end of the ore dressing tank.

[0010] Preferably, the lifting assembly includes a lifting mounting platform, an electric lifting rod and a screen connecting frame. The lifting mounting platform is welded at the front and rear ends of the ore dressing pool. The top of the lifting mounting platform is installed with an electric lifting rod, and the top slot of the electric lifting rod is connected to the screen connecting frame.

[0011] Preferably, the screening assembly includes a primary screening plate, a secondary screening plate and a screening bottom plate, the inner slot of the screen connecting frame is connected to the primary screening plate, a secondary screening plate is arranged below the primary screening plate, and a screening bottom plate is arranged below the secondary screening plate.

[0012] Preferably, a sedimentation assembly is arranged on the right side of the ore dressing tank, and the sedimentation assembly comprises a sedimentation tank, a water outlet mesh port and a material baffle plate. A sedimentation tank is arranged at the lower right side of the ore dressing tank, and a water outlet mesh port is opened at the front end of the sedimentation tank.

[0013] Preferably, a material baffle plate is provided at the inner front end of the sedimentation tank, and the material baffle plate is inclined inwards.

[0014] Compared with the prior art, the beneficial effects of the utility model are:

[0015] 1. Through the setting of multi-stage beneficiation mechanism, the water after beneficiation on the shaking table or after ore washing is introduced into the beneficiation pool, the servo motor is started to drive the eccentric driving wheel to rotate, and the beneficiation pool is driven to shake back and forth on the main body of the device through the rocker arm, so that the zirconium-titanium ore entrained in the running water is layered according to size, which is convenient for the classification of ore. The beneficiation pool is supported and assisted by the rolling shaft at the bottom, which is convenient for the shaking of the beneficiation pool. At the same time, the buffer spring rod provides tensile force when the beneficiation pool moves to the left, and provides thrust for buffering when it moves to the right. , while reducing the load on the servo motor, it has a certain shock-absorbing effect. While the ore dressing pool is shaken, the zircon-titanium ore shakes in the primary screening plate, and smaller ores fall from it and fall into the secondary screening plate for screening again. The zircon-titanium ore is screened at multiple levels, and smaller zircon-titanium ores fall into the bottom of the ore dressing pool at the same time, reducing the situation where the water flow washes away the smaller zircon-titanium ore. The electric-controlled lifting rod is started to drive the screen connecting frame to rise and fall in the ore dressing pool, driving the screening component to rise, thereby improving the convenience of collecting and taking the zircon-titanium ore.

[0016] 2. Through the setting of sedimentation components, the slurry water overflowing from the beneficiation tank is settled through the sedimentation tank to ensure that the zircon-titanium ore contained in the slurry can be better collected. At the same time, the water overflowing from the sedimentation tank is filtered and blocked by the zircon-titanium ore to further reduce the situation of the fine zircon-titanium ore being carried away by the running water. At the same time, the inclined baffle plate is used to block and protect the settled fine zircon-titanium ore to prevent it from flowing away with the running water. In this way, the fine-grained minerals carried in the water after the shaking table beneficiation or the ore washing are graded and settled, and then concentrated again for re-selection, thereby improving the mineralization recovery rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic diagram of the overall appearance structure proposed by the utility model;

[0018] Figure 2 This is a schematic diagram of the buffer assembly and buffer assembly structure proposed by the utility model;

[0019] Figure 3 This is a schematic diagram of the structure of the lifting assembly and the screening assembly proposed in the utility model;

[0020] Figure 4 This is a schematic diagram of the structure of the sedimentation component proposed in the utility model.

[0021] In the figure: 1. device body; 2. multi-stage mineral processing mechanism; 21. shaking mineral processing mechanism; 211. mineral processing tank; 212. servo motor; 213. eccentric driving wheel; 214. rocker arm; 22. buffer assembly; 221. rolling shaft; 222. buffer spring rod; 23. lifting assembly; 231. lifting installation platform; 232. electric lifting rod; 233. screen connecting frame; 24. screening assembly; 241. primary screening plate; 242. secondary screening plate; 243. screening bottom plate; 3. sedimentation assembly; 31. sedimentation tank; 32. water outlet; 33. material blocking plate. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0023] Embodiment 1

[0024] See also Figure 1-4 As shown, a circulating sedimentation water tank for zirconium-titanium ore dressing process comprises a device body 1 and a multi-stage ore dressing mechanism 2, wherein the multi-stage ore dressing mechanism 2 is arranged above the device body 1;

[0025] The multi-stage mineral processing mechanism 2 includes a shaking mineral processing mechanism 21, a buffer assembly 22, a lifting assembly 23 and a screening assembly 24. The shaking mineral processing mechanism 21 is arranged above the device body 1, the buffer assembly 22 is arranged on the surface of the device body 1, the lifting assembly 23 is installed on the outer side of the shaking mineral processing mechanism 21, and the screening assembly 24 is installed on the inner side of the shaking mineral processing mechanism 21.

[0026] Furthermore, the shaking beneficiation mechanism 21 includes a beneficiation pool 211, a servo motor 212, an eccentric driving wheel 213 and a rocker arm 214. The beneficiation pool 211 is arranged above the device body 1, and the servo motor 212 is installed on the left side of the top of the device body 1. The front end pin of the servo motor 212 is connected to the eccentric driving wheel 213, and the front end pin of the eccentric driving wheel 213 is connected to the rocker arm 214. The rocker arm 214 and the beneficiation pool 211 are connected by a rotating shaft. The water after the shaking table beneficiation or the ore cleaning is introduced into the beneficiation pool 211, the servo motor 212 is started to drive the eccentric driving wheel 213 to rotate, and the beneficiation pool 211 is driven by the rocker arm 214 to rock back and forth on the device body 1, so that the zirconium-titanium ore entrained in the flowing water is layered according to size, which is convenient for the classification of the ore.

[0027] Furthermore, the buffer assembly 22 includes a rolling shaft 221 and a buffer spring rod 222. The rolling shaft 221 is installed on the surface of the device body 1, and the buffer spring rod 222 is installed on the right end of the ore dressing pool 211. The rolling shaft 221 at the bottom is used to support and assist the ore dressing pool 211, which is convenient for shaking the ore dressing pool 211. At the same time, the buffer spring rod 222 provides a tensile force when the ore dressing pool 211 moves to the left, and provides a thrust force for buffering when it moves to the right, thereby reducing the load on the servo motor 212 and having a certain shock-absorbing effect.

[0028] Furthermore, the lifting assembly 23 includes a lifting installation platform 231, an electric lifting rod 232 and a screen connecting frame 233. The lifting installation platform 231 is welded to the front and rear ends of the ore dressing pool 211. The top of the lifting installation platform 231 is installed with an electric lifting rod 232. The top slot of the electric lifting rod 232 is connected to the screen connecting frame 233. Starting the electric lifting rod 232 drives the screen connecting frame 233 to rise and fall in the ore dressing pool 211, driving the screening assembly 24 to rise, thereby improving the convenience of collecting and taking the zirconium-titanium ore.

[0029] Furthermore, the screening component 24 includes a primary screening plate 241, a secondary screening plate 242 and a screening bottom plate 243. The inner slot of the screen connecting frame 233 is connected to the primary screening plate 241, and the secondary screening plate 242 is arranged below the primary screening plate 241. The screening bottom plate 243 is arranged below the secondary screening plate 242. When the mineral processing pool 211 is shaken, the zircon-titanium ore is shaken in the primary screening plate 241, and smaller ores fall from it and fall into the secondary screening plate 242 for screening again. The zircon-titanium ore is subjected to multi-stage screening, and smaller zircon-titanium ores fall below the mineral processing pool 211 at the same time, thereby reducing the situation where the water flow washes away the smaller zircon-titanium ore.

[0030] Embodiment 2

[0031] See also Figure 1 and Figure 4 As shown, compared with Example 1, as another implementation of the utility model, a sedimentation component 3 is arranged on the right side of the ore dressing tank 211, and the sedimentation component 3 includes a sedimentation tank 31, a water outlet mesh port 32 and a material baffle plate 33. A sedimentation tank 31 is arranged at the lower right side of the ore dressing tank 211, and a water outlet mesh port 32 is opened at the front end of the sedimentation tank 31. The slurry water overflowing from the ore dressing tank 211 is settled through the sedimentation tank 31 to ensure that the zirconium-titanium ore contained in the slurry can be better collected. At the same time, the water overflowing from the sedimentation tank 31 is filtered and blocked by the zirconium-titanium ore, so as to further reduce the situation where the fine zirconium-titanium ore is carried away by the running water.

[0032] Furthermore, a baffle plate 33 is provided at the inner front end of the sedimentation tank 31. The baffle plate 33 is inclined inwardly. The inclined baffle plate 33 blocks and protects the settled fine zirconium-titanium ore to prevent it from flowing away with the running water, thereby improving the mineralization recovery rate of the zirconium-titanium ore.

[0033] Working principle: When in use, the first step is to introduce the water after the shaking table is beneficiated or the ore is washed into the beneficiation pool 211, and the servo motor 212 is started to drive the eccentric drive wheel 213 to rotate, and the rocker arm 214 drives the beneficiation pool 211 to rock back and forth on the device body 1, so that the zirconium-titanium ore entrained in the running water is layered according to size, which is convenient for the classification of the ore. The second step is to support the beneficiation pool 211 through the rolling shaft 221 at the bottom to facilitate the shaking of the beneficiation pool 211. At the same time, the buffer spring rod 222 provides tensile force when the beneficiation pool 211 moves to the left, and provides thrust for buffering when it moves to the right, which reduces the load of the servo motor 212 and has a certain shock-absorbing effect. The third step is that while the beneficiation pool 211 is shaking, the zirconium-titanium ore is shaken in the primary screening plate 241, and the smaller ore falls from it and falls into the secondary screening plate 242 for another screening. The zirconium-titanium ore is screened in multiple stages, and the smaller zirconium-titanium ore falls into the bottom of the mineral processing pool 211 to reduce the situation where the water flow washes away the smaller zirconium-titanium ore. The fourth step is to start the electric lifting rod 232 to drive the screen connecting frame 233 to lift and lower in the mineral processing pool 211, drive the screening component 24 to rise, and improve the convenience of collecting and taking the zirconium-titanium ore. The fifth step is to use the sedimentation tank 31 to settle the slurry water overflowing from the mineral processing pool 211 to ensure that the zirconium-titanium ore contained in the slurry can be better collected. At the same time, the zirconium-titanium ore is used to filter and block the water overflowing from the sedimentation tank 31 to further reduce the situation where the small zirconium-titanium ore is carried away by the running water. At the same time, the inclined baffle plate 33 is used to block and protect the settled small zirconium-titanium ore to prevent it from flowing away with the running water, thereby improving the mineralization recovery rate of the zirconium-titanium ore. In this way, the use of a circulating sedimentation water pool for the zirconium-titanium mineral processing process is completed.

[0034] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A circulating sedimentation water tank for zirconium-titanium ore dressing process, comprising a device body (1) and a multi-stage ore dressing mechanism (2), characterized in that: A multi-stage mineral separation mechanism (2) is arranged above the device body (1); The multi-stage mineral processing mechanism (2) comprises a shaking mineral processing mechanism (21), a buffer component (22), a lifting component (23) and a screening component (24); the shaking mineral processing mechanism (21) is arranged above the device body (1); the buffer component (22) is arranged on the surface of the device body (1); the lifting component (23) is installed on the outer side of the shaking mineral processing mechanism (21); and the screening component (24) is installed on the inner side of the shaking mineral processing mechanism (21).

2. A circulating sedimentation pool for zirconium-titanium ore dressing process according to claim 1, characterized in that: The shaking beneficiation mechanism (21) comprises a beneficiation tank (211), a servo motor (212), an eccentric driving wheel (213) and a rocker arm (214); the beneficiation tank (211) is arranged above the device body (1); the servo motor (212) is installed on the left side of the top of the device body (1); the front end pin shaft of the servo motor (212) is connected to the eccentric driving wheel (213); the front end pin shaft of the eccentric driving wheel (213) is connected to the rocker arm (214); the rocker arm (214) and the beneficiation tank (211) are connected by a rotating shaft.

3. A circulating sedimentation tank for zirconium-titanium ore dressing process according to claim 2, characterized in that: The buffer assembly (22) comprises a rolling shaft (221) and a buffer spring rod (222); the rolling shaft (221) is installed on the surface of the device body (1); and the buffer spring rod (222) is installed at the right end of the ore dressing pool (211).

4. A circulating sedimentation pool for zirconium-titanium ore dressing process according to claim 2, characterized in that: The lifting assembly (23) comprises a lifting installation platform (231), an electric lifting rod (232) and a screen connection frame (233); the lifting installation platform (231) is welded at the front and rear ends of the ore dressing pool (211); the electric lifting rod (232) is installed at the top of the lifting installation platform (231); and the screen connection frame (233) is connected to the top slot of the electric lifting rod (232).

5. A circulating sedimentation water tank for zirconium-titanium ore dressing process according to claim 4, characterized in that: The screening component (24) comprises a primary screening plate (241), a secondary screening plate (242) and a screening bottom plate (243); the primary screening plate (241) is connected to the inner slot of the screen connection frame (233); a secondary screening plate (242) is arranged below the primary screening plate (241); and a screening bottom plate (243) is arranged below the secondary screening plate (242).

6. A circulating sedimentation water tank for zirconium-titanium ore dressing process according to claim 2, characterized in that: A sedimentation assembly (3) is arranged on the right side of the ore dressing tank (211), and the sedimentation assembly (3) comprises a sedimentation tank (31), a water outlet mesh port (32) and a material blocking plate (33). The sedimentation tank (31) is arranged at the lower right side of the ore dressing tank (211), and a water outlet mesh port (32) is provided at the front end of the sedimentation tank (31).

7. A circulating sedimentation pool for zirconium-titanium ore dressing process according to claim 6, characterized in that: A material blocking plate (33) is provided at the inner front end of the sedimentation tank (31), and the material blocking plate (33) is inclined inwardly.

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