CN212524517U - Suspension vibration conical surface mineral processing equipment - Google Patents

Suspension vibration conical surface mineral processing equipment Download PDF

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Publication number
CN212524517U
CN212524517U CN202021593334.1U CN202021593334U CN212524517U CN 212524517 U CN212524517 U CN 212524517U CN 202021593334 U CN202021593334 U CN 202021593334U CN 212524517 U CN212524517 U CN 212524517U
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China
Prior art keywords
conical surface
sorting
disc
separation
mineral processing
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支京豪
杨波
肖日鹏
陈俊良
李修智
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Kunming Ligong Kaijisi Technology Co ltd
Kunming University of Science and Technology
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Kunming Ligong Kaijisi Technology Co ltd
Kunming University of Science and Technology
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Abstract

The utility model discloses a hang conical surface mineral processing equipment that shakes, including the sorting tray that has vibration mechanism and rotary drive device, install the sorting tank in sorting tray below, install the washing water pipe that gradually bursts at seams above the sorting tray, the sorting tray includes the inner circle conical surface and the outer lane conical surface, the inner circle conical surface slope is greater than outer lane conical surface slope, the sorting tray is formed by connecting gently the inner circle conical surface and the outer lane conical surface. Has the advantages that: the separation dish adopts the conical surface connection design of the different slopes of two heights to form, compares in the design that the separation dish totality all is a slope, the utility model discloses can make the light mineral in the ore pulp get into the tailing sooner to improve the velocity of flow of ore pulp totality, and then improved the speed and the efficiency and the sorting precision of selecting separately.

Description

Suspension vibration conical surface mineral processing equipment
Technical Field
The utility model belongs to the technical field of different proportion mineral gravity separation equipment, a mineral processing equipment that suitable separation particle size is 100 microns ~ 5 microns slime is related to, especially, relate to a hang conical surface mineral processing equipment that shakes.
Background
The prior art mainly adopts belt chutes, shaking tables, even grooves and the like for separating the slime with different specific gravities, and the belt chutes, the shaking tables, the even grooves and the like have the problems of small processing capacity, low separation speed, large occupied area, large water consumption, large granularity of treated minerals, complex maintenance, high capital investment and production cost and the like. For example, the sorting by using the shaker has been carried out for many years, and people still continue to use the past structural principle despite many improvements to the equipment, so that the results in the aspects of reducing energy consumption and occupied area, expanding processing capacity, increasing processing speed and the like are not ideal.
In order to solve the existing problems, the invention of Chinese patent application, namely a suspended vibration cone concentrator (application number: 200820228923.2), the overall structure diagram of the technical scheme is shown in figure 1. The scheme includes that the bed of the ore separator is provided with a vibrating and rotating mechanism, a roller with a motor of a lower layer support is arranged on a circular track, a suspension upright post is fixed on the lower layer support, an upper layer support is suspended by a suspension hook and a suspension rope, an eccentric balance wheel mechanism connected with the motor is further arranged on the upper layer support, and the gradient of the conical surface of the bed is 3-10 degrees. The method can be used for sorting the slime with the granularity of 100-10 microns, and has the advantages of low water consumption, small occupied area and long service life of equipment. In practical application, the invention has the advantages of less water consumption, small occupied area, long service life, small granularity of the treatable minerals and high enrichment ratio compared with the traditional mineral separation equipment, but has the problems of partial loss of part of micro-fine-particle heavy minerals due to washing water, partial reduction of the recovery rate and the enrichment ratio of the minerals and the like, so the invention has the further reasonable structure and the recovery rate and enrichment are further problems to be solved.
On the basis of the above, the invention patent of China proposes an improved suspended vibration cone concentrator (application number: CN201110267598.7), and the overall structure diagram of the technical scheme is shown in figure 2. The gradient of the conical surface of the sorting disc is 3-15 degrees, and the ore mud with the granularity of 100-5 microns is sorted. However, in practical application, the sorting speed and efficiency are not high enough. In order to improve the production efficiency, the speed and efficiency of sorting need to be further improved. Moreover, the production, manufacture and use of the device based on the solution need to be further improved and optimized in terms of its structure, considering such factors as easy disassembly and assembly, and the convenience of carrying.
SUMMERY OF THE UTILITY MODEL
The utility model discloses a purpose aims at overcoming the not enough of prior art existence, provides one kind and compares in current suspension conical surface concentrator that shakes, and it is selected separately fastly, the treatment effeciency is higher, and the water consumption is few, and the energy consumption is little, and area is little, and the motion design is simpler reasonable, changes in the mineral processing equipment of dismantlement, equipment, transport.
In order to achieve the above object, the utility model adopts the following technical scheme to realize:
the utility model provides a hang conical surface ore dressing equipment that shakes, is including the sorting tray that has vibration mechanism and rotary drive device, installs the sorting tank in sorting tray below, installs the washing water pipe that gradually bursts at seams in the top of sorting tray, the sorting tray includes the inner circle conical surface and the outer lane conical surface, inner circle conical surface slope is greater than outer lane conical surface slope, the sorting tray is formed by inner circle conical surface and the gentle connection of outer lane conical surface.
Furthermore, the gradient of the inner ring conical surface is 4-10 degrees, and the gradient of the outer ring conical surface is 0-3 degrees.
Furthermore, a hemispherical cover is arranged in the center of the conical surface of the inner ring, and the edge of the hemispherical cover is gently connected with the conical surface of the inner ring; the feeding device is arranged above the hemispherical cover and conveys ore pulp to the side surface of the hemispherical cover.
Further, the setting is in the involute wash water pipe of separation dish top, its section of intaking is the L type, extends to the separation quotation from the separation groove side on, when the section of intaking extends to quotation central authorities hemisphere lid side, the remaining washing pipeline section is the involute type, extends to separation dish limit, evenly distributed the weeping hole on washing the pipeline section.
Furthermore, a concentrate flushing water pipe is arranged behind the tail end of the involute washing water pipe, and the concentrate flushing water pipe is L-shaped; the water inlet section of the concentrate flushing water pipe points to the center of the sorting disc, the radian of the flushing pipe section positioned at the rear half section of the concentrate flushing water pipe is consistent with that of the sorting disc, and spray holes are uniformly distributed in the flushing pipe section.
Furthermore, an inspection hole is formed in the center of the conical surface of the inner ring of the sorting disc, the hemispherical cover is installed above the inspection hole, a flange plate is fixedly installed below the inspection hole, and the vibrating motor is connected with the flange plate and installed below the flange plate.
Furthermore, the rotary driving device comprises an umbrella-shaped rotary supporting frame connected with the sorting disc through a suspension unit, a rotary main shaft connected with the center of the umbrella-shaped rotary supporting frame, and a rotary driving motor connected with the rotary main shaft through a belt; the rotary driving motor drives the rotary main shaft to rotate through a belt, and then drives the umbrella-shaped rotary supporting frame to drive the sorting disc to rotate.
Further, the suspension unit comprises an upper suspension frame and a lower suspension frame which are connected by an iron ring; the upper suspension frame is fixedly connected with the sorting tray, and the lower suspension frame is fixedly connected with the umbrella-shaped rotating support frame.
Furthermore, the device also comprises two parallel I-shaped steels which are welded and arranged at the opposite positions of the side wall of the center of the bottom surface of the separation tank; the rotary driving device is arranged on the I-shaped steel.
Furthermore, the separation tank is divided into three ore separation tanks for correspondingly receiving tailings, middlings and concentrates; and the outer side of each ore separation groove is correspondingly provided with a tailing discharge pipe, a middling discharge pipe and a concentrate discharge pipe which are communicated with each other.
The working principle is as follows:
the utility model discloses a design on the basis of bai genno theory and flowing film ore dressing principle and form, its principle is that the different realization of density and the granularity through the mineral grain is selected separately in the compound force field. When ore pulp flows to the side surface of the hemispherical cover from the ore feeding device and is uniformly spread and enters the separation area of the conical surface, the flow state of the ore pulp is in an obvious turbulent flow state, the flowing film of the ore pulp becomes thinner gradually from thickness in the flowing process, the flow velocity is also reduced slowly, and the ore particles are properly loosened and layered on the disc surface under the action of self gravity, the rotation of the disc surface and the shearing repulsion force generated by horizontal vibration. Then the low-speed rotation of the sorting conical surface brings the minerals into a fine selection area with a low-speed water flow area corresponding to the lower part of the involute washing water pipe, brings the minerals with different densities and granularities into corresponding separation grooves in the ore receiving groove, and discharges the minerals through corresponding tailing discharge pipes, middling discharge pipes and concentrate discharge pipes. In layering, the surface flow layer on the uppermost layer of the sorting conical surface is light minerals with small density and granularity, and most suspended ore particles in the surface flow layer are directly discharged into a tailing tank after ore pulp is conveyed to a hemispherical cover; the rheological layer in the middle of the pulp consists of heavy minerals with small granularity and large density and light minerals with large granularity and small density, the pulp thickness of the layer is the largest, and the Bayer force is the strongest. In this layer the mineral aggregates are more concentrated and without the influence of a greater vertical medium flow rate, the stratification can be seen as being approximately static, so that the layer is a more effective layer for density stratification, after which, with slow rotation of the apparatus, part of the mineral is sorted out under the influence of the washing water of the concentration zone to flow into the middling basin. The settled layer directly contacted with the sorting conical surface is heavy minerals with high density, and fine-grained heavy minerals close to the end of the ore feeder can be adhered to the bed surface and are not easy to be carried, so that a concentrate flushing water pipe with high water power is arranged at the tail end of the concentrate tank to flush the fine-grained heavy minerals adhered to the bed surface into the concentrate tank.
Has the advantages that:
1. the utility model discloses a new structure has reduced manufacturing cost, the installation of being convenient for. The operation stability of the equipment is improved, and the design of the double-cone separating disc surface is beneficial to improving the separation efficiency and reducing the water consumption.
2. The flange plate is bonded in the middle of the sorting plate, the vibration motor is mounted on the flange plate, the vibration motor is convenient to disassemble, mount and adjust due to the design, and the eccentric block of the vibration motor can be adjusted according to requirements to obtain required exciting force.
3. The semi-spherical cover is arranged in the middle of the separation disc, and ore pulp flows to the side face of the semi-spherical cover from the feeding device and then flows to the separation disc after being uniformly spread, so that the uniformity of the distribution of the ore pulp on the separation disc is improved, and the separation efficiency and the separation precision are improved.
4. The separation disc is formed by connecting two conical surfaces with different slopes, ore pulp is uniformly spread out from a hemispherical cover and then flows through the separation disc in a sequence from high slope to low slope, when the separation disc is on the conical surface with high slope, the ore pulp obtains relatively fast flow rate, light minerals enter a separation area of the conical surface with low slope fast flow rate, and heavy minerals are preliminarily enriched on the conical surface with high slope. Then the ore pulp enters a low-gradient separation conical surface for further separation. Compared with the design that the whole sorting tray is a slope, the design can enable light minerals in the ore pulp to enter tailings more quickly, the flow rate of the whole ore pulp is improved, and then the sorting speed, efficiency and sorting precision are improved.
5. The involute washing water pipe adopts the connection design of two sections of involute water pipes with different base circle radiuses, the involute washing water pipe is in accordance with the design of two conical surfaces with different heights and different slopes of the sorting tray, and the two sections of involute washing water pipes with different base circle radiuses correspond to the two sorting trays with different heights and different slopes below the washing water pipe. Because the flow velocity of ore pulp on the two kinds of tapering sorting disks of inner lane and outer lane is different, so the washing water pipe that the involute that the sorting conical surface of inner lane high slope corresponds has less base radius, and the washing water pipe that the sorting conical surface of outer lane low slope corresponds has bigger base radius and the involute is more gentle.
6. The two motion systems of low-speed autorotation and high-frequency vibration are mutually independent and mutually linked and organically combined together, so that the rotating speeds of the two motion systems can be separately adjusted, the speed ratio of the two motion systems can be in the optimal level, the optimal loose-layered state of the flow film is ensured, and the sorting index is improved.
7. The utility model discloses a diameter is the same with the diameter of cambered surface flowing film sorter, consequently can be used with the cambered surface is spread the organic combination of flowing film sorter modularization in follow-up manufacturing, produces new process flow. Compare and hang conical surface concentrator that shakes the utility model discloses miniaturized and simple structure, be convenient for transportation and installation.
8. The whole surface of the sorting disc is made of glass fiber reinforced plastic, and the sorting disc has long service life, light weight and high flatness.
9. The sorting disc is connected with the rotating device through the suspension unit, the total height of the device is reduced to be half of the height of the suspension vibration conical surface concentrator, the space utilization rate is higher, and the structure is more compact and reasonable.
10. The bottom surface of the separation trough is welded with two parallel I-shaped steels, and the rotating device and the motor are arranged on the I-shaped steels, so that the whole equipment is integrated, and the transportation, the transportation and the installation are very convenient.
11. Because the ore pulp can have an effect of accelerating flowing under the combined force field of the vibration of the separation disc and the rotary force, if the gradient of the inner cone surface is overlarge, the ore pulp can flow too fast to the separation area with the low gradient, so that the ore pulp separation is insufficient, and the grade of the concentrate is reduced. If the slope of the inner and outer ring conical surfaces is too gentle, the effect of improving the overall flow velocity of ore pulp cannot be achieved, and therefore the separation efficiency cannot be improved. The adoption states the inner circle conical surface slope and is 4 ~ 10, the outer lane conical surface slope is 0 ~ 3 scope, can effectively guarantee the utility model discloses an effect when improving the ore pulp total velocity of flow effect, can also guarantee that the ore pulp is selected separately fully.
Drawings
Fig. 1 is a schematic view of the appearance structure of the present invention.
Fig. 2 is a schematic top view of the present invention.
Fig. 3 is a bottom view of the sorting tray after assembly.
Fig. 4 is an exploded view of a sorting dish load.
Fig. 5 shows the rotation direction and the working schematic of the sorting tray, the involute washing water pipe and the concentrate flushing water pipe. Fig. 6 is a schematic cross-sectional view of a sorting tray.
Fig. 7 is a schematic view of the internal structure of the present invention.
Fig. 8 is an enlarged schematic view of the suspension unit.
Reference numerals:
the device comprises a sorting disc 1, an inner ring conical surface 11, an inspection hole 111, an outer ring conical surface 12, a hemispherical cover 13, a rotary driving device 2, a hanging unit 21, an iron ring 211, an upper hanging frame 212, a lower hanging frame 213, an umbrella-shaped rotary supporting frame 22, a rotary main shaft 23, a belt 24, a rotary driving motor 25, a vibrating motor 3, a flange plate 31, a sorting groove 4, I-steel 41, a tailing discharge pipe 42, a middling discharge pipe 43, a concentrate discharge pipe 44, an involute washing water pipe 5, a concentrate flushing water pipe 51, a feeding device 6, an angle B of the inner ring conical surface and an angle A of the outer ring conical surface.
Detailed Description
The technical solutions of the present invention will be described in further detail below with reference to specific embodiments and drawings, but the present invention is not limited to the following technical solutions.
Example 1
As shown in fig. 1-8, a suspension vibration conical surface concentrating machine mainly comprises a separating disc 1, a feeding device 6, an involute washing water pipe 5 and a concentrate flushing water pipe 51 are arranged above the separating disc 1, an annular separating tank 4 is arranged below the separating disc 1, the separating tank 4 and the separating disc 1 form an unsealed cavity together, and a vibrating mechanism, a rotary driving device 2 and other components are mainly installed inside the concentrating machine.
The sorting disc 1 comprises an inner cone 11, an outer cone 12 and a hemispherical cover 13, wherein the gradient of the inner cone 11 is 6 degrees, the gradient of the outer cone 12 is 3 degrees, and the inner cone 11 is gently connected with the outer cone 12; the back of the hemispherical cover 13 is provided with a buckle, and the hemispherical cover 13 is buckled on an inspection hole 111 at the center of the inner ring conical surface 11. The sorting tray 1 is made of glass fiber reinforced plastic, and the back of the sorting tray 1 is filled with filler, so that the back of the sorting tray 1 becomes a plane, other parts can be conveniently installed, and the positions around the inspection hole 111 and the periphery of the inspection hole are reserved for installing the flange plate 31 and the vibrating motor 3. The filler can adopt filler substances such as putty and the like, and can enhance the strength of the sorting tray made of glass fiber reinforced plastics.
The involute wash water pipe 5 that selects separately 1 top of dish set up, the section of intaking is the L type, extends to 1 face of selecting separately the dish from 4 sides of separation groove on, when the section of intaking extends to quotation central authorities hemisphere lid 13 side, remaining washing pipeline section is the involute type, extends to 1 border of selecting separately the dish, evenly distributed the weeping hole on washing the pipeline section. Preferably, the dripping hole distance is 4 mm-15 mm, and the hole diameter is 0.3 mm-1 mm.
The terminal rear of the washing water pipe 5 that gradually bursts at seams is provided with concentrate wash water pipe 51, concentrate wash water pipe 51 is the L type, and the section of intaking and the section parallel arrangement of intaking of the washing water pipe 5 that gradually bursts at seams, wash the pipeline section setting and in the terminal one side of the section of intaking, parallel with outer lane conical surface 12, wash the terminal rear that is located the washing water pipe 5 that gradually bursts at seams of pipeline section, wash the pipeline section and be the arc unanimous with the radian of the 1 position of separation dish of locating, wash the equipartition orifice on the pipeline section. Preferably, the pitch is 4 mm-10 mm, the aperture is 0.3 mm-1 mm, and the distance between the flushing pipe section of the concentrate flushing water pipe 51 and the outer edge of the sorting disc 1 is 40 mm-100 mm.
The separation tank 4 is divided into three ore separation tanks for correspondingly receiving tailings, middlings and concentrates; and a tailing discharge pipe 42, a middling discharge pipe 43 and a concentrate discharge pipe 44 which are communicated are correspondingly arranged on the outer side of each ore separation groove.
The ore pulp flows out of the feeding device 6 to one side of the hemispherical cover 13, then flows from the hemispherical cover 13 to the inner conical surface 11, then flows to the outer conical surface 12, then flows into the separation groove 4, and finally is discharged through the tailing discharge pipe 42, the middling discharge pipe 43 and the concentrate discharge pipe 44.
Inside the ore dressing equipment, the 1 back of separation dish is provided with vibration mechanism, vibration mechanism mainly includes vibrating motor 3 and makes vibrating motor 3 install the ring flange 31 on separation dish 1. The flange 31 may be mounted below the inspection hole 111 in the center of the sorting tray 1 by means of bolts, snaps, or adhesives.
The rotary driving device 2 is further arranged inside the mineral processing equipment, and the rotary driving device 2 is arranged on two parallel I-shaped steels 41 welded at the center of the bottom surface of the separation groove 4, connected with the bottom surface of the separation disc 1 and arranged on the filler.
The rotary driving device 2 comprises a hanging unit 21 arranged on the bottom surface of the sorting disc 1, an umbrella-shaped rotary supporting frame 22 connected with the sorting disc 1 through the hanging unit 21, a rotary main shaft 23 connected with the center of the umbrella-shaped rotary supporting frame 22, and a rotary driving motor 25 connected with the rotary main shaft 23 through a belt 24, wherein the rotary driving motor 25 is arranged on an I-shaped steel 41 on the bottom surface of the sorting groove 4, and the rotary main shaft 23 is arranged on the I-shaped steel 41 on the bottom surface of the sorting groove 4 through a bearing seat.
The suspension unit 21 comprises an upper suspension bracket 212 and a lower suspension bracket 213 which are connected by an iron ring 211; the upper suspension bracket 212 is fixedly connected with the sorting tray 1, the lower suspension bracket 213 is fixedly connected with the umbrella-shaped rotating support frame 22, and the upper suspension bracket 212 and the lower suspension bracket 213 are provided with hooks which are connected through an iron ring 211.
The rotary driving motor 25 drives the rotary main shaft 23 to rotate through the belt 24, and further drives the umbrella-shaped rotary supporting frame 22 to rotate, so as to drive the sorting tray 1 to rotate.
In the embodiment, the slopes of the inner cone surface 11 and the outer cone surface 12 are the preferred combination, when the ore pulp is on the inner cone surface 11, the ore pulp obtains a relatively fast flow velocity, and the light minerals enter the separation area of the low-slope outer cone surface 11 at a fast flow velocity, so that a good separation effect is obtained.
Example 2
On the basis of embodiment 1, the gradient of the inner conical surface 11 and the gradient of the outer conical surface 12 are adjusted, the gradient of the inner conical surface 11 is set to be 4 degrees, the gradient of the outer conical surface 12 is set to be 3 degrees, and the inner conical surface 11 and the outer conical surface 12 are connected in a small gradient manner. The flow speed of ore pulp on the inner ring conical surface 11 is faster than that of the outer ring conical surface 12, and the effect is better than that obtained by adopting the sorting disc 1 with the same gradient.
Example 3
On the basis of embodiment 1, the gradient of the inner ring conical surface 11 and the gradient of the outer ring conical surface 12 are adjusted, the gradient of the inner ring conical surface 11 is set to be 10 degrees, the gradient of the outer ring conical surface 12 is set to be 0 degree, and the gradients of the inner ring conical surface 11 and the outer ring conical surface 12 are connected in a large gradient manner. When the inner conical surface 11 is arranged, the ore pulp obtains relatively fast flow velocity, and the outer conical surface 12 is in a plane state, which is superior to the effect obtained by adopting the sorting disc 1 with the same gradient.
The working mode is as follows:
the utility model discloses a main sorting work piece is by the sorting tray 1 that suspension unit 21 is connected with rotary device, and the auxiliary component is gradually burst at seams washing water pipe 5 and concentrate wash water pipe 51. During sorting, the motor drives the rotating main shaft 23 of the rotating device to rotate, the vibrating motor 3 drives the sorting disk 1 to vibrate, and the sorting disk 1 rotates around the rotating main shaft 23 as an axis (namely the circle center of the sorting disk 1) while vibrating through the connection of the suspension unit 21. Materials with certain concentration are conveyed to the hemispherical cover 13 at the center of the sorting disc 1 through the feeding device 6 with proper strength, and meanwhile, washing water is conveyed to the disc surface through the involute washing water pipe 5 and the concentrate flushing water pipe 51 with proper strength. The ore pulp flows to the side surface of the hemispherical cover 13 from the ore feeding device and enters the separation area of the conical surface after being uniformly spread, and flows to the conical surface with low gradient at the outer ring from the conical surface with high gradient at the inner ring, the ore pulp is in a composite force field formed by the flushing of involute washing water and the rotation and vibration of the separation disc 1, and mineral particles are properly loosened and layered on the disc surface under the combined action of the self gravity, the convolution force of the separation disc 1, the washing water flushing force, the shearing force of fish scale waves generated by the vibration of the disc surface of a water film and the like. Then the low-speed rotation of the sorting conical surface brings the minerals into a fine selection area with a low-speed water flow area corresponding to the lower part of the involute washing water pipe 5, brings the minerals with different densities and granularities into corresponding separation grooves in the ore receiving grooves, and discharges the minerals through corresponding tailing discharge pipes 42, middling discharge pipes 43 and concentrate discharge pipes 44.

Claims (10)

1. A suspension vibration conical surface ore dressing equipment comprises a sorting disc (1) with a vibration motor (3) and a rotary driving device (2), a sorting groove (4) arranged below the sorting disc (1), an involute washing water pipe (5) arranged above the sorting disc,
the sorting disc (1) is characterized by comprising an inner ring conical surface (11) and an outer ring conical surface (12), wherein the gradient of the inner ring conical surface (11) is greater than that of the outer ring conical surface (12), and the sorting disc (1) is formed by gently connecting the inner ring conical surface (11) and the outer ring conical surface (12).
2. The mineral processing equipment according to claim 1, characterized in that a hemispherical cover (13) is arranged in the center of the inner cone surface (11), and the edge of the hemispherical cover (13) is gently connected with the inner cone surface (11);
and a feeding device (6) is arranged above the hemispherical cover (13), and the feeding device (6) conveys ore pulp to the side surface of the hemispherical cover (13).
3. The mineral processing equipment according to claim 2, characterized in that the involute washing water pipe (5) is arranged above the separation disc (1), the water inlet section of the involute washing water pipe is L-shaped and extends from the side edge of the separation groove (4) to the surface of the separation disc (1), when the water inlet section extends to the side edge of the semi-spherical cover (13) in the center of the disc surface, the rest washing pipe section is in an involute shape and extends to the edge of the separation disc (1), and water dripping holes are uniformly distributed on the washing pipe section.
4. A mineral processing plant according to claim 3, characterized in that a concentrate washing pipe (51) is arranged behind the end of the involute washing pipe (5), said concentrate washing pipe (51) being L-shaped;
the radian of a flushing pipe section positioned at the rear half section of the concentrate flushing water pipe (51) is consistent with that of the position of the sorting disc (1), and spray holes are uniformly distributed on the flushing pipe section.
5. The mineral processing equipment according to claim 4, characterized in that an inspection hole (111) is formed in the center of the conical surface (11) of the inner ring of the sorting disc (1), the hemispherical cover (13) is installed above the inspection hole (111), a flange (31) is fixedly installed below the inspection hole (111), and the vibrating motor (3) is connected with the flange (31) and installed below the flange (31).
6. The mineral processing plant according to claim 1, characterized in that the rotary drive (2) comprises an umbrella-shaped rotary support (22) connected to the sorting tray (1) by means of suspension units (21), a rotary spindle (23) centrally connected to the umbrella-shaped rotary support (22), a rotary drive motor (25) connected to the rotary spindle (23) by means of a belt (24);
the rotary driving motor (25) drives the rotary main shaft (23) to rotate through the belt (24), and then drives the umbrella-shaped rotary supporting frame (22), so that the sorting disc (1) is driven to rotate.
7. The beneficiation plant according to claim 6, wherein the suspension unit (21) comprises an upper suspension frame (212) and a lower suspension frame (213) connected by an iron ring (211); the upper suspension frame (212) is fixedly connected with the sorting tray (1), and the lower suspension frame (213) is fixedly connected with the umbrella-shaped rotary support frame (22).
8. The beneficiation plant according to claim 6, further comprising two parallel i-beams (41) welded and installed at positions opposite to the central side wall of the bottom surface of the separation tank (4); the rotary driving device (2) is arranged on the I-shaped steel (41).
9. A mineral processing apparatus according to any one of claims 1 to 8, characterized in that the inner cone surface (11) has a gradient of 4 ° to 10 ° and the outer cone surface (12) has a gradient of 0 ° to 3 °.
10. The mineral processing apparatus according to any one of claims 1 to 8, characterized in that the separation tank (4) is divided into three separate tanks, correspondingly receiving tailings, middlings, concentrates; and the outer side of each ore separation groove is correspondingly provided with a tailing discharge pipe (42), a middling discharge pipe (43) and a concentrate discharge pipe (44) which are communicated with each other.
CN202021593334.1U 2020-08-04 2020-08-04 Suspension vibration conical surface mineral processing equipment Active CN212524517U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN112058477A (en) * 2020-08-04 2020-12-11 昆明理工大学 Suspension vibration conical surface mineral processing equipment

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN112058477A (en) * 2020-08-04 2020-12-11 昆明理工大学 Suspension vibration conical surface mineral processing equipment

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