An integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores

Abstract

The present invention relates to the technical field of ore washing and beneficiation, and specifically to an integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores, comprising an ore washing barrel assembly and an ore dressing plate arranged below the ore washing barrel assembly, wherein an axial extension direction B of the ore washing barrel assembly has a certain angle with a horizontal plane, an extension direction C of a guide surface of the ore dressing plate has a certain angle with a horizontal plane, and projections of an axial extension direction B of the ore washing barrel assembly and an extension direction C of the guide surface of the ore dressing plate on the horizontal plane have an angle D, so that fine ore particles can move in the ore dressing plate according to a predetermined trajectory, and can prevent the adhesion of fine ore particles in the ore washing barrel assembly, and at the same time prevent the fine ore particles from magnetically agglomerating on the magnetic cone assembly and forming agglomerates.

Description

Technical Field

[0001] The invention relates to the technical field of ore washing and beneficiation, and in particular to an integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores. Background Art

[0002] After the ore is mined, it is necessary to use water washing, soaking and mechanical stirring to separate the soil, fine-grained gangue and soluble impurities in the ore. Many ores are mixed with a large amount of soil and gangue. These impurities will reduce the quality of the ore. For example, the clay attached to the surface of iron ore will reduce the iron content in the ore. These impurities can be removed by washing, thereby increasing the content of useful components in the ore. In the subsequent processing of ore crushing, screening and mineral processing, the soil and fine impurities in the ore will increase the energy consumption of the crushing equipment and may cause the crushing chamber to be blocked. Ore washing can remove these impurities in advance, making the ore smoother in subsequent processing and improving the efficiency of the entire mineral processing process. Ore is usually a mixture of useful minerals and gangue minerals. The mineral processing process can enrich the useful minerals through various methods to increase their content and remove gangue minerals, harmful impurities and other worthless substances in the ore.

[0003] When using magnetic field for mineral processing, if the ore particles are too small, the magnetic mineral particles are prone to magnetic agglomeration and form agglomerates under the action of the magnetic field. These agglomerates may contain non-magnetic minerals, which reduces the purity of magnetic minerals. The force situation of small particle ore in the magnetic field is more complicated. In addition to the magnetic field force, it is also affected by multiple forces such as the interaction force between particles, gravity and friction. The combined effect of these forces may cause the movement trajectory of the particles to deviate from the ideal state. Summary of the invention

[0004] In view of the shortcomings of the prior art, the present invention provides an integrated magnetic shaking table for washing and beneficiating fine-particle complex ores. Through the arrangement of the washing barrel assembly and the beneficiation plate, the fine ore particles can move in the beneficiation plate according to a predetermined trajectory, and can prevent the fine ore particles from adhering to the washing barrel assembly, and at the same time prevent the fine ore particles from magnetically agglomerating and forming agglomerates on the magnetic cone assembly.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] A magnetic shaking table for washing and beneficiation of fine-grained complex ores, comprising a washing barrel assembly and a beneficiation plate arranged below the washing barrel assembly, wherein an axial extension direction B of the washing barrel assembly has a certain angle with a horizontal plane, an extension direction C of a guide surface of the beneficiation plate has a certain angle with a horizontal plane, and projections of the axial extension direction B of the washing barrel assembly and the extension direction C of the guide surface of the beneficiation plate on the horizontal plane have an angle D; a tray is also arranged between the washing barrel assembly and the beneficiation plate, the tray is located below the discharge port of the washing barrel assembly, and the ore is laterally unfolded after passing through the tray and enters the feeding area of ​​the beneficiation plate; a vibration assembly is also arranged inside the washing barrel assembly, the vibration assembly is connected to a driving motor through a coupling, a drum bracket is supported at both ends of the washing barrel assembly, and the washing barrel assembly is driven to rotate and vibrate through the vibration assembly; a rotatable magnetic cone assembly is arranged on the guide surface of the beneficiation plate, and a shaking table bracket is arranged at the bottom of the beneficiation plate, and the ore is screened and separated by the magnetic cone assembly.

[0007] Furthermore, the magnetic cone assembly includes a magnetic cone surface, a friction strip circumferentially arranged on the magnetic cone surface, and a retaining ring arranged on the top of the magnetic cone surface; a strong magnet is arranged inside the magnetic cone surface, and the magnetic cone assembly is connected to a rotating drive mechanism. After the ore slides onto the magnetic cone surface, the magnetic ore is adsorbed by the magnetic cone surface, and the magnetic cone surface rotates and removes the adsorbed ore from the ore fluid.

[0008] Furthermore, the mineral processing plate includes an inclined plate body, a baffle plate, an arc plate, a first discharge plate and a second discharge plate; the baffle plate is arranged in the feeding area on the inclined plate body, the magnetic cone assembly is arranged in the middle of the inclined plate body, the baffle plate is arranged opposite to the tray and is located above the magnetic cone assembly, and the ore is guided to the magnetic cone surface of the magnetic cone assembly by the baffle plate after entering the feeding area; the first discharge plate and the second discharge plate are arranged on the inclined plate body at the same height as the magnetic cone assembly, and the first discharge plate and the second discharge plate are located on both sides of the magnetic cone assembly, the non-magnetic ore enters the first discharge plate after passing through the magnetic cone surface of the magnetic cone assembly, and the magnetic ore is adsorbed by the magnetic cone surface and brought into the second discharge plate on the other side; an arc plate is also arranged above the second discharge plate.

[0009] Furthermore, a limiting plate is provided on the side of the inclined plate body opposite to the material baffle plate at the material feeding area, and the limiting plate limits the ore fluid from completely moving onto the magnetic cone surface of the magnetic cone assembly.

[0010] Furthermore, the baffle plate, the limit plate and the baffle plates around the inclined plate body are fixedly connected to the inclined plate body through the mounting plate; the first discharging plate and the second discharging plate have the same structure and both include a mounting portion, a guide slope, a vertical baffle plate and a scraper plate, the guide slope plate is fixed to the inclined plate body through the mounting portion, a vertical baffle plate is provided at the upper end of the guide slope plate, and a scraper plate is provided at the joint between the upper end of the guide slope plate and the magnetic conical surface; the ore adsorbed on the magnetic conical surface is separated by the scraper plate of the second discharging plate and enters the guide slope plate of the second discharging plate.

[0011] Furthermore, the ore-washing barrel assembly includes a barrel net body and an actuating shell arranged at the center of the barrel net body, and the two ends of the barrel net body are connected to the actuating shell through connecting plates; the two ends of the actuating shell are rotatably arranged on the roller bracket through bearings, and a vibration assembly is arranged inside the actuating shell. The driving motor drives the vibration assembly to rotate and generate vibration through a coupling, and then the vibration assembly drives the ore-washing barrel assembly to rotate and swing laterally on the roller bracket through the actuating shell.

[0012] Furthermore, the roller bracket includes a supporting vertical frame, a supporting horizontal frame and an elastic bracket, the supporting vertical frame includes two columns, the upper ends of the columns are provided with a horizontal beam, and the ends of the horizontal beam are fixedly connected to the two ends of the supporting horizontal frame through mounting blocks; the supporting horizontal frame is a C-shaped structure, the middle part of the C-shaped structure is a transversely arranged horizontal plate, the two ends of the horizontal plate are fixedly connected to a vertical plate seat, and the vertical plate seat is fixedly connected to the mounting block; a waist-shaped hole is provided in the middle part of the vertical plate seat to provide an avoidance space for the coupling, and a plurality of reinforcing ribs are provided between the vertical plate seat and the horizontal plate; the elastic bracket includes a moving frame and limiting holes provided at both ends of the moving frame, and a through hole is provided in the middle part of the moving frame; guide pillars are provided on the opposite end surfaces of the two vertical plate seats, the guide pillars are slidably matched with the limiting holes of the elastic bracket, and a spring is sleeved on the guide pillars between the vertical plate seat and the moving frame.

[0013] Furthermore, the actuating shell includes a shaft cylinder located at the center of the drum net body, and a speed change housing arranged at one end of the shaft cylinder, and the speed change housing extends to the outside of the drum net body; one end of the shaft cylinder is arranged on the elastic bracket of the roller bracket on one side through a bearing, and the speed change housing is accommodated in the elastic bracket of the roller bracket on the other side, and the connecting section of the speed change housing and the shaft cylinder is arranged on the elastic bracket through a bearing; the ore washing drum assembly rotates on the elastic brackets on both sides, and the ore washing drum assembly and the elastic bracket swing together on the supporting cross frame.

[0014] Furthermore, the vibration component includes an eccentric shaft and a speed change component arranged at the end of the eccentric shaft, the transmission shaft of the eccentric shaft is arranged in the shaft cylinder of the actuating shell through a bearing, and a mass block is arranged on the transmission shaft; the speed change component is arranged in the speed change housing, and the speed change component includes a sun gear connected to the end of the transmission shaft through a spline, a ring gear fixedly connected to the inner wall of the speed change housing, and a planetary gear meshing with the sun gear and the ring gear.

[0015] Furthermore, the coupling includes a first flange, a second flange and a third flange arranged in parallel, a rotatable connecting block is connected between the first flange and the second flange via a pin shaft, and a rotatable connecting block is connected between the second flange and the third flange via a pin shaft; the first flange is fixedly connected to the end of the transmission shaft, and the third flange is fixedly connected to the output shaft of the drive motor.

[0016] Compared with the prior art, the present invention provides an integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores, which has the following beneficial effects:

[0017] 1. The ore-washing barrel assembly of the present invention is driven by a vibration assembly to rotate and swing on a drum support at the same time, so that the ore in the ore-washing barrel assembly can enter the tray in better layers and flatly during the lateral swing, and can also prevent fine particles of ore from adhering to the ore-washing barrel assembly.

[0018] 2. The ore dressing disk of the present invention is provided with a magnetic cone assembly having a magnetic cone surface, wherein the ore dressing disk is tilted so that the area where the magnetic cone surface provided on the ore dressing disk contacts the ore is relatively flat, which can better allow the magnetic ore to be adsorbed on the magnetic cone surface.

[0019] 3. The projections of the axis extension direction B of the ore-washing barrel assembly of the present invention and the guide surface extension direction C of the ore-dressing disk on the horizontal plane have an angle D, so that after the ore fluid enters the ore-dressing disk from the tray, it is blocked by the baffle plate and changes direction and slides to the magnetic cone surface. In combination with the limit plate, the ore fluid entering the ore-dressing disk can completely contact the magnetic cone surface, thereby being able to adsorb and separate the magnetic ore. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the overall structure of the integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores of the present invention;

[0021] Figure 2 A top view showing the structure of the ore washing barrel assembly of the present invention;

[0022] Figure 3 It is a structural schematic diagram of the roller bracket of the present invention;

[0023] Figure 4It is a schematic diagram of the structure of the elastic bracket of the present invention;

[0024] Figure 5 It is a structural schematic diagram of the coupling of the present invention;

[0025] Figure 6 It is a schematic structural diagram of the speed change assembly of the present invention;

[0026] In FIG. 7 , (1) is a side view of the ore washing cylinder assembly; (2) is a side view of the ore dressing plate; (3) is a top view of the present invention;

[0027] Figure 8 A top view of the ore dressing plate of the present invention;

[0028] Fig. 9 It is a structural schematic diagram of the ore dressing plate of the present invention;

[0029] In the figure:

[0030] Ore-washing cylinder assembly 1, cylinder net body 11, connecting plate 12, actuating shell 13, shaft cylinder 131, speed change shell 132;

[0031] Vibration assembly 2, eccentric shaft 21, transmission shaft 211, mass block 212, transmission shaft connecting portion 213, speed change assembly 22, sun gear 221, planetary gear 222, ring gear 223;

[0032] Coupling 3, first flange 31, second flange 32, third flange 33, connecting block 30;

[0033] Driving motor 4, output shaft 41;

[0034] Roller bracket 5, supporting frame 51, column 511, cross beam 512, mounting block 513, supporting cross frame 52, vertical plate seat 521, cross plate 522, waist-shaped hole 523, reinforcing rib 524, guide pillar 525, spring 526, elastic bracket 53, moving frame 531, limiting hole 532, through hole 533;

[0035] Tray 6, inclined support plate 61, tray seat 62;

[0036] The ore dressing plate 7, the inclined plate body 71, the baffle plate 72, the arc plate 73, the first discharge plate 74, the mounting portion 741, the guide inclined surface 742, the vertical baffle plate 743, the scraper 744, the second discharge plate 75, the limit plate 76, and the mounting plate 77;

[0037] Magnetic cone assembly 8, magnetic cone surface 81, friction strip 82, retaining ring 83; rocking table bracket 9; DETAILED DESCRIPTION

[0038] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0039] The present invention is described in detail below according to the accompanying drawings. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores of the present invention comprises a washing barrel assembly 1 and a beneficiation plate 7 arranged below the washing barrel assembly 1. The axis extension direction B of the washing barrel assembly 1 has a certain angle with the horizontal plane, the guide surface extension direction C of the beneficiation plate 7 has a certain angle with the horizontal plane, and the projections of the axis extension direction B of the washing barrel assembly 1 and the guide surface extension direction C of the beneficiation plate 7 on the horizontal plane have an angle D; a tray 6 is also arranged between the washing barrel assembly 1 and the beneficiation plate 7, the The tray 6 is located below the discharge port of the ore-washing barrel assembly 1. After passing through the tray 6, the ore is laterally expanded and enters the feeding area of ​​the ore-dressing disc 7. A vibration assembly 2 is also provided inside the ore-washing barrel assembly 1. The vibration assembly 2 is connected to the drive motor 4 through a coupling 3. The roller bracket 5 is supported at both ends of the ore-washing barrel assembly 1. The ore-washing barrel assembly 1 is driven to rotate and vibrate through the vibration assembly 2. A rotatable magnetic cone assembly 8 is provided on the guide surface of the ore-dressing disc 7. The shaking table bracket 9 is provided at the bottom of the ore-dressing disc 7. The ore is screened and separated by the magnetic cone assembly 8.

[0040] The axial extension direction B of the ore-washing barrel assembly 1 has a certain angle with the horizontal plane, the extension direction C of the guide surface of the ore-dressing plate 7 has a certain angle with the horizontal plane, and the projections of the axial extension direction B of the ore-washing barrel assembly 1 and the extension direction C of the guide surface of the ore-dressing plate 7 on the horizontal plane have an arrangement mode with an angle D, which can prevent the movement trajectory of fine ore particles that may be generated due to the action of various forces such as interaction force, gravity and friction between fine ore particles from deviating from the ideal state.

[0041] The ore-washing barrel assembly 1 is driven by the vibration assembly 2 to rotate and swing on the drum support 5 at the same time, so that the ore in the ore-washing barrel assembly 1 can enter the tray 6 in better layers and flatly during the lateral swing, and at the same time, fine particles of ore can be prevented from adhering to the ore-washing barrel assembly 1.

[0042] See attached Figure 2 and 9The magnetic cone assembly 8 includes a magnetic cone surface 81, a friction strip 82 circumferentially arranged on the magnetic cone surface 81, and a retaining ring 83 arranged at the top of the magnetic cone surface 81; a strong magnet is arranged inside the magnetic cone surface 81, and the magnetic cone assembly 8 is connected to a rotating drive mechanism. After the ore slides onto the magnetic cone surface 81, the magnetic ore is adsorbed by the magnetic cone surface 81, and the magnetic cone surface 81 rotates and takes the adsorbed ore away from the ore fluid, wherein the friction strip 82 on the magnetic cone surface 81 can further reduce the moving speed of the ore fluid on the magnetic cone surface 81, so as to ensure that the fine particles of ore can be adsorbed by the magnetic cone surface 81 and separated from the ore fluid.

[0043] A magnetic cone assembly 8 having a magnetic cone surface 81 is provided on the beneficiation disk 7, wherein the beneficiation disk 7 is tilted so that the area where the magnetic cone surface 81 provided on the beneficiation disk 7 contacts the ore is relatively flat, which can better allow the magnetic ore to be adsorbed on the magnetic cone surface 81.

[0044] The ore dressing plate 7 includes an inclined plate body 71, a baffle plate 72, an arc plate 73, a first discharge plate 74 and a second discharge plate 75; the baffle plate 72 is arranged in the feeding area on the inclined plate body 71, and the magnetic cone assembly 8 is arranged in the middle of the inclined plate body 71. The baffle plate 72 is arranged opposite to the tray 6 and is located above the magnetic cone assembly 8. After the ore enters the feeding area, it is guided to the magnetic cone surface 81 of the magnetic cone assembly 8 by the baffle plate 72; the first discharge plate 74 and the second discharge plate 75 are arranged on the inclined plate body 71 at the same height as the magnetic cone assembly 8, and the first discharge plate 74 and the second discharge plate 75 are located on both sides of the magnetic cone assembly 8. The non-magnetic ore enters the first discharge plate 74 after passing through the magnetic cone surface 81 of the magnetic cone assembly 8, and the magnetic ore is adsorbed by the magnetic cone surface 81 and brought into the second discharge plate 75 on the other side; an arc plate 73 is also arranged above the second discharge plate 75. More specifically, the lower end of the baffle plate 72 is located near the 12 o'clock position of the magnetic cone surface 81 of the magnetic cone assembly 8, the upper end of the second discharge plate 75 is located near the 3 o'clock position of the magnetic cone surface 81, and the first discharge plate 74 is located near the 9 o'clock position of the magnetic cone surface 81. The magnetic cone surface 81 rotates counterclockwise, and when the ore fluid flows downward along the inclined surface of the inclined plate body 71, after encountering the inclined plate body 71 that is inclined upward relative to the inclined plate body 71, the speed of the ore fluid is reduced due to the slowing of the inclination of the bearing surface, which facilitates the magnetic ore to be adsorbed by the magnetic cone surface 81.

[0045] In another embodiment, a limit plate 76 is further provided on the side of the feed area on the inclined plate body 71 opposite to the baffle plate 72, and the limit plate 76 limits the ore fluid from completely moving to the magnetic cone surface 81 of the magnetic cone assembly 8, thereby preventing the ore fluid from entering the first discharge plate 74 without passing through the magnetic cone surface 81.

[0046] The baffle plate 72, the limit plate 76 and the baffles around the inclined plate body 71 are fixedly connected to the inclined plate body 71 through the mounting plate 77; the first discharge plate 74 and the second discharge plate 75 have the same structure and both include a mounting portion 741, a guide slope 742, a vertical baffle 743 and a scraper 744, the guide slope 742 is fixed to the inclined plate body 71 through the mounting portion 741, a vertical baffle 743 is provided at the upper end of the guide slope 742, and a scraper 744 is provided at the joint between the upper end of the guide slope 742 and the magnetic conical surface 81; the ore adsorbed on the magnetic conical surface 81 is separated by the scraper 744 of the second discharge plate 75 and enters the guide slope 742 of the second discharge plate 75.

[0047] The projections of the axial extension direction B of the ore-washing barrel assembly and the extension direction C of the guide surface of the ore-dressing disc on the horizontal plane have an angle D, so that after the ore fluid enters the ore-dressing disc 7 from the tray 6, it is blocked by the baffle plate 72 and changes direction and slides to the magnetic cone 81. In conjunction with the limit plate 76, the ore fluid entering the ore-dressing disc 7 can completely contact the magnetic cone 81, and then can adsorb and separate the magnetic ore therefrom. The projections of the axial extension direction B of the ore-washing barrel assembly and the extension direction C of the guide surface of the ore-dressing disc on the horizontal plane have an angle D, so that the baffle plate 72 is basically consistent with the extension direction C of the guide surface of the ore-dressing disc, thereby preventing fine particles of ore from adhering to the baffle plate 72, and helping the ore fluid to spread horizontally in the feeding area and move to the magnetic cone 81, thereby preventing the magnetic mineral particles caused by the ore particles being too small from magnetically agglomerating and forming agglomerates under the action of the magnetic field.

[0048] The ore-washing barrel assembly 1 includes a barrel net body 11 and an actuating shell 13 arranged at the center of the barrel net body 11. The two ends of the barrel net body 11 are connected to the actuating shell 13 through a connecting plate 12; the two ends of the actuating shell 13 are rotatably arranged on the roller bracket 5 through bearings, and a vibration component 2 is arranged inside the actuating shell 13. The driving motor 4 drives the vibration component 2 to rotate and generate vibration through the coupling 3, and then the vibration component 2 drives the ore-washing barrel assembly 1 to rotate and swing laterally on the roller bracket 5 through the actuating shell 13.

[0049] According to the attached Figure 3The roller bracket 5 includes a supporting frame 51, a supporting cross frame 52 and an elastic bracket 53. The supporting frame 51 includes two columns 511. The upper ends of the columns 511 are provided with cross beams 512. The ends of the cross beams 512 are fixedly connected to the two ends of the supporting cross frame 52 through mounting blocks 513. The supporting cross frame 52 is a C-shaped structure. The middle part of the C-shaped structure is a transversely arranged cross plate 522. The two ends of the cross plate 522 are fixedly connected with a vertical plate seat 521. The vertical plate seat 521 is fixedly connected to the mounting block 513. The middle part of the vertical plate seat 521 is provided with a waist-shaped hole. 523, providing an escape space for the coupling 3, a plurality of reinforcing ribs 524 are arranged between the vertical plate seat 521 and the horizontal plate 522; the elastic bracket 53 includes a moving frame 531 and limiting holes 532 arranged at both ends of the moving frame 531, and a through hole 533 is arranged in the middle of the moving frame 531; guide pillars 525 are arranged on the opposite end surfaces of the two vertical plate seats 521, and the guide pillars 525 are slidably matched with the limiting holes 532 of the elastic bracket 53, and a spring 526 is sleeved on the guide pillars 525 between the vertical plate seat 521 and the moving frame 531.

[0050] According to the attached Figure 6 The actuating shell 13 includes a shaft cylinder 131 located at the center of the drum net body 11, and a speed change housing 132 arranged at one end of the shaft cylinder 131, and the speed change housing 132 extends to the outside of the drum net body 11; one end of the shaft cylinder 131 is arranged on the elastic bracket 53 of the roller bracket 5 on one side through a bearing, and the speed change housing 132 is accommodated in the elastic bracket 53 of the roller bracket 5 on the other side, and the connecting section of the speed change housing 132 and the shaft cylinder 131 is arranged on the elastic bracket 53 through a bearing; the ore washing drum assembly 1 rotates on the elastic brackets 53 on both sides, and the ore washing drum assembly 1 and the elastic bracket 53 swing together on the supporting cross frame 52.

[0051] The vibration assembly 2 includes an eccentric shaft 21 and a speed change assembly 22 arranged at the end of the eccentric shaft 21. The transmission shaft 211 of the eccentric shaft 21 is arranged in the shaft cylinder 131 of the actuating housing 13 through a bearing, and a mass block 212 is arranged on the transmission shaft 211; the speed change assembly 22 is arranged in the speed change housing 132, and the speed change assembly 22 includes a sun gear 221 connected to the end of the transmission shaft 211 through a spline, a gear ring 223 fixedly connected to the inner wall of the speed change housing 132, and a gear ring 224 fixedly connected to the sun gear 211. The planetary gear 222 meshing with the ring gear 223, through the deceleration of the sun gear 221, the ring gear 223 and the planetary gear 222, makes the rotation speed of the transmission shaft 211 be decelerated and transmitted to the speed change housing 132, thereby driving the slow rotation of the drum net body 11. The high-speed rotating transmission shaft 211 can ensure that the mass block 212 on the transmission shaft 211 can generate enough centrifugal force to make the drum net body 11 drive the elastic bracket 53 to swing laterally on the supporting cross frame 52, thereby simplifying the swing and rotation driving mechanism of the ore washing drum assembly 1.

[0052] See attached Figure 5 The coupling 3 includes a first flange 31, a second flange 32 and a third flange 33 arranged in parallel, a rotatable connecting block 30 is connected between the first flange 31 and the second flange 32 through a pin shaft, and a rotatable connecting block 30 is connected between the second flange 32 and the third flange 33 through a pin shaft; the first flange 31 is fixedly connected to the end of the transmission shaft 211, and the third flange 33 is fixedly connected to the output shaft 41 of the driving motor 4. Specifically, two rotating shafts are arranged at both ends of the connecting block 30, and the axial direction of the rotating shaft is perpendicular to the first flange 31. , a second flange 32 and a third flange 33, one rotating shaft of the connecting block 30 is hinged on the end face of the first flange 31, and the other rotating shaft of the connecting block 30 is hinged on the second flange 32; one rotating shaft of the connecting block 30 is hinged on the end face of the second flange 32, and the other rotating shaft of the connecting block 30 is hinged on the third flange 33, so that the torque of the third flange 33 can be transmitted to the first flange 31, and the relative position of the third flange 33 and the first flange 31 can be changed laterally, so that the torque of the output shaft 41 can be transmitted to the transmission shaft 211 that can swing laterally.

[0053] 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 magnetic shaking table for washing and beneficiating fine-grained complex ores, comprising a washing cylinder assembly (1) and a beneficiation plate (7) arranged below the washing cylinder assembly (1), characterized in that: The ore-washing barrel assembly (1) and the ore-dressing plate (7) are arranged at an angle, an axis extension direction B of the ore-washing barrel assembly (1) forms a certain angle with a horizontal plane, an extension direction C of a guide surface of the ore-dressing plate (7) forms a certain angle with a horizontal plane, and projections of the axis extension direction B of the ore-washing barrel assembly (1) and the extension direction C of the guide surface of the ore-dressing plate (7) on the horizontal plane intersect and form an angle D; A tray (6) is further provided between the ore-washing barrel assembly (1) and the ore-dressing plate (7), wherein the tray (6) is located below the discharge port of the ore-washing barrel assembly (1), and the ore is laterally spread out after passing through the tray (6) and enters the feeding area of ​​the ore-dressing plate (7); A vibration assembly (2) is also provided inside the ore-washing barrel assembly (1); the vibration assembly (2) is connected to a driving motor (4) via a coupling (3); a roller bracket (5) is supported at both ends of the ore-washing barrel assembly (1); and the ore-washing barrel assembly (1) is driven to rotate and vibrate via the vibration assembly (2); A rotatable magnetic cone assembly (8) is arranged on the guide surface of the ore dressing plate (7), and a shaking table bracket (9) is arranged at the bottom of the ore dressing plate (7), and the ore is screened and separated by the magnetic cone assembly (8).

2. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 1 is characterized by: The magnetic cone assembly (8) comprises a magnetic cone surface (81), a friction strip (82) circumferentially arranged on the magnetic cone surface (81), and a retaining ring (83) arranged at the top end of the magnetic cone surface (81); A strong magnet is arranged inside the magnetic cone surface (81), and the magnetic cone assembly (8) is connected to a rotary drive mechanism. After the ore slides onto the magnetic cone surface (81), the magnetic ore is adsorbed by the magnetic cone surface (81), and the magnetic cone surface (81) rotates to remove the adsorbed ore from the ore fluid.

3. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 2 is characterized by: The ore dressing plate (7) comprises an inclined plate body (71), a material blocking plate (72), an arc-shaped plate (73), a first discharge plate (74) and a second discharge plate (75); The baffle plate (72) is arranged in the feeding area on the inclined plate body (71); the magnetic cone assembly (8) is arranged in the middle of the inclined plate body (71); the baffle plate (72) is arranged opposite to the tray (6) and is located above the magnetic cone assembly (8); after the ore enters the feeding area, it is guided by the baffle plate (72) to the magnetic cone surface (81) of the magnetic cone assembly (8); A first discharge plate (74) and a second discharge plate (75) are arranged on the inclined plate body (71) at the same height as the magnetic cone assembly (8); the first discharge plate (74) and the second discharge plate (75) are located on both sides of the magnetic cone assembly (8); non-magnetic ore passes through the magnetic cone surface (81) of the magnetic cone assembly (8) and enters the first discharge plate (74); magnetic ore is adsorbed by the magnetic cone surface (81) and brought into the second discharge plate (75) on the other side; an arc plate (73) is also arranged above the second discharge plate (75).

4. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 3 is characterized by: A limiting plate (76) is also provided on the side of the inclined plate body (71) at the feeding area opposite to the baffle plate (72), and the limiting plate (76) limits the ore fluid from completely moving onto the magnetic cone surface (81) of the magnetic cone assembly (8).

5. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 4 is characterized by: The baffle plate (72), the limit plate (76) and the baffle plates around the inclined plate body (71) are fixedly connected to the inclined plate body (71) via a mounting plate (77); The first discharge plate (74) and the second discharge plate (75) have the same structure and both comprise a mounting portion (741), a guide inclined surface (742), a vertical baffle (743) and a scraper (744); the guide inclined surface (742) is fixed to the inclined plate body (71) via the mounting portion (741); the upper end of the guide inclined surface (742) is provided with a vertical baffle (743); and the scraper (744) is provided at the joint between the upper end of the guide inclined surface (742) and the magnetic conical surface (81); The ore adsorbed on the magnetic conical surface (81) is separated by the scraper (744) of the second discharge plate (75) and enters the guide inclined surface (742) of the second discharge plate (75).

6. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 5 is characterized by: The ore-washing cylinder assembly (1) comprises a cylinder net body (11) and an actuating shell (13) arranged at the center of the cylinder net body (11), and two ends of the cylinder net body (11) are connected to the actuating shell (13) via a connecting plate (12); The two ends of the actuating shell (13) are rotatably arranged on the roller bracket (5) via bearings, and a vibration component (2) is arranged inside the actuating shell (13). The driving motor (4) drives the vibration component (2) to rotate and generate vibration via a coupling (3), and then the vibration component (2) drives the ore washing drum component (1) to rotate and swing laterally on the roller bracket (5) via the actuating shell (13).

7. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 6 is characterized by: The roller support (5) comprises a supporting vertical frame (51), a supporting horizontal frame (52) and an elastic support (53); the supporting vertical frame (51) comprises two vertical columns (511); a horizontal beam (512) is disposed at the upper end of each vertical column (511); and the end of the horizontal beam (512) is fixedly connected to both ends of the supporting horizontal frame (52) via a mounting block (513); The supporting cross frame (52) is a C-shaped structure, the middle part of the C-shaped structure is a transversely arranged cross plate (522), both ends of the cross plate (522) are fixedly connected to a vertical plate seat (521), and the vertical plate seat (521) is fixedly connected to the mounting block (513); A waist-shaped hole (523) is provided in the middle of the vertical plate seat (521) to provide an escape space for the coupling (3); a plurality of reinforcing ribs (524) are provided between the vertical plate seat (521) and the horizontal plate (522); The elastic bracket (53) comprises a moving frame (531) and limiting holes (532) arranged at two ends of the moving frame (531); a through hole (533) is arranged in the middle of the moving frame (531); Guide pillars (525) are provided on opposite end surfaces of the two vertical plate seats (521); the guide pillars (525) are slidably matched with the limiting holes (532) of the elastic bracket (53); and a spring (526) is sleeved on the guide pillars (525) between the vertical plate seats (521) and the movable frame (531).

8. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 7 is characterized by: The actuating housing (13) comprises a shaft cylinder (131) located at the center of the cylinder net body (11), and a speed change housing (132) arranged at one end of the shaft cylinder (131), wherein the speed change housing (132) extends to the outside of the cylinder net body (11); One end of the shaft cylinder (131) is arranged on an elastic bracket (53) of a roller bracket (5) on one side via a bearing, the speed change housing (132) is accommodated in the elastic bracket (53) of the roller bracket (5) on the other side, and a connecting section between the speed change housing (132) and the shaft cylinder (131) is arranged on the elastic bracket (53) via a bearing; The ore-washing barrel assembly (1) rotates on the elastic brackets (53) on both sides, and the ore-washing barrel assembly (1) and the elastic brackets (53) swing together on the supporting cross frame (52).

9. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 8 is characterized by: The vibration component (2) comprises an eccentric shaft (21) and a speed change component (22) arranged at the end of the eccentric shaft (21); a transmission shaft (211) of the eccentric shaft (21) is arranged in a shaft cylinder (131) of an actuating housing (13) via a bearing; and a mass block (212) is arranged on the transmission shaft (211); The speed change assembly (22) is arranged in the speed change housing (132), and comprises a sun gear (221) connected to the end of the transmission shaft (211) via a spline, a ring gear (223) fixedly connected to the inner wall of the speed change housing (132), and a planetary gear (222) meshing with the sun gear (221) and the ring gear (223).

10. The integrated magnetic shaking table for washing and beneficiation of fine-grained complex ores according to claim 9 is characterized in that: The coupling (3) comprises a first flange (31), a second flange (32) and a third flange (33) arranged in parallel, a rotatable connecting block (30) being connected between the first flange (31) and the second flange (32) via a pin, and a rotatable connecting block (30) being connected between the second flange (32) and the third flange (33) via a pin; The first flange (31) is fixedly connected to the end of the transmission shaft (211), and the third flange (33) is fixedly connected to the output shaft (41) of the drive motor (4).

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