Deep processing equipment for producing high-viscosity attapulgite

Abstract

The invention discloses deep processing equipment for high-viscosity attapulgite production, and relates to the technical field of attapulgite processing, the deep processing equipment comprises a sealing structure, a mixing mechanism and a conveying mechanism, the sealing structure comprises a sealing tank and a sealing cover, and the sealing cover is connected to the top of the sealing tank in a sealed mode; the mixing mechanism is arranged in the sealing tank and comprises a first motor and a mixing shovel, the first motor drives the mixing shovel to shovel and throw the powder raw materials in the sealing tank, and then the powder raw materials in the sealing tank are fully mixed; the conveying mechanism is arranged at the bottom of the sealing tank and comprises a hydraulic cylinder and a spiral conveyor, the hydraulic cylinder drives the spiral conveyor to be slidably connected to the bottom of the sealing tank, the spiral conveyor comprises a conveying pipe, a spiral shaft and a second motor, and the second motor drives the spiral shaft to rotate in the conveying pipe. And then the powder raw materials in the sealing tank are accurately output. The device has the advantages of being reasonable in scheme concept, ingenious in structural design and convenient to use actually and maintain daily.

Description

Technical Field

[0001] The present invention relates to the technical field of attapulgite processing, and particularly relates to a deep processing device for producing high-viscosity attapulgite clay. Background Art

[0002] Attapulgite clay, also known as palygorskite or attapulgite, is a hydrous magnesium-rich silicate clay mineral with a chain-layered structure. Attapulgite clay has high plasticity in the presence of water, good stability in high temperature and brine, and a small density, generally 2.05 - 2.30 g / cm3, and a hardness of 2 - 3 (Mohs hardness).

[0003] Due to the unique crystal structure of attapulgite, it has many special physical and chemical properties and technological properties, making it one of the clay minerals with wide uses and high economic value. Attapulgite clay is mainly used in aspects such as water purification, adhesives, pesticide carriers, molecular sieves, desiccants, adsorbents, coatings, mud, activated clay, foundry sand, and chemical industry.

[0004] Chinese Patent Publication No. CN1317067C, with a publication date of May 23, 2007, and a title of "Processing Technology for Improving the Viscosity of Attapulgite Clay", its processing technology is: natural weathering, modification treatment, batching, stirring, grinding, and detection. Among them, the modification treatment method is: calculated by weight percentage, take 94 - 98% of the naturally weathered attapulgite clay, uniformly add 2 - 6% of sodium carbonate, jointly input it into the soaking pool, add clear water for soaking and aging, and the soaking time is 72 - 120 hours; take the soaked attapulgite clay, input it into a stirrer for stirring, and extrude the stirred attapulgite clay into thin slices through an extruder, with the thickness controlled at 0.5 - 2 mm, and sun-dry the attapulgite clay thin slices. After sun-drying, the water content of the attapulgite clay thin slices ≤ 15%.

[0005] However, during actual processing, when mixing two kinds of powder raw materials with different densities and particle sizes, namely attapulgite powder and sodium carbonate powder, segregation is likely to occur, resulting in uneven mixing. In addition, when transferring the mixed powder raw materials from the mixing tank to the soaking pool, the powder raw materials are likely to diffuse into the surrounding air, causing pollution to the production environment. Summary of the Invention

[0006] The purpose of the present invention is to provide a deep processing device for producing high-viscosity attapulgite clay to solve the above-mentioned defects in the prior art.

[0007] A deep processing device for producing high-viscosity attapulgite clay includes a sealing structure, a mixing mechanism, and a conveying mechanism. Among them, The sealing structure includes a sealing tank and a sealing cover, and the sealing cover is sealingly connected to the top of the sealing tank; The mixing mechanism is arranged inside the sealed tank and includes a first motor and mixing shovels. The first motor cooperates with a crank and connecting rod mechanism to drive the mixing shovels to shovel and toss the powder raw materials in the sealed tank, thereby fully mixing the powder raw materials in the sealed tank. The conveying mechanism is arranged at the bottom of the sealed tank and includes a hydraulic cylinder and a screw conveyor. The hydraulic cylinder drives the screw conveyor to be slidably connected to the bottom of the sealed tank. The screw conveyor includes a conveying pipe, a screw shaft and a second motor. The second motor drives the screw shaft to rotate inside the conveying pipe, thereby accurately discharging the powder raw materials in the sealed tank.

[0008] Preferably, feeding ports are symmetrically arranged on the left and right sides of the side surface of the sealed tank, a discharging port is arranged in the center of the bottom surface of the sealed tank, a plurality of support legs are uniformly fixed on the outer side of the sealed tank, a sealing ring is pasted on the edge of the discharging port, and a sealing cap is detachably connected inside the sealing ring.

[0009] Preferably, a pair of support pipes are symmetrically installed on the upper side of the sealing cover. A bearing seat is installed in the center of the upper side of each support pipe, and a crankshaft is rotatably connected between the front and rear bearing seats. The first motor is horizontally installed on the upper side of the sealing cover, and its output end is connected to the rear end of the crankshaft through a first coupling. A connecting rod is rotatably connected to the crankpin of the crankshaft.

[0010] Preferably, the lower end of the connecting rod is hinged with an installation ring. A sealing plate is coaxially arranged below the sealing cover, and a plurality of first screws are evenly connected between the two. The diameter of the sealing plate is the same as the inner diameter of the sealed tank. The center of the sealing plate is rotatably connected with a guiding pipe through a one-way bearing. An installation pipe is slidably connected inside the guiding pipe, and a sliding pipe is slidably connected to the outside of the installation pipe. An installation block is coaxially fixed to the outside of the sliding pipe, and a ball bearing is connected between the installation block and the installation ring. A plurality of connecting frames are evenly hinged to the lower end of the installation pipe, and a plurality of mixing shovels are correspondingly fixed to the outer ends of each connecting frame. A cross-shaped fixing frame is horizontally fixed to the lower part of the installation pipe. A first compression spring is connected between each connecting frame and the fixing frame, and a connecting bar is hinged between each connecting frame and the sliding pipe. Installation grooves are circularly arranged in the middle of the installation pipe. A right-angled triangular limiting block is hinged in each installation groove, and a second compression spring is connected between each limiting block and the installation pipe.

[0011] Preferably, a U-shaped fixing frame is fixed to the bottom of the sealed tank. A pair of hydraulic cylinders are symmetrically installed on the left and right sides of the fixing frame. The hydraulic cylinders are horizontally arranged inward, and a hinge seat is connected to the end of the piston rod of each hydraulic cylinder. A hinge bar is hinged between the hinge seat and the conveying pipe. The bottom end of the conveying pipe is hermetically connected with a corrugated pipe. The bottom end of the corrugated pipe is coaxially connected with a sealing cover, and a telescopic frame is connected between the corrugated pipe and the left and right hinge seats.

[0012] Preferably, a number of first vibration motors are evenly installed on the outer side of the sealed tank, and a number of second vibration motors are evenly installed on the upper side of the sealing plate.

[0013] Preferably, spiral guiding grooves are circularly arrayed on the inner wall of the guiding pipe, and mounting posts are circularly arrayed at the upper end of the mounting pipe, and each mounting post is correspondingly slidably connected in each guiding groove.

[0014] Preferably, discharge grooves are circularly arrayed on the upper part of the conveying pipe, and discharge grooves are circularly arrayed at the lower end of the conveying pipe. The spiral shaft is rotatably connected inside the conveying pipe. The second motor is vertically installed below the conveying pipe through a number of second screw rods, and its output end is connected to the lower end of the spiral shaft through a second coupling.

[0015] Preferably, the sealing ring is coaxially sleeved on the outer side of the conveying pipe, and the sealing cap is coaxially fixed at the top end of the conveying pipe.

[0016] Compared with the prior art, the present invention has the following advantages: 1. By shoveling and throwing the powder raw materials in the sealed tank at a high frequency, the powder raw materials in the sealed tank can be fully mixed, and the segregation phenomenon caused by density and particle size differences can be avoided or alleviated to a great extent.

[0017] 2. By driving the feeding end of the screw conveyor to extend to the bottom of the sealed tank by the hydraulic cylinders on both sides, and at the same time, driving the sealing cover close to the water surface of the soaking pool, the diffusion of the powder raw materials into the surrounding air can be avoided to a great extent. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a three-dimensional structural schematic diagram of the whole of the present invention.

[0019] Figure 2 is a front structural schematic diagram of the whole of the present invention.

[0020] Figure 3 is a three-dimensional structural schematic diagram of the whole sealing structure.

[0021] Figure 4 is a three-dimensional structural schematic diagram of the whole mixing mechanism.

[0022] Figure 5 is a structural schematic diagram of a local first perspective of the mixing mechanism.

[0023] Figure 6 is a structural schematic diagram of a local second perspective of the mixing mechanism.

[0024] Figure 7 is a perspective structural schematic diagram of the guiding pipe in the mixing mechanism.

[0025] Figure 8 It is a three-dimensional structural schematic diagram of the whole conveying mechanism.

[0026] Figure 9 It is a three-dimensional structural schematic diagram of a part of the conveying mechanism.

[0027] Among them: 10 - Sealing structure; 101 - Sealing tank; 101a - Feed inlet; 101b - Discharge outlet; 102 - Support leg; 103 - Sealing cover; 103a - Through port; 104 - Screw one; 105 - Sealing plate; 105a - Through slot; 106 - Sealing ring; 107 - Sealing cap; 108 - Vibration motor one; 109 - Vibration motor two; 20 - Mixing mechanism; 201 - Support pipe; 202 - Bearing seat; 203 - Crankshaft; 204 - Motor one; 205 - Coupling one; 206 - Connecting rod; 207 - Installation ring; 208 - One-way bearing; 209 - Guide pipe; 209a - Guide groove; 210 - Installation pipe; 210a - Installation slot; 211 - Installation column; 212 - Sliding pipe; 213 - Installation block; 214 - Ball bearing; 215 - Connecting frame; 216 - Mixing shovel; 217 - Fixed frame; 218 - Compression spring one; 219 - Connecting strip; 220 - Limit block; 221 - Compression spring two; 30 - Conveying mechanism; 301 - Fixed frame; 302 - Hydraulic cylinder; 303 - Hinge seat; 304 - Hinge bar; 305 - Conveying pipe; 305a - Feed chute; 305b - Discharge chute; 306 - Screw shaft; 307 - Screw two; 308 - Motor two; 309 - Coupling two; 310 - Bellows; 311 - Sealing cover; 312 - Telescopic frame. Specific embodiments

[0028] In order to make the technical means, creative features, achieved purposes and effects of the present invention easy to understand, the present invention will be further described below in conjunction with specific embodiments.

[0029] As Figures 1 to 9 shown, a deep processing device for the production of high-viscosity adhesive attapulgite includes a sealing structure 10, a mixing mechanism 20 and a conveying mechanism 30. Among them, The sealing structure 10 includes a sealing tank 101 and a sealing cover 103, and the sealing cover 103 is sealingly connected to the top of the sealing tank 101; The mixing mechanism 20 is arranged inside the sealing tank 101 and includes a motor one 204 and a mixing shovel 216. The motor one 204 drives the mixing shovel 216 to shovel and throw the powder raw materials in the sealing tank 101 through a crank and connecting rod mechanism, so as to fully mix the powder raw materials in the sealing tank 101; The conveying mechanism 30 is arranged at the bottom of the sealed tank 101 and includes a hydraulic cylinder 302 and a screw conveyor. The screw conveyor is slidably connected to the bottom of the sealed tank 101 driven by the hydraulic cylinder 302. The screw conveyor includes a conveying pipe 305, a screw shaft 306 and a second motor 308. The screw shaft 306 is driven by the second motor 308 to rotate inside the conveying pipe 305, so as to accurately output the powder raw material in the sealed tank 101.

[0030] In this embodiment, feeding ports 101a are symmetrically arranged on the left and right sides of the side surface of the sealed tank 101, a discharge port 101b is arranged in the middle of the bottom surface of the sealed tank 101, a plurality of support legs 102 are evenly fixed on the outer side of the sealed tank 101, a sealing ring 106 is pasted on the edge of the discharge port 101b, and a sealing cap 107 is detachably connected inside the sealing ring 106. The discharge port 101b can be blocked by the cooperation between the sealing ring 106 and the sealing cap 107. The attapulgite powder is put into the sealed tank 101 through the left feeding port 101a, and the sodium carbonate powder is put into the sealed tank 101 through the right feeding port 101a. After the sealing cap 107 is removed, the mixed powder raw material can be discharged out of the sealed tank 101 through the discharge port 101b.

[0031] In this embodiment, a pair of support pipes 201 are symmetrically installed on the front and back sides of the upper side of the sealing cover 103. A bearing seat 202 is installed in the middle of the upper side of each support pipe 201, and a crankshaft 203 is rotatably connected between the front and rear bearing seats 202. The first motor 204 is horizontally installed on the upper side of the sealing cover 103, and its output end is connected to the rear end of the crankshaft 203 through a coupling 205. A connecting rod 206 is rotatably connected to the connecting rod neck of the crankshaft 203. The above content is the crank and connecting rod mechanism.

[0032] In this embodiment, an installation ring 207 is hinged to the lower end of the connecting rod 206. A sealing plate 105 is coaxially arranged below the sealing cover 103, and a number of first screws 104 are evenly connected between the two. The diameter of the sealing plate 105 is the same as the inner diameter of the sealing tank 101. The center of the sealing plate 105 is rotationally connected to a guiding pipe 209 through a one-way bearing 208. An installation pipe 210 is slidably connected inside the guiding pipe 209, and a sliding pipe 212 is slidably connected to the outside of the installation pipe 210. An installation block 213 is coaxially fixed to the outside of the sliding pipe 212, and a ball bearing 214 is connected between the installation block 213 and the installation ring 207. A number of connecting frames 215 are evenly hinged to the lower end of the installation pipe 210. A number of mixing shovels 216 are provided and are correspondingly fixed to the outer ends of the respective connecting frames 215. A cross-shaped fixing frame 217 is horizontally fixed to the lower part of the installation pipe 210. A first compression spring 218 is connected between each connecting frame 215 and the fixing frame 217. A connecting bar 219 is hinged between each connecting frame 215 and the sliding pipe 212. Installation grooves 210a are circularly arranged in the middle of the installation pipe 210. A right-angled triangular limiting block 220 is hinged in each installation groove 210a, and a second compression spring 221 is connected between each limiting block 220 and the installation pipe 210. The motor 204 drives the installation pipe 210 to reciprocate up and down through a crank and connecting rod mechanism. When the installation pipe 210 moves downward, the sliding pipe 212, the installation pipe 210, and the surrounding mixing shovels 216 will first move downward synchronously. When the mixing shovel 216 touches the bottom of the sealing tank 101, the installation pipe 210 immediately stops moving downward. The mixing shovel 216 will converge inward along the spherical bottom of the tank and scoop up the powder raw materials at the bottom of the tank. When the sliding pipe 212 slides downward along the installation pipe 210, since the limiting block 220 will contract into the installation groove 210a under the downward extrusion force, the sliding pipe 212 can smoothly slide below the limiting block 220, and the limiting block 220 can prevent the sliding pipe 212 from sliding upward, so that the surrounding mixing shovels 216 are always in a gathered state. When the installation pipe 210 moves upward, the sliding pipe 212, the installation pipe 210, and the surrounding mixing shovels 216 will first move upward synchronously. When the limiting block 220 is under the extrusion force from the lower end surface of the guiding pipe 209, it will contract into the installation groove 210a, and the installation pipe 210 will quickly extend downward under the action of the surrounding first compression springs 218, so that the surrounding mixing shovels 216 quickly open, and then the scooped powder raw materials are dropped.

[0033] In this embodiment, a "U"-shaped fixing frame 301 is fixed to the bottom of the sealed tank 101. A pair of hydraulic cylinders 302 are provided and symmetrically installed on the left and right sides of the fixing frame 301. The hydraulic cylinders 302 are horizontally arranged inward, and a hinge seat 303 is connected to the end of the piston rod thereof. An articulated bar 304 is hinged between the hinge seat 303 and the conveying pipe 305. The bottom end of the conveying pipe 107 is hermetically connected to a corrugated pipe 310. The bottom end of the corrugated pipe 310 is coaxially connected to a sealing cover 311, and a telescopic frame 312 is connected between the corrugated pipe 310 and the left and right hinge seats 303. By extending the piston rods of the hydraulic cylinders 302 on both sides to drive the left and right articulated bars 304 to fold up, the conveying pipe 305 on the screw conveyor is pushed to move upward along the discharge port 101b, and the feeding end of the screw conveyor is inserted into the bottom of the sealed tank 101. At the same time, by extending the piston rods of the hydraulic cylinders 302 on both sides to drive the sealing cover 311 close to the water surface of the soaking pool, the diffusion of the powder raw material into the surrounding air can be largely avoided; by contracting the piston rods of the hydraulic cylinders 302 on both sides to drive the left and right articulated bars 304 to flatten, the conveying pipe 305 on the screw conveyor is pushed to move downward along the discharge port 101b, and the feeding end of the screw conveyor is exposed to the bottom of the sealed tank 101. At the same time, by contracting the piston rods of the hydraulic cylinders 302 on both sides to drive the sealing cover 311 away from the water surface of the soaking pool, it is convenient to transfer the soaking pool below.

[0034] In this embodiment, a plurality of vibration motors I 108 are uniformly installed on the outer side of the sealed tank 101, and a plurality of vibration motors II 109 are uniformly installed on the upper side of the sealing plate 105. The powder raw material adhering to the inner wall of the sealed tank 101 can be shaken off by the vibration motors I 108; the powder raw material adhering to the lower surface of the sealing plate 105 can be shaken off by the vibration motors II 109.

[0035] In this embodiment, spiral guiding grooves 209a are circularly arranged on the inner wall of the guiding pipe 209, and mounting posts 211 are circularly arranged at the upper end of the mounting pipe 210. Each mounting post 211 is correspondingly slidably connected in each guiding groove 209a. When the mounting posts 211 on the mounting pipe 210 slide upward along the guiding grooves 209a, the guiding pipe 209 cannot rotate due to the one-way bearing 208 being locked in the counterclockwise direction, and the mounting pipe 210 will perform a spiral upward movement; when the mounting posts 211 on the mounting pipe 210 slide downward along the guiding grooves 209a, the guiding pipe 209 can rotate due to the one-way bearing 208 being movable in the clockwise direction, and the mounting pipe 210 will perform a vertical downward movement.

[0036] In this embodiment, discharge slots 305a are circularly arrayed on the upper part of the conveying pipe 305, and discharge slots 305b are circularly arrayed at the lower end of the conveying pipe 305. The spiral shaft 306 is rotatably connected to the inside of the conveying pipe 305. The second motor 308 is vertically installed below the conveying pipe 305 through a plurality of second screws 307, and its output end is connected to the lower end of the spiral shaft 306 through a second coupling 309. The powder raw material in the sealed tank 101 can enter the conveying pipe 305 through the feed slot 305a, the spiral shaft 306 in the conveying pipe 305 is driven by the second motor 308 to rotate, and the powder raw material in the conveying pipe 305 is conveyed out through the discharge slot 305b.

[0037] In this embodiment, the sealing ring 106 is coaxially sleeved on the outside of the conveying pipe 107, and the sealing cap 107 is coaxially fixed to the top end of the conveying pipe 305. The sealing ring 106 can prevent the powder raw material from leaking out through the gap between the conveying pipe 107 and the discharge port 101b, and the sealing cap 107 can prevent the powder raw material from leaking out directly from the discharge port 101b.

[0038] In this embodiment, a through hole 103a through which the connecting rod 206 can freely pass is provided at the center of the sealing cover 103, and through slits 105a through which the connecting rod 206 can automatically pass are provided on the front and rear sides of the sealing plate 105.

[0039] The working principle of this deep processing equipment for the production of high-viscosity binder attapulgite: S1: The piston rods of the hydraulic cylinders 302 on both sides contract and drive the left and right hinge bars 304 to flatten, thereby pushing the conveying pipe 305 on the screw conveyor to move downward along the discharge port 101b, and pressing the sealing cap 107 tightly into the sealing ring 106. The discharge port 101b is blocked by the cooperation between the sealing ring 106 and the sealing cap 107. S2: Attapulgite powder is put into the sealed tank 101 through the left feed port 101a, and sodium carbonate powder is put into the sealed tank 101 through the right feed port 101a. S3: Drive the installation pipe 210 to reciprocate up and down through the first motor 204 via the crank and connecting rod mechanism: ① When the installation pipe 210 moves downward, the sliding pipe 212, the installation pipe 210, and the surrounding mixing shovels 216 will first move downward synchronously. When the mixing shovel 216 touches the bottom of the sealed tank 101, the installation pipe 210 will immediately stop moving downward. The mixing shovel 216 will converge inward along the spherical bottom of the tank and scoop up the powder raw materials at the bottom of the tank. When the sliding pipe 212 slides downward along the installation pipe 210, since the limit block 220 will contract into the installation groove 210a under the downward extrusion force, the sliding pipe 212 can smoothly slide down to the lower side of the limit block 220, and the limit block 220 can prevent the sliding pipe 212 from sliding upward, keeping the surrounding mixing shovels 216 in a converged state all the time; ② When the installation pipe 210 moves upward, the sliding pipe 212, the installation pipe 210, and the surrounding mixing shovels 216 will first move upward synchronously. When the limit block 220 is under the extrusion force from the lower end face of the guiding pipe 209 and contracts into the installation groove 210a, and the installation pipe 210 quickly extends downward under the action of the surrounding first compression spring 218, causing the surrounding mixing shovels 216 to quickly open, and then throwing down the scooped powder raw materials; S4: Extend the piston rods of the hydraulic cylinders 302 on both sides and drive the left and right hinge bars 304 to converge, thereby pushing the conveying pipe 305 on the screw conveyor to move upward along the discharge port 101b, raising the sealing cap 107 above the sealing ring 106, and inserting the feeding end of the screw conveyor into the bottom of the sealed tank 101; S5: The fully mixed powder raw materials enter the conveying pipe 305 through the feeding groove 305a, drive the screw shaft 306 in the conveying pipe 305 to rotate by the second motor 308, and convey the powder raw materials in the conveying pipe 305 out through the discharge groove 305b. After that, the powder raw materials fall into the soaking pool along the corrugated pipe 310 and the sealing cover 311.

[0040] Therefore, the above - disclosed implementation schemes are illustrative in all aspects and not exclusive. All changes within the scope of the present invention or within the scope equivalent to the present invention are encompassed by the present invention.

Claims

1. A deep processing equipment for producing high viscosity attapulgite, characterized in that: It comprises a sealing structure (10), a mixing mechanism (20) and a conveying mechanism (30), wherein: The sealing structure (10) comprises a sealing can (101) and a sealing cover (103), wherein the sealing cover (103) is sealingly connected to the top of the sealing can (101); The mixing mechanism (20) is arranged inside the sealed tank (101) and comprises a motor 1 (204) and a mixing shovel (216). The motor 1 (204) cooperates with the crank-connecting rod mechanism to drive the mixing shovel (216) to shovel and throw the powdered raw materials in the sealed tank (101), thereby fully mixing the powdered raw materials in the sealed tank (101); The conveying mechanism (30) is arranged at the bottom of the sealed tank (101) and comprises a hydraulic cylinder (302) and a screw conveyor. The hydraulic cylinder (302) drives the screw conveyor to be slidably connected to the bottom of the sealed tank (101). The screw conveyor comprises a conveying pipe (305), a screw shaft (306) and a second motor (308). The second motor (308) drives the screw shaft (306) to rotate in the conveying pipe (305), thereby accurately outputting the powder raw material in the sealed tank (101).

2. The deep processing equipment for producing high viscosity attapulgite according to claim 1 is characterized in that: The side surface of the sealed can (101) is symmetrically provided with a feed port (101a), the bottom surface of the sealed can (101) is centrally provided with a discharge port (101b), a plurality of support legs (102) are evenly fixed to the outside of the sealed can (101), a sealing ring (106) is adhered to the edge of the discharge port (101b), and a sealing cap (107) is detachably connected to the inside of the sealing ring (106).

3. The deep processing equipment for producing high viscosity attapulgite according to claim 1 is characterized in that: A pair of support tubes (201) are symmetrically mounted on the upper side of the sealing cover (103) in front and rear directions, a bearing seat (202) is centrally mounted on the upper side of each support tube (201), and a crankshaft (203) is rotatably connected between the two front and rear bearing seats (202), the motor 1 (204) is horizontally mounted on the upper side of the sealing cover (103), and its output end is connected to the rear end of the crankshaft (203) through a coupling 1 (205), and a connecting rod (206) is rotatably connected to the connecting rod neck of the crankshaft (203).

4. The deep processing equipment for producing high viscosity attapulgite according to claim 3 is characterized in that: The lower end of the connecting rod (206) is hinged with a mounting ring (207). Below the sealing cover (103), a sealing plate (105) is coaxially arranged, and a number of first screws (104) are evenly connected between the two. The diameter of the sealing plate (105) is the same as the inner diameter of the sealing tank (101). The center of the sealing plate (105) is rotationally connected with a guiding pipe (209) through a one-way bearing (208). An installation pipe (210) is slidably connected inside the guiding pipe (209), and a sliding pipe (212) is slidably connected outside the installation pipe (210). An installation block (213) is coaxially fixed outside the sliding pipe (212), and a ball bearing (214) is connected between the installation block (213) and the mounting ring (207). A number of connecting frames (215) are evenly hinged at the lower end of the installation pipe (210). A number of mixing shovels (216) are provided and are correspondingly fixed at the outer ends of the respective connecting frames (215). A cross-shaped fixing frame (217) is horizontally fixed at the lower part of the installation pipe (210). A first compression spring (218) is connected between each connecting frame (215) and the fixing frame (217), and a connecting bar (219) is hinged between each connecting frame (215) and the sliding pipe (212). Installation grooves (210a) are circularly arranged in the middle of the installation pipe (210). A right-angled triangular limiting block (220) is hinged in each installation groove (210a), and a second compression spring (221) is connected between each limiting block (220) and the installation pipe (210).

5. The deep processing equipment for producing high viscosity attapulgite according to claim 2, characterized in that: A U-shaped fixing frame (301) is fixed at the bottom of the sealing tank (101). A pair of hydraulic cylinders (302) are provided and symmetrically installed on the left and right sides of the fixing frame (301). The hydraulic cylinders (302) are horizontally arranged inward, and a hinge seat (303) is connected to the end of the piston rod thereof. A hinge bar (304) is hinged between the hinge seat (303) and the conveying pipe (305). The bottom end of the conveying pipe (107) is hermetically connected with a corrugated pipe (310). The bottom end of the corrugated pipe (310) is coaxially connected with a sealing cover (311), and a telescopic frame (312) is connected between the corrugated pipe (310) and the two hinge seats (303) on the left and right sides.

6. The deep processing equipment for producing high viscosity attapulgite according to claim 2, characterized in that: A number of first vibration motors (108) are evenly installed on the outside of the sealing tank (101), and a number of second vibration motors (109) are evenly installed on the upper side of the sealing plate (105).

7. The deep processing equipment for producing high viscosity attapulgite according to claim 3, characterized in that: Spiral guiding grooves (209a) are circularly arranged on the inner wall of the guiding pipe (209). Installation posts (211) are circularly arranged at the upper end of the installation pipe (210), and each installation post (211) is correspondingly slidably connected in each guiding groove (209a).

8. The deep processing equipment for producing high viscosity attapulgite according to claim 1, characterized in that: The upper circular array of the conveying pipe (305) has a discharge trough (305a), the lower circular array of the conveying pipe (305) has a discharge trough (305b), the screw shaft (306) is rotatably connected to the inside of the conveying pipe (305), the second motor (308) is vertically installed below the conveying pipe (305) through a plurality of second screw rods (307), and its output end is connected to the lower end of the screw shaft (306) through a second coupling (309).

9. The deep processing equipment for producing high viscosity attapulgite according to claim 2, characterized in that: The sealing ring (106) is coaxially sleeved on the outside of the delivery pipe (107), and the sealing cap (107) is coaxially fixed to the top end of the delivery pipe (305).

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