High adhesive attapulgite production deep processing equipment
By combining a mixing shovel and a screw conveyor inside a sealed tank, the problems of uneven mixing and diffusion of attapulgite clay powder and sodium carbonate powder are solved, achieving efficient powder processing and environmental protection.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- ANHUI ANBANG MINERALS CO LTD
- Filing Date
- 2025-05-21
- Publication Date
- 2026-07-24
AI Technical Summary
When existing attapulgite clay powder is mixed with sodium carbonate powder, segregation and powder diffusion easily occur, resulting in uneven mixing and environmental pollution.
It adopts a sealed structure, mixing mechanism and conveying mechanism, including a sealed tank, mixing shovel, hydraulic cylinder and screw conveyor. The mixing shovel is driven by a motor to throw material and the screw conveyor is controlled by the hydraulic cylinder to achieve full mixing and precise output of powder raw materials and avoid diffusion.
It effectively avoids the segregation and diffusion of powder raw materials, ensures uniform mixing, and reduces pollution to the production environment.
Smart Images
Figure CN120204976B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the technical field of attapulgite processing, and specifically to a deep processing equipment for producing high-viscosity attapulgite. Background Technology
[0002] Attapulgite clay, also known as palygorskite or palygorskite chalcedony, is a hydrous magnesium silicate clay mineral with a chain-like layered structure. Attapulgite clay has high plasticity when wet, good stability in high temperature and salt water, low density (generally 2.05–2.30 g / cm³), and a hardness of 2–3 (Mohs hardness).
[0003] Due to its unique crystal structure, attapulgite possesses many special physicochemical and processing properties, making it one of the most widely used and economically valuable clay minerals. Attapulgite clay is mainly used in water purification, as a binder, pesticide carrier, molecular sieve, desiccant, adsorbent, coatings, mud, activated clay, foundry sand, and chemical industries.
[0004] Chinese Patent Publication No. CN1317067C, published on May 23, 2007, entitled "Processing Technology for Improving the Viscosity of Attapulgite Clay," describes a processing technology comprising: natural weathering, modification treatment, batching, mixing, grinding, and testing. The modification treatment method involves: taking 94-98% by weight of naturally weathered attapulgite clay, uniformly adding 2-6% sodium carbonate, and placing both into a soaking tank with water for soaking and aging for 72-120 hours; then, taking the soaked attapulgite clay and mixing it in a mixer, and extruding the mixed attapulgite clay into thin sheets with a thickness controlled at 0.5-2 mm; finally, drying the attapulgite clay sheets, ensuring the moisture content of the dried attapulgite clay sheets is ≤15%.
[0005] However, in actual processing, segregation easily occurs when mixing attapulgite powder and sodium carbonate powder, two raw materials with different densities and particle sizes, leading to uneven mixing. Furthermore, when transferring the mixed powder raw materials from the mixing tank to the soaking tank, the powder raw materials can easily diffuse into the surrounding air, causing pollution to the production environment. Summary of the Invention
[0006] The purpose of this invention is to provide a deep processing equipment for the production of high-viscosity attapulgite, so as to solve the above-mentioned defects caused by the prior art.
[0007] A deep-processing device for producing high-viscosity attapulgite includes a sealing structure, a mixing mechanism, and a conveying mechanism, wherein... The sealing structure includes a sealed container and a sealed cover, with the sealed cover being sealed to the top of the sealed container; 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 plurality of vibrating motors are evenly installed on the outer side of the sealed container, and a plurality of vibrating motors are evenly installed on the upper side of the sealing plate.
[0013] Preferably, the inner wall of the guide tube has a circular array of spiral guide grooves, and the upper end of the mounting tube has a circular array of mounting posts, each mounting post being slidably connected to each guide groove.
[0014] Preferably, the upper circular array of the conveying pipe has a feed trough, the lower circular array of the conveying pipe has a discharge trough, the spiral shaft is rotatably connected to the inside of the conveying pipe, the motor is vertically installed below the conveying pipe through several screws, and its output end is connected to the lower end of the spiral shaft through a coupling.
[0015] Preferably, the sealing ring is coaxially fitted onto the outside of the conveying pipe, and the sealing cap is coaxially fixed to the top of the conveying pipe.
[0016] Compared with the prior art, the present invention has the following advantages: 1. This invention can fully mix the powder raw materials in the sealed container by high-frequency shoveling and shoveling, which can largely avoid or reduce segregation caused by differences in density and particle size.
[0017] 2. The present invention uses hydraulic cylinders on both sides to drive the feed end of the screw conveyor to extend into the bottom of the sealed tank, and at the same time, drives the sealing cover to approach the water surface of the soaking tank, which can largely prevent the powder raw material from spreading into the surrounding air. Attached Figure Description
[0018] Figure 1 This is a schematic diagram of the overall three-dimensional structure of the present invention.
[0019] Figure 2 This is a schematic diagram of the overall front view of the present invention.
[0020] Figure 3 This is a three-dimensional structural diagram of the overall sealing structure.
[0021] Figure 4 This is a schematic diagram of the overall three-dimensional structure of the hybrid mechanism.
[0022] Figure 5 This is a schematic diagram of the hybrid mechanism from a partial first-person perspective.
[0023] Figure 6 This is a schematic diagram of the hybrid mechanism from a partial second-view perspective.
[0024] Figure 7 This is a schematic diagram of the guide tube in the hybrid mechanism.
[0025] Figure 8 This is a three-dimensional structural diagram of the conveying mechanism.
[0026] Figure 9 This is a partial three-dimensional structural diagram of the conveying mechanism.
[0027] in: 10-Sealing structure; 101-Sealed tank; 101a-Inlet; 101b-Outlet; 102-Support leg; 103-Sealing cover; 103a-Through opening; 104-Screw one; 105-Sealing plate; 105a-Through seam; 106-Sealing ring; 107-Sealing cap; 108-Vibration motor one; 109-Vibration motor two; 20-Mixing mechanism; 201-Support tube; 202-Bearing housing; 203-Crankshaft; 204-Motor I; 205-Coupling I; 206-Connecting rod; 207-Mounting ring; 208-One-way bearing; 209-Guide tube; 209a-Guide groove; 210-Mounting tube; 210a-Mounting groove; 211-Mounting column; 212-Sliding tube; 213-Mounting block; 214-Ball bearing; 215-Connecting frame; 216-Mixing shovel; 217-Fixed frame; 218-Compression spring I; 219-Connecting strip; 220-Limiting block; 221-Compression spring II; 30-Conveying mechanism; 301-Fixed frame; 302-Hydraulic cylinder; 303-Hinge seat; 304-Hinge strip; 305-Conveying pipe; 305a-Feed chute; 305b-Discharge chute; 306-Screw shaft; 307-Screw II; 308-Motor II; 309-Coupling II; 310-Bellwall; 311-Sealing cover; 312-Telescopic frame. Detailed Implementation
[0028] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.
[0029] like Figures 1 to 9 As shown, a deep processing device for producing high-viscosity attapulgite includes a sealing structure 10, a mixing mechanism 20, and a conveying mechanism 30, wherein... The sealing structure 10 includes a sealing container 101 and a sealing cover 103, wherein the sealing cover 103 is sealed to the top of the sealing container 101; The mixing mechanism 20 is located inside the sealed container 101 and includes a motor 204 and a mixing shovel 216. The motor 204, in conjunction with the crank-connecting rod mechanism, drives the mixing shovel 216 to scoop and throw the powder material in the sealed container 101, thereby fully mixing the powder material in the sealed container 101. The conveying mechanism 30 is located at the bottom of the sealed tank 101 and includes a hydraulic cylinder 302 and a screw conveyor. The hydraulic cylinder 302 drives the screw conveyor to slide and connect to the bottom of the sealed tank 101. The screw conveyor includes a conveying pipe 305, a screw shaft 306 and a second motor 308. The second motor 308 drives the screw shaft 306 to rotate inside the conveying pipe 305, thereby accurately outputting the powder raw materials inside the sealed tank 101.
[0030] In this embodiment, the sealed container 101 has symmetrically arranged inlet ports 101a on its left and right sides, and an outlet port 101b is centrally located on the bottom surface of the sealed container 101. Several support legs 102 are evenly fixed to the outer side of the sealed container 101. A sealing ring 106 is attached to the edge of the outlet port 101b, and a sealing cap 107 is detachably connected inside the sealing ring 106. The outlet port 101b is sealed by the cooperation between the sealing ring 106 and the sealing cap 107. Attapulgite powder is fed into the sealed container 101 through the left inlet port 101a, and sodium carbonate powder is fed into the sealed container 101 through the right inlet port 101a. After removing the sealing cap 107, the mixed powder raw materials can be discharged out of the sealed container 101 through the outlet port 101b.
[0031] In this embodiment, a pair of support tubes 201 are symmetrically installed on the upper side of the sealing cover 103. A bearing seat 202 is centrally installed on the upper side of each support tube 201, and a crankshaft 203 is rotatably connected between the two bearing seats 202. The 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 describes the crank-connecting rod mechanism.
[0032] In this embodiment, a mounting ring 207 is hinged to the lower end of the connecting rod 206. A sealing plate 105 is coaxially disposed below the sealing cover 103, and several screws 104 are evenly connected between the two. The diameter of the sealing plate 105 is consistent with the inner diameter of the sealing tank 101. A guide tube 209 is rotatably connected to the center of the sealing plate 105 through a one-way bearing 208. An mounting tube 210 is slidably connected inside the guide tube 209, and a sliding tube 212 is slidably connected outside the mounting tube 210. A mounting block 213 is coaxially fixed to the outside of the sliding tube 212, and a ball bearing 214 is connected between the mounting block 213 and the mounting ring 207. The lower end of the mounting tube 210 is evenly hinged with several connecting frames 215. The mixing shovel 216 is provided with several and is fixed to the outer end of each connecting frame 215. The lower part of the mounting tube 210 is horizontally fixed with a cross-shaped fixing frame 217. Each connecting frame 215 and the fixing frame 217 are connected with a compression spring 218. Each connecting frame 215 and the sliding tube 212 are hinged with a connecting strip 219. The middle part of the mounting tube 210 has a circular array of mounting grooves 210a. Each mounting groove 210a is hinged with a right-angled triangular limiting block 220. Each limiting block 220 and the mounting tube 210 are connected with a compression spring 221. The motor 204 drives the mounting tube 210 to reciprocate up and down via a crank-connecting rod mechanism. When the mounting tube 210 moves downward, the sliding tube 212, the mounting tube 210, and the surrounding mixing shovel 216 move downward synchronously. When the mixing shovel 216 touches the bottom of the sealed tank 101, the mounting tube 210 immediately stops moving downward. The mixing shovel 216 retracts inward along the spherical bottom of the tank and scoops up the powder material at the bottom. When the sliding tube 212 slides downward along the mounting tube 210, the limiting block 220 retracts into the mounting groove 210a due to the downward squeezing force, thus allowing the sliding tube 212 to slide smoothly. The sliding tube 212 slides down to the bottom of the limiting block 220, and the limiting block 220 can prevent the sliding tube 212 from sliding upward, so that the surrounding mixing shovels 216 are always in a gathered state; when the mounting tube 210 moves upward, the sliding tube 212, the mounting tube 210 and the surrounding mixing shovels 216 will move upward synchronously first. When the limiting block 220 is squeezed by the lower end face of the guide tube 209, it will retract into the mounting groove 210a, and the mounting tube 210 will quickly extend downward under the action of the surrounding compression spring 218, so that the surrounding mixing shovels 216 will quickly open and then throw down the shoveled powder raw material.
[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 305 is hermetically connected to a bellows 310. The bottom end of the bellows 310 is coaxially connected to a sealing cover 311, and a telescopic frame 312 is connected between the bellows 310 and the two hinge seats 303 on the left and right. By extending the piston rods of the two hydraulic cylinders 302 on both sides and causing the two articulated bars 304 on the left and right 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 two hydraulic cylinders 302 on both sides and causing the sealing cover 311 to approach the water surface of the soaking pool, the diffusion of the powdered raw material into the surrounding air can be largely avoided. By contracting the piston rods of the two hydraulic cylinders 302 on both sides and causing the two articulated bars 304 on the left and right to unfold, 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 two hydraulic cylinders 302 on both sides and causing the sealing cover 311 to move 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 108 are evenly installed on the outer side of the sealed tank 101, and a plurality of vibration motors 109 are evenly installed on the upper side of the sealing plate 105. The powdered raw material attached to the inner wall of the sealed tank 101 can be shaken off by the vibration motor 108; the powdered raw material attached to the lower surface of the sealing plate 105 can be shaken off by the vibration motor 109.
[0035] In this embodiment, spiral guide grooves 209a are circularly arranged on the inner wall of the guide pipe 209, and mounting posts 211 are circularly arranged at the upper end of the mounting pipe 210. Each mounting post 211 is slidably connected to each guide groove 209a correspondingly. When the mounting posts 211 on the mounting pipe 210 slide upward along the guide grooves 209a, the guide 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 guide grooves 209a, the guide 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, the upper circular array of the conveying pipe 305 has a feed chute 305a, and the lower circular array of the conveying pipe 305 has a discharge chute 305b. The spiral shaft 306 is rotatably connected to the inside of the conveying pipe 305. The motor 308 is vertically installed below the conveying pipe 305 via several screws 307, and its output end is connected to the lower end of the spiral shaft 306 via a coupling 309. The powder raw material in the sealed tank 101 can enter the conveying pipe 305 through the feed chute 305a. The motor 308 drives the spiral shaft 306 inside the conveying pipe 305 to rotate, and the powder raw material in the conveying pipe 305 is conveyed out through the discharge chute 305b.
[0037] In this embodiment, the sealing ring 106 is coaxially fitted onto the outside of the conveying pipe 305, 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 material from leaking out from the gap between the conveying pipe 305 and the outlet 101b, and the sealing cap 107 can prevent the powder material from leaking directly out from the outlet 101b.
[0038] In this embodiment, the center of the sealing cover 103 is provided with a through opening 103a through which the connecting rod 206 can pass freely, and the front and rear sides of the sealing plate 105 are provided with through slots 105a through which the connecting rod 206 can pass freely.
[0039] The working principle of this deep-processing equipment for producing high-viscosity attapulgite: S1: The piston rods of the hydraulic cylinders 302 on both sides retract and drive the two hinge bars 304 on the left and right to unfold, thereby pushing the conveying pipe 305 on the screw conveyor to move downward along the discharge port 101b, and pressing the sealing cap 107 into the sealing ring 106, thus sealing the discharge port 101b through the cooperation between the sealing ring 106 and the sealing cap 107. S2: Attapulgite powder is fed into sealed tank 101 through the left feed port 101a, and sodium carbonate powder is fed into sealed tank 101 through the right feed port 101a. S3: The motor 204 drives the mounting tube 210 to reciprocate up and down via a crank-connecting rod mechanism: ① When the mounting tube 210 moves downward, the sliding tube 212, the mounting tube 210, and the surrounding mixing shovel 216 will move downward synchronously. When the mixing shovel 216 touches the bottom of the sealed tank 101, the mounting tube 210 immediately stops moving downward. The mixing shovel 216 will retract inward along the spherical bottom of the tank and scoop up the powder material at the bottom of the tank. When the sliding tube 212 slides downward along the mounting tube 210, the limiting block 220 will retract into the mounting groove 210a due to the downward squeezing force. Therefore, the sliding tube 212 can... The sliding tube 212 slides smoothly down to the bottom of the limiting block 220, and the limiting block 220 can prevent the sliding tube 212 from sliding upward, so that the surrounding mixing shovels 216 are always in a gathered state; ② When the mounting tube 210 moves upward, the sliding tube 212, the mounting tube 210 and the surrounding mixing shovels 216 will move upward synchronously first. When the limiting block 220 is squeezed by the lower end face of the guide tube 209, it will retract into the mounting groove 210a, and the mounting tube 210 will quickly extend downward under the action of the surrounding compression spring 218, so that the surrounding mixing shovels 216 will quickly open and then throw down the shoveled powder raw materials; S4: The piston rods of the hydraulic cylinders 302 on both sides extend and drive the two hinge bars 304 on the left and right to retract, thereby pushing the conveying pipe 305 on the screw conveyor to move upward along the discharge port 101b, so that the sealing cap 107 rises above the sealing ring 106, and the feed end of the screw conveyor extends into the bottom of the sealing tank 101. S5: The fully mixed powder raw material enters the conveying pipe 305 through the feed trough 305a. The screw shaft 306 in the conveying pipe 305 is driven to rotate by the motor 308, and the powder raw material in the conveying pipe 305 is conveyed out through the discharge trough 305b. After that, the powder raw material falls into the soaking tank along the corrugated pipe 310 and the sealing cover 311.
[0040] Therefore, the disclosed embodiments described above are merely illustrative in all respects and are not exhaustive. All modifications within the scope of this invention or its equivalents are included in this invention.
Claims
1. A deep-processing equipment for producing high-viscosity attapulgite, characterized in that, It includes a sealing structure (10), a mixing mechanism (20), and a conveying mechanism (30), wherein, The sealing structure (10) includes a sealing container (101) and a sealing cap (103), wherein the sealing cap (103) is sealed to the top of the sealing container (101); The mixing mechanism (20) is located inside the sealed container (101) and includes a motor (204) and a mixing shovel (216). The motor (204) works with a crank-connecting rod mechanism to drive the mixing shovel (216) to scoop and throw the powder raw materials in the sealed container (101), thereby fully mixing the powder raw materials in the sealed container (101). The conveying mechanism (30) is located at the bottom of the sealed tank (101) and includes a hydraulic cylinder (302) and a screw conveyor. The hydraulic cylinder (302) drives the screw conveyor to slide and connect to the bottom of the sealed tank (101). The screw conveyor includes a conveying pipe (305), a screw shaft (306) and a second motor (308). The second motor (308) drives the screw shaft (306) to rotate inside the conveying pipe (305), thereby accurately outputting the powder raw materials in the sealed tank (101). A pair of support tubes (201) are symmetrically installed on the upper side of the sealing cover (103). A bearing seat (202) is centrally installed on the upper side of each support tube (201), and a crankshaft (203) is rotatably connected between the two bearing seats (202). The 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 lower end of the connecting rod (206) is hinged to a mounting ring (207). A sealing plate (105) is coaxially provided below the sealing cover (103), and several screws (104) are evenly connected between the two. The diameter of the sealing plate (105) is consistent with the inner diameter of the sealing tank (101). The center of the sealing plate (105) is rotatably connected to a guide tube (209) through a one-way bearing (208). An installation tube (210) is slidably connected inside the guide tube (209), and the installation tube (210) is slidably connected to the guide tube (209). The mounting tube (210) is externally slidably connected to a sliding tube (212). A mounting block (213) is coaxially fixed to the outside of the sliding tube (212), and a ball bearing (214) is connected between the mounting block (213) and the mounting ring (207). Several connecting frames (215) are evenly hinged to the lower end of the mounting tube (210). The mixing shovel (216) is provided with several and is fixed to the outer end of each connecting frame (215). A cross-shaped fixing frame is horizontally fixed to the lower part of the mounting tube (210). (217) Each connecting frame (215) is connected to the fixed frame (217) by a compression spring (218), and each connecting frame (215) is hinged to the sliding tube (212) by a connecting strip (219). The middle circular array of the mounting tube (210) has mounting grooves (210a), each mounting groove (210a) is hinged with a right-angled triangular limiting block (220), and each limiting block (220) is connected to the mounting tube (210) by a compression spring (221).
2. The deep processing equipment for producing high-viscosity attapulgite according to claim 1, characterized in that, The sealed container (101) has symmetrical feed inlets (101a) on its side and a discharge outlet (101b) in the center of its bottom surface. Several support legs (102) are evenly fixed on the outside of the sealed container (101). A sealing ring (106) is pasted on the edge of the discharge outlet (101b), and a sealing cap (107) is detachably connected inside the sealing ring (106).
3. The deep processing equipment for producing high-viscosity attapulgite according to claim 2, characterized in that, 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 delivery pipe (305). The bottom end of the delivery pipe (305) 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).
4. The deep processing equipment for producing high-viscosity attapulgite according to claim 1, characterized in that, A number of vibration motors I (108) are uniformly installed on the outer side of the sealed tank (101), and a number of vibration motors II (109) are uniformly installed on the upper side of the sealing plate (105).
5. The deep processing equipment for producing high-viscosity attapulgite according to claim 1, characterized in that, Spiraled guiding grooves (209a) are circularly arrayed on the inner wall of the guiding pipe (209). Installation columns (211) are circularly arrayed at the upper end of the installation pipe (210), and each installation column (211) is correspondingly slidably connected in each guiding groove (209a).
6. The deep processing equipment for producing high-viscosity attapulgite according to claim 1, characterized in that, Feeding grooves (305a) are circularly arrayed on the upper part of the delivery pipe (305), and discharging grooves (305b) are circularly arrayed at the lower end of the delivery pipe (305). The spiral shaft (306) is rotatably connected inside the delivery pipe (305). The motor II (308) is vertically installed below the delivery pipe (305) through a number of screw rods II (307), and its output end is connected to the lower end of the spiral shaft (306) through a coupling II (309).
7. 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 outer side of the delivery pipe (305), and the sealing cap (107) is coaxially fixed to the top end of the delivery pipe (305).