Caking treatment device in high-viscosity powder production process

Abstract

The invention belongs to the technical field of high-viscosity powder production, and particularly relates to a caking treatment device in the high-viscosity powder production process, which comprises a treatment mechanism, a conveying mechanism, a blockage treatment mechanism, a caking treatment mechanism, a caking treatment component, a screening mechanism and a resonance mechanism, the treatment mechanism comprises a caking treatment box, a treatment box inlet, a sliding bracket, a sliding chute and a lever connecting frame, a treatment box inlet is formed in the side edge of the top of the caking treatment box, a sliding support is arranged at the bottom of the caking treatment box, a sliding groove is formed in the inner side of the sliding support, and a lever connecting frame is arranged on the side wall of the caking treatment box; the conveying mechanism is arranged at an inlet of the treatment box; the blockage treatment mechanism is arranged on the conveying mechanism; in the high-viscosity powder production and conveying process, high-viscosity powder cakes are crushed and scattered, the scattered high-viscosity powder is screened, the high-viscosity powder production effect is guaranteed, and meanwhile the high-viscosity powder is prevented from being attached to a treatment device.

Description

Technical Field

[0001] The invention relates to the technical field of high-viscosity powder production, in particular to an agglomeration treatment device in the production process of high-viscosity powder. Background Art

[0002] High viscosity powder, also called super adhesive, is a high-strength aqueous adhesive. It is made of polymer materials and has high transparency, excellent adhesion, high adhesion and excellent weather resistance. High viscosity powder has properties such as acid resistance, alkali resistance, UV resistance, fungus resistance and water decomposition resistance, and is often used in industry, construction, home furnishing and other fields.

[0003] During the production of high-viscosity powder, due to its powdery properties, the powders will stick together during the production process to form high-viscosity powder agglomerates, which will affect the production and transportation effects. The agglomerates of the high-viscosity powder need to be processed. To this end, the present application proposes a device for processing agglomerates during the production of high-viscosity powder. Summary of the invention

[0004] The purpose of this section is to summarize some aspects of the embodiments of the present invention and briefly introduce some preferred embodiments. Some simplifications or omissions may be made in this section and the specification abstract and the invention title of this application to avoid blurring the purpose of this section, the specification abstract and the invention title, and such simplifications or omissions cannot be used to limit the scope of the present invention.

[0005] In view of the above problems and / or the problems existing in the existing high-viscosity powder production, the present invention is proposed.

[0006] Therefore, the purpose of the present invention is to provide a device for processing lumps of high-viscosity powder in the production process of high-viscosity powder. The present invention can break up the lumps of high-viscosity powder during the production and transportation of the high-viscosity powder, and screen the dispersed high-viscosity powder, thereby ensuring the production effect of the high-viscosity powder and preventing the high-viscosity powder from adhering to the processing device.

[0007] To solve the above technical problems, according to one aspect of the present invention, the present invention provides the following technical solutions:

[0008] A device for treating agglomeration in a high-viscosity powder production process, comprising:

[0009] The processing mechanism includes an agglomeration processing box, a processing box inlet, a sliding bracket, a slide groove and a lever connecting frame, wherein the processing box inlet is arranged on the top side of the agglomeration processing box, a sliding bracket is arranged on the bottom of the agglomeration processing box, a slide groove is arranged on the inner side of the sliding bracket, and a lever connecting frame is arranged on the side wall of the agglomeration processing box;

[0010] A conveying mechanism, arranged at the inlet of the processing box;

[0011] A material blocking processing mechanism is arranged on the conveying mechanism;

[0012] An agglomeration processing mechanism is arranged on the agglomeration processing box and connected to the material blocking processing mechanism;

[0013] An agglomeration processing component is arranged on the agglomeration processing mechanism;

[0014] A screening mechanism, arranged on the chute and connected to the agglomeration processing mechanism;

[0015] The resonance mechanism is arranged on the outer wall of the agglomeration treatment box and is connected with the screening mechanism.

[0016] As a preferred solution of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the conveying mechanism includes a feeding pipe, a feed pipe, a discharge pipe, a driving component, a spiral shaft and a spiral shaft transmission gear. The feed pipe is arranged on the right side of the top of the feeding pipe, and the discharge pipe connected to the inlet of the processing box is arranged on the left side of the bottom of the feeding pipe. The driving component is arranged on the right end of the feeding pipe, and a spiral shaft connected to the driving component is arranged on the inside of the feeding pipe. The left end of the spiral shaft extends out of the feeding pipe and is connected to the spiral shaft transmission gear.

[0017] As a preferred scheme of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the material blocking processing mechanism includes a material blocking processing shaft, a material blocking driven gear, a material blocking transmission disk, a material blocking eccentric shaft, a connecting rod, a gear ring, a curved tooth cutter and a transmission gearwheel, the material blocking processing shaft is rotatably connected to the discharge pipe, the material blocking processing shaft is provided with a material blocking driven gear meshing with the spiral shaft transmission gear, the material blocking processing shaft is provided with a material blocking transmission disk at one end thereof located in the discharge pipe, the material blocking transmission disk is provided with a material blocking eccentric shaft, the material blocking eccentric shaft is connected with a gear ring via a connecting rod, the gear ring surrounds the spiral shaft, the side of the gear ring is provided with evenly distributed curved tooth cutters, and the material blocking processing shaft is provided with a transmission gearwheel at one end thereof located outside the discharge pipe.

[0018] As a preferred solution of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the agglomeration processing mechanism includes a coaxial reversing bracket, a reversing gear, a reversing hollow shaft, a forward gear, a forward shaft, a changing gear and a changing transmission gear. The coaxial reversing bracket is fixed on the top of the agglomeration processing box, a reversing gear is arranged at the bottom of the coaxial reversing bracket, a reversing hollow shaft is arranged on the reversing gear, a forward gear is arranged at the top of the coaxial reversing bracket, a forward shaft passing through the reversing hollow shaft is arranged on the forward gear, a changing gear is arranged on the side of the coaxial reversing bracket, the changing gear is respectively meshed with the reversing gear and the forward gear, the side of the changing gear is connected to the coaxial changing transmission gear, and the changing transmission gear is meshed and connected with the large transmission gear.

[0019] As a preferred solution of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the agglomeration processing component includes a connecting column, an inclined plate, bottom rake teeth, a sliding sleeve, a cross plate, top rake teeth, a percussion hammer and a spring, the connecting column is fixed at the bottom of the forward rotating shaft, inclined plates are arranged around the outer wall of the connecting column, bottom rake teeth are arranged on the top of the inclined plates, the sliding sleeve is slidably connected to the outer wall of the reverse hollow shaft, cross plates are arranged on both sides of the sliding sleeve, top rake teeth are arranged at the bottom of the cross plate, the top rake teeth and the bottom rake teeth are staggered, a percussion hammer is arranged at the bottom of the top rake teeth, and a spring is arranged between the sliding sleeve and the outer wall of the reverse hollow shaft.

[0020] As a preferred solution of the agglomeration treatment device in the production process of high-viscosity powder described in the present invention, wherein: when the spring is in a natural state, the striking hammer is located at the bottom of the inclined surface of the inclined plate.

[0021] As a preferred scheme of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the screening mechanism includes a slide plate, a screen, a hinge seat, a screening transmission gear, a rocker gear, a screening eccentric shaft, a rocker, a lever and a connecting rod, the slide plate is slidably connected to the slide groove, the screen is arranged in the center of the slide plate, the hinge seat is arranged on the left side wall of the slide plate, the screening transmission gear is fixed to the outer wall of the reversing hollow shaft, the rocker gear is rotatably connected to the top of the agglomeration processing box, the rocker gear is meshed and connected with the screening transmission gear, the screening eccentric shaft is arranged on the top of the rocker gear, the screening eccentric shaft is arranged on the rocker arm, the lever is arranged on the lever connecting frame, the upper end of the lever is movably connected to the rocker arm, the lower end of the lever is connected to the hinge seat, and a connecting rod is arranged on the side of the lever.

[0022] As a preferred solution of the agglomeration processing device in the high-viscosity powder production process described in the present invention, the resonance mechanism includes a support ring, an annular groove, a resonance movable arm and a resonance movable column, the support ring is fixed to the side wall of the agglomeration processing box, an annular groove is provided on the support ring, the left end of the resonance movable arm is movably connected to the connecting rod, and the right end of the resonance movable arm is provided with a resonance movable column connected to the annular groove.

[0023] As a preferred solution of the agglomeration treatment device in the high-viscosity powder production process described in the present invention, a protective cover shell is arranged on the top of the agglomeration treatment box, and a side wall of the protective cover shell is provided with an avoidance groove corresponding to the conveying mechanism and the screening mechanism.

[0024] As a preferred solution of the agglomeration treatment device in the high-viscosity powder production process described in the present invention, wherein: the four corners of the bottom of the sliding bracket are provided with supporting legs, and the side wall of the agglomeration treatment box is provided with an auxiliary support arm connected to the feeding pipe.

[0025] Compared with the prior art, the present invention has the following technical effects:

[0026] The conveying mechanism is used to convey the high-viscosity powder. While the screw shaft is conveying the high-viscosity powder, the screw shaft drives the blocking material handling mechanism to work. The blocking material handling mechanism swings on the screw shaft to break up the high-viscosity powder lumps at the conveying inflection point, avoiding the high-viscosity powder lumps from being blocked at the conveying inflection point, so that the high-viscosity powder can be conveyed stably.

[0027] The material blocking processing mechanism drives the agglomeration processing mechanism to work, and the agglomeration processing mechanism realizes coaxial reversal movement, driving the agglomeration processing components to realize coaxial reversal, cross-stirring and crushing the agglomerations entering the agglomeration processing box to break up the agglomerations. During the coaxial reversal, the agglomeration processing components moving in the opposite direction will jump when in contact, and the agglomerations can be crushed by knocking while being crushed by cross-stirring, thereby improving the crushing effect. At the same time, the vibration generated by knocking can shake off the high-viscosity powder to prevent the high-viscosity powder from adhering to the agglomeration processing components.

[0028] While the agglomeration processing mechanism is working, the screening mechanism is driven to move synchronously. The screening mechanism reciprocates in the chute to screen the broken high-viscosity powder. The movable screening mechanism is convenient for screening the high-viscosity powder to avoid the accumulation and blockage of high-viscosity powder, so that the agglomerated high-viscosity powder remains in the agglomeration processing box to continue to be broken up, while the fine high-viscosity powder flows down through the screening mechanism;

[0029] When the screening mechanism is working, the screening mechanism synchronously drives the resonance mechanism to work, so that the resonance mechanism vibrates, and the high-viscosity powder on the inner wall of the agglomeration treatment box is shaken off, so as to prevent the high-viscosity powder from adhering to the inner wall of the agglomeration treatment box. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the present invention will be described in detail below in combination with the accompanying drawings and detailed embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative labor. Among them:

[0031] Figure 1 It is a schematic diagram of the shaft side structure of the present invention;

[0032] Figure 2 This is a schematic diagram of the internal connection structure of the agglomeration treatment box of the present invention;

[0033] Figure 3 It is a schematic diagram of the structure of the processing mechanism of the present invention;

[0034] Figure 4 It is a schematic diagram of the structure of the conveying mechanism of the present invention;

[0035] Figure 5 This is a schematic diagram of the structure of the material blocking treatment mechanism of the present invention;

[0036] Figure 6 It is a schematic diagram of the connection structure between the agglomeration processing mechanism and the agglomeration processing component of the present invention;

[0037] Figure 7 It is a schematic diagram of the structure of the screening mechanism of the present invention;

[0038] Figure 8 It is a schematic diagram of the structure of the resonance mechanism of the present invention.

[0039] In the figure: 100 processing mechanism, 110 agglomeration processing box, 120 processing box inlet, 130 sliding bracket, 140 slide slot, 150 lever connecting frame, 160 support leg, 170 auxiliary support arm, 200 conveying mechanism, 210 feeding pipe, 220 feeding pipe, 230 discharge pipe, 240 driving component, 250 screw shaft, 260 screw shaft transmission gear, 300 blocking material processing mechanism, 310 blocking material processing shaft, 320 blocking material driven gear, 330 blocking material transmission disk, 340 blocking material eccentric shaft, 350 connecting rod, 360 gear ring, 370 curved gear cutter, 380 transmission gear, 400 agglomeration processing mechanism, 410 coaxial reversing bracket, 420 reversing gear, 430 reverse hollow shaft, 440 forward gear, 450 forward shaft, 460 change gear, 470 change transmission gear, 500 agglomeration processing component, 510 connecting column, 520 inclined plate, 530 bottom rake teeth, 540 sliding sleeve, 550 cross plate, 560 top rake teeth, 570 percussion hammer, 580 spring, 600 screening mechanism, 610 slide plate, 620 screen, 630 hinge seat, 640 screening transmission gear, 650 rocker arm gear, 660 screening eccentric shaft, 670 rocker arm, 680 lever, 681 connecting rod, 700 resonance mechanism, 710 support ring, 720 annular groove, 730 resonance movable arm, 740 resonance movable column, 800 protective cover shell. DETAILED DESCRIPTION

[0040] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific embodiments of the present invention are described in detail below with reference to the accompanying drawings.

[0041] In the following description, many specific details are set forth to facilitate a full understanding of the present invention, but the present invention may also be implemented in other ways different from those described herein, and those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0042] Secondly, the present invention is described in detail with reference to schematic diagrams. When describing the embodiments of the present invention in detail, for the sake of convenience, the cross-sectional diagrams showing the device structure will not be partially enlarged according to the general scale, and the schematic diagrams are only examples, which should not limit the scope of protection of the present invention. In addition, in actual production, the three-dimensional dimensions of length, width and depth should be included.

[0043] In order to make the objectives, technical solutions and advantages of the present invention more clear, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings.

[0044] The present invention provides a device for processing agglomerates in the production process of high-viscosity powder, which can break up the agglomerates of high-viscosity powder and screen the dispersed high-viscosity powder during the production and transportation of high-viscosity powder, thereby ensuring the production effect of high-viscosity powder and preventing the high-viscosity powder from adhering to the processing device. Please refer to Figure 1-Figure 8 , including: a processing mechanism 100, a conveying mechanism 200, a blocking processing mechanism 300, an agglomeration processing mechanism 400, an agglomeration processing component 500, a screening mechanism 600 and a resonance mechanism 700.

[0045] The processing mechanism 100 includes an agglomeration processing box 110, a processing box inlet 120, a sliding bracket 130, a slide groove 140 and a lever connecting frame 150. The processing box inlet 120 is arranged on the top side of the agglomeration processing box 110, the sliding bracket 130 is arranged on the bottom of the agglomeration processing box 110, the slide groove 140 is arranged inside the sliding bracket 130, and the lever connecting frame 150 is arranged on the side wall of the agglomeration processing box 110;

[0046] Among them, the bottom of the agglomeration processing box 110 is open, and the high-viscosity powder enters the agglomeration processing box 110 from the processing box inlet 120 for processing. The sliding bracket 130 is a rectangular frame, and the slide groove 140 is a concave groove on the inner side. The bottom opening of the agglomeration processing box 110 is connected to the slide groove 140, and the high-viscosity powder in the agglomeration processing box 110 can fall out of the slide groove 140.

[0047] The conveying mechanism 200 is arranged at the inlet 120 of the processing box, and the high-viscosity powder is conveyed by the conveying mechanism 200. Specifically, the conveying mechanism 200 includes a feeding pipe 210, a feeding pipe 220, a discharging pipe 230, a driving component 240, a spiral shaft 250 and a spiral shaft transmission gear 260. The feeding pipe 220 is arranged on the right side of the top of the feeding pipe 210, and the discharging pipe 230 connected to the inlet 120 of the processing box is arranged on the left side of the bottom of the feeding pipe 210. The driving component 240 is arranged at the right end of the feeding pipe 210, and the spiral shaft 250 connected to the driving component 240 is arranged inside the feeding pipe 210. The left end of the spiral shaft 250 extends out of the feeding pipe 210 and is connected to the spiral shaft transmission gear 260.

[0048] Among them, the feed pipe 220 is connected to the high-viscosity powder production equipment through a flange, and the high-viscosity powder enters the feeding pipe 210 from the feed pipe 220. The driving component 240 adopts a rotating motor, and the driving component 240 drives the spiral shaft 250 to rotate to form an auger-type feeding structure, and the high-viscosity powder is transported from the feed pipe 220 to the discharge pipe 230, and the high-viscosity powder falls naturally from the discharge pipe 230.

[0049] The material blocking processing mechanism 300 is arranged on the conveying mechanism 200. The material blocking processing mechanism 300 processes the high-viscosity powder agglomerates blocked between the feeding pipe 210 and the discharge pipe 230, breaks up the agglomerates, and facilitates them to fall into the agglomeration processing box 110. Specifically, the material blocking processing mechanism 300 includes a material blocking processing shaft 310, a material blocking driven gear 320, a material blocking transmission disk 330, a material blocking eccentric shaft 340, a connecting rod 350, a gear ring 360, a curved tooth cutter 370 and a transmission gear 380. The material blocking processing shaft 310 is rotatably connected to the discharge pipe 230. 0, a material blocking driven gear 320 meshing with the spiral shaft transmission gear 260 is arranged on the material blocking processing shaft 310, a material blocking transmission disk 330 is arranged at one end of the material blocking processing shaft 310 located in the discharge pipe 230, a material blocking eccentric shaft 340 is arranged on the material blocking transmission disk 330, and a gear ring 360 is connected to the material blocking eccentric shaft 340 through a connecting rod 350, the gear ring 360 surrounds the spiral shaft 250, and evenly distributed curved tooth cutters 370 are arranged on the side of the gear ring 360, and a transmission large gear 380 is arranged at one end of the material blocking processing shaft 310 located outside the discharge pipe 230;

[0050] Among them, the spiral shaft 250 drives the spiral shaft transmission gear 260 to rotate, and the spiral shaft transmission gear 260 engages and drives the blocking driven gear 320 to rotate. The blocking driven gear 320 synchronously drives the blocking transmission disk 330 to rotate through the blocking processing shaft 310, so that the blocking eccentric shaft 340 on the blocking transmission disk 330 moves in a circle. The blocking eccentric shaft 340 drives the gear ring 360 to swing back and forth on the spiral shaft 250 through the connecting rod 350. When the gear ring 360 swings back and forth, it drives the curved tooth knife 370 to move, and the movable curved tooth knife 370 is used to crush the high-viscosity powder conveyed.

[0051] The agglomeration processing mechanism 400 is arranged on the agglomeration processing box 110 and is connected to the blocking processing mechanism 300. Specifically, the agglomeration processing mechanism 400 includes a coaxial reverse bracket 410, a reverse gear 420, a reverse hollow shaft 430, a forward gear 440, a forward shaft 450, a direction-changing gear 460 and a direction-changing transmission gear 470. The coaxial reverse bracket 410 is fixed to the top of the agglomeration processing box 110, and a reverse gear 420 is arranged at the bottom of the coaxial reverse bracket 410. The reverse gear 430 is arranged at the bottom of the coaxial reverse bracket 410. A reversing hollow shaft 430 is arranged on the coaxial reversing bracket 420, a forward gear 440 is arranged on the top of the coaxial reversing bracket 410, a forward shaft 450 passing through the reversing hollow shaft 430 is arranged on the forward gear 440, a direction-changing gear 460 is arranged on the side of the coaxial reversing bracket 410, the direction-changing gear 460 is meshed with the reversing gear 420 and the forward gear 440 respectively, and the side of the direction-changing gear 460 is connected to a coaxial direction-changing transmission gear 470, and the direction-changing transmission gear 470 is meshed and connected with the transmission large gear 380;

[0052] Among them, the blocking driven gear 320 synchronously drives the transmission gear 380 to rotate through the blocking processing shaft 310, the transmission gear 380 engages to drive the changing transmission gear 470 to rotate, the changing transmission gear 470 drives the changing gear 460 to rotate, the changing gear 460 engages to drive the reversing gear 420 and the forward gear 440 to rotate, the reversing gear 420 drives the reversing hollow shaft 430 to rotate counterclockwise, and the forward gear 440 drives the forward shaft 450 to rotate clockwise, so that the forward shaft 450 and the reversing hollow shaft 430 rotate in opposite directions, and the lower end of the forward shaft 450 extends out from the reversing hollow shaft 430.

[0053] The agglomeration processing component 500 is arranged on the agglomeration processing mechanism 400, and the agglomeration processing component 500 is driven by the agglomeration processing mechanism 400 to cross-rotate in opposite directions, and the agglomeration processing component 500 that cross-rotates is used to break up the agglomeration of high-viscosity powder. Specifically, the agglomeration processing component 500 includes a connecting column 510, an inclined plate 520, a bottom rake tooth 530, a sliding sleeve 540, a horizontal plate 550, a top rake tooth 560, a knocking hammer 570 and a spring 580. The connecting column 510 is fixed in the forward rotation direction. At the bottom of the shaft 450, inclined plates 520 are arranged around the outer wall of the connecting column 510, bottom rake teeth 530 are arranged on the top of the inclined plates 520, the sliding sleeve 540 is slidably connected to the outer wall of the reversing hollow shaft 430, horizontal plates 550 are arranged on both sides of the sliding sleeve 540, top rake teeth 560 are arranged at the bottom of the horizontal plates 550, the top rake teeth 560 and the bottom rake teeth 530 are arranged alternately, a percussion hammer 570 is arranged at the bottom of the top rake teeth 560, and a spring 580 is arranged between the sliding sleeve 540 and the outer wall of the reversing hollow shaft 430;

[0054] In the natural state of the spring 580, the hammer 570 is located at the bottom of the inclined surface of the inclined plate 520, the forward rotation shaft 450 drives the connecting column 510, the inclined plate 520, and the bottom rake teeth 530 to rotate clockwise, and the reverse hollow shaft 430 drives the sliding sleeve 540, the cross plate 550, the top rake teeth 560, the hammer 570 and the spring 580 to rotate counterclockwise, so that the bottom rake teeth 530 and the top rake teeth 560 are constantly staggered to break up the high-viscosity powder lumps, and the bottom of the top rake teeth 560 is When the striking hammer 570 contacts the inclined plate 520, it will move up along the inclined surface of the inclined plate 520, thereby driving the sliding sleeve 540 to move up. After the striking hammer 570 and the inclined plate 520 have crossed each other, the spring 580 rebounds, causing the sliding sleeve 540 to move down and reset, thereby driving the striking hammer 570 to move down and strike the high-viscosity powder agglomerates, so that the bottom rake teeth 530 and the top rake teeth 560 can cross-move to break up the high-viscosity powder, while the top rake teeth 560 can continuously jump to strike the high-viscosity powder agglomerates.

[0055] The screening mechanism 600 is arranged on the slide 140 and connected to the agglomeration processing mechanism 400. The agglomeration processing mechanism 400 drives the screening mechanism 600 to work. Specifically, the screening mechanism 600 includes a slide plate 610, a screen 620, a hinge seat 630, a screening transmission gear 640, a rocker arm gear 650, a screening eccentric shaft 660, a rocker arm 670, a lever 680 and a connecting rod 681. The slide plate 610 is slidably connected to the slide 140. The screen 620 is arranged at the center of the slide plate 610. The hinge seat 630 is arranged on the left side wall of the slide plate 610. 30, the screening transmission gear 640 is fixed on the outer wall of the reversing hollow shaft 430, the rocker gear 650 is rotatably connected to the top of the agglomeration processing box 110, the rocker gear 650 is meshed and connected with the screening transmission gear 640, the top of the rocker gear 650 is provided with a screening eccentric shaft 660, the screening eccentric shaft 660 is provided with a rocker arm 670, the lever 680 is provided on the lever connecting frame 150, the upper end of the lever 680 is movably connected with the rocker arm 670, the lower end of the lever 680 is connected with the hinge seat 630, and the side of the lever 680 is provided with a connecting rod 681;

[0056] Among them, the reversing hollow shaft 430 synchronously drives the screening transmission gear 640 to rotate, the screening transmission gear 640 engages to drive the rocker arm gear 650 to rotate, the rocker arm gear 650 drives the screening eccentric shaft 660 to move in a circle, and the screening eccentric shaft 660 drives the rocker arm 670 to move continuously, so that the left end of the rocker arm 670 continuously pushes the upper end of the lever 680. When the upper end of the lever 680 moves, the lower end of the lever 680 pulls the slide plate 610 to move in the slide groove 140, so that the screen 620 forms a movable screen, and the scattered high-viscosity powder is screened through the screen 620. The movable screen 620 can improve the screening effect, avoid the accumulation of high-viscosity powder and cause the screen 620 to be blocked, and facilitate screening and dropping.

[0057] The resonance mechanism 700 is arranged on the outer wall of the agglomeration processing box 110 and is connected to the screening mechanism 600. The resonance mechanism 700 is driven to move by the screening mechanism 600 to produce a resonance effect. Specifically, the resonance mechanism 700 includes a support ring 710, an annular groove 720, a resonance movable arm 730 and a resonance movable column 740. The support ring 710 is fixed to the side wall of the agglomeration processing box 110, and an annular groove 720 is provided on the support ring 710. The left end of the resonance movable arm 730 is movably connected to the connecting rod 681, and the right end of the resonance movable arm 730 is provided with a resonance movable column 740 connected to the annular groove 720.

[0058] When the lower end of the lever 680 swings back and forth, the resonant movable arm 730 is driven to move through the connecting rod 681, and the resonant movable arm 730 drives the resonant movable column 740 to move in the annular groove 720 to generate vibration, and the vibration is transmitted to the agglomeration processing box 110, shaking off the high-viscosity powder on the inner wall of the agglomeration processing box 110.

[0059] Since gears are used for transmission, in order to prevent dust from falling on the gear connections, a protective cover shell 800 is provided on the top of the agglomeration processing box 110, and avoidance grooves corresponding to the conveying mechanism 200 and the screening mechanism 600 are opened on the side walls of the protective cover shell 800 to block external dust and prevent external dust from falling on the gears.

[0060] Since the high-viscosity powder needs to fall down, the agglomeration processing box 110 needs to be erected. For this purpose, legs 160 are provided at the four corners of the bottom of the sliding bracket 130, and an auxiliary support arm 170 connected to the feeding pipe 210 is provided on the side wall of the agglomeration processing box 110 to improve the structural strength.

[0061] In more specific use, the driving component 240 drives the screw shaft 250 to rotate, forming an auger-type feeding structure, and the high-viscosity powder is transported from the feed pipe 220 to the discharge pipe 230. The high-viscosity powder naturally falls from the discharge pipe 230, and the screw shaft 250 drives the screw shaft transmission gear 260 to rotate. The screw shaft transmission gear 260 meshes and drives the blocking driven gear 320 to rotate. The blocking driven gear 320 synchronously drives the blocking drive disk 330 to rotate through the blocking processing shaft 310, so that the blocking eccentric shaft 340 on the blocking drive disk 330 moves in a circle, and the blocking eccentric shaft 340 drives the gear ring 360 through the connecting rod 350. The spiral shaft 250 swings back and forth, and the gear ring 360 swings back and forth, driving the curved toothed knife 370 to move, and the movable curved toothed knife 370 is used to crush the high-viscosity powder conveyed, so as to avoid the high-viscosity powder from being blocked and affecting the conveying effect. The blocking driven gear 320 synchronously drives the transmission large gear 380 to rotate through the blocking processing shaft 310, and the transmission large gear 380 meshes and drives the direction-changing transmission gear 470 to rotate, and the direction-changing transmission gear 470 drives the direction-changing gear 460 to rotate, and the direction-changing gear 460 meshes and drives the reverse gear 420 and the forward gear 440 to rotate, and the reverse gear 420 drives the reverse hollow shaft 430 to rotate counterclockwise. The needle rotates, and the forward gear 440 drives the forward shaft 450 to rotate clockwise, so that the forward shaft 450 and the reverse hollow shaft 430 rotate in opposite directions, driving the bottom rake teeth 530 and the top rake teeth 560 to continuously stagger and break up the high-viscosity powder agglomerates. While the bottom rake teeth 530 and the top rake teeth 560 cross-move to break up the high-viscosity powder, the top rake teeth 560 can continuously jump to knock the high-viscosity powder agglomerates, and the reverse hollow shaft 430 synchronously drives the screening transmission gear 640 to rotate, and the screening transmission gear 640 meshes and drives the rocker arm gear 650 to rotate, and the rocker arm gear 650 drives the screening eccentric shaft 660 to move in a circle, and the screening The eccentric shaft 660 drives the rocking arm 670 to move continuously, so that the left end of the rocking arm 670 continuously pushes the upper end of the lever 680. When the upper end of the lever 680 moves, the lower end of the lever 680 pulls the slide plate 610 to move in the slide groove 140, so that the screen 620 forms a movable screen, and the broken high-viscosity powder is screened by the screen 620. When the lower end of the lever 680 swings back and forth, the resonant movable arm 730 is driven to move through the connecting rod 681, and the resonant movable arm 730 drives the resonant movable column 740 to move in the annular groove 720 to generate vibration, and the vibration is transmitted to the agglomeration processing box 110, so that the high-viscosity powder on the inner wall of the agglomeration processing box 110 is shaken off.

[0062] Although the present invention has been described above with reference to the embodiments, various modifications may be made thereto and parts thereof may be replaced by equivalents without departing from the scope of the present invention. In particular, as long as there is no structural conflict, the various features in the embodiments disclosed in the present invention may be used in combination with each other in any manner, and the fact that these combinations are not exhaustively described in this specification is only for the sake of omitting space and saving resources. Therefore, the present invention is not limited to the specific embodiments disclosed herein, but includes all technical solutions falling within the scope of the claims.

Claims

1. A device for treating agglomeration in a high viscosity powder production process, characterized in that: include: The processing mechanism (100) comprises an agglomeration processing box (110), a processing box inlet (120), a sliding bracket (130), a slide groove (140) and a lever connecting frame (150), wherein the processing box inlet (120) is arranged on the top side of the agglomeration processing box (110), the sliding bracket (130) is arranged on the bottom of the agglomeration processing box (110), the slide groove (140) is arranged on the inner side of the sliding bracket (130), and the lever connecting frame (150) is arranged on the side wall of the agglomeration processing box (110); A conveying mechanism (200) is arranged at the inlet (120) of the processing box; A material blocking processing mechanism (300) is arranged on the conveying mechanism (200); An agglomeration processing mechanism (400) is arranged on the agglomeration processing box (110) and is connected to the material blocking processing mechanism (300); An agglomeration processing component (500) is arranged on the agglomeration processing mechanism (400); A screening mechanism (600) is arranged on the chute (140) and connected to the agglomeration processing mechanism (400); The resonance mechanism (700) is arranged on the outer wall of the agglomeration treatment box (110) and is connected to the screening mechanism (600).

2. The device for treating agglomeration in the production process of high viscosity powder according to claim 1, characterized in that: The conveying mechanism (200) comprises a feeding pipe (210), a feed pipe (220), a discharge pipe (230), a driving component (240), a screw shaft (250) and a screw shaft transmission gear (260); the feeding pipe (220) is arranged on the right side of the top of the feeding pipe (210); the discharge pipe (230) connected to the processing box inlet (120) is arranged on the left side of the bottom of the feeding pipe (210); the driving component (240) is arranged on the right end of the feeding pipe (210); the screw shaft (250) connected to the driving component (240) is arranged on the inner side of the feeding pipe (210); the left end of the screw shaft (250) extends out of the feeding pipe (210) and is connected to the screw shaft transmission gear (260).

3. The device for treating agglomeration in the production process of high viscosity powder according to claim 2, characterized in that: The material blocking processing mechanism (300) comprises a material blocking processing shaft (310), a material blocking driven gear (320), a material blocking transmission disk (330), a material blocking eccentric shaft (340), a connecting rod (350), a gear ring (360), a curved toothed cutter (370) and a transmission gear (380). The material blocking processing shaft (310) is rotatably connected to the discharge pipe (230). The material blocking processing shaft (310) is provided with a material blocking driven gear (320) meshing with the spiral shaft transmission gear (260). 10) A material blocking transmission disc (330) is arranged at one end inside the material discharging pipe (230), a material blocking eccentric shaft (340) is arranged on the material blocking transmission disc (330), a gear ring (360) is connected to the material blocking eccentric shaft (340) via a connecting rod (350), the gear ring (360) surrounds the spiral shaft (250), and evenly distributed curved tooth cutters (370) are arranged on the side of the gear ring (360), and a transmission gear (380) is arranged at one end of the material blocking processing shaft (310) outside the material discharging pipe (230).

4. The device for treating agglomeration in the production process of high viscosity powder according to claim 3, characterized in that: The agglomeration processing mechanism (400) comprises a coaxial inverting bracket (410), an inverting gear (420), an inverting hollow shaft (430), a forward gear (440), a forward shaft (450), a direction-changing gear (460) and a direction-changing transmission gear (470); the coaxial inverting bracket (410) is fixed on the top of the agglomeration processing box (110); the inverting gear (420) is arranged at the bottom of the coaxial inverting bracket (410); the inverting hollow shaft (430) is arranged on the inverting gear (420); the coaxial inverting bracket (410) is fixed on the top of the agglomeration processing box (110); A forward gear (440) is arranged on the top of the frame (410), and a forward shaft (450) passing through the reverse hollow shaft (430) is arranged on the forward gear (440). A direction-changing gear (460) is arranged on the side of the coaxial reverse bracket (410), and the direction-changing gear (460) is respectively meshed with the reverse gear (420) and the forward gear (440). The side of the direction-changing gear (460) is connected to a coaxial direction-changing transmission gear (470), and the direction-changing transmission gear (470) is meshed and connected with the transmission large gear (380).

5. The device for treating agglomeration in the production process of high viscosity powder according to claim 4, characterized in that: The agglomeration processing component (500) comprises a connecting column (510), an inclined plate (520), bottom rake teeth (530), a sliding sleeve (540), a transverse plate (550), top rake teeth (560), a knocking hammer (570) and a spring (580); the connecting column (510) is fixed to the bottom of the forward rotating shaft (450); the inclined plates (520) are arranged around the outer wall of the connecting column (510); and the bottom rake teeth (530) are arranged on the top of the inclined plates (520). The sliding sleeve (540) is slidably connected to the outer wall of the reversing hollow shaft (430), and transverse plates (550) are arranged on both sides of the sliding sleeve (540). Top rake teeth (560) are arranged at the bottom of the transverse plates (550). The top rake teeth (560) and the bottom rake teeth (530) are arranged alternately. A percussion hammer (570) is arranged at the bottom of the top rake teeth (560), and a spring (580) is arranged between the sliding sleeve (540) and the outer wall of the reversing hollow shaft (430).

6. The device for treating agglomeration in the production process of high viscosity powder according to claim 5, characterized in that: When the spring (580) is in a natural state, the striking hammer (570) is located at the bottom of the inclined surface of the inclined plate (520).

7. The device for treating agglomeration in the production process of high viscosity powder according to claim 4, characterized in that: The screening mechanism (600) comprises a slide plate (610), a screen (620), a hinge seat (630), a screening transmission gear (640), a rocker arm gear (650), a screening eccentric shaft (660), a rocker arm (670), a lever (680) and a connecting rod (681); the slide plate (610) is slidably connected to the slide groove (140); the screen (620) is arranged at the center of the slide plate (610); the hinge seat (630) is arranged on the left side wall of the slide plate (610); the screening transmission gear (640) is fixed to the outer wall of the reversing hollow shaft (430); the rocker arm The gear (650) is rotatably connected to the top of the agglomeration processing box (110), the rocker gear (650) is meshedly connected with the screening transmission gear (640), a screening eccentric shaft (660) is arranged on the top of the rocker gear (650), a rocker arm (670) is arranged on the screening eccentric shaft (660), the lever (680) is arranged on the lever connecting frame (150), the upper end of the lever (680) is movably connected to the rocker arm (670), the lower end of the lever (680) is connected to the hinge seat (630), and a connecting rod (681) is arranged on the side of the lever (680).

8. The device for treating agglomeration in the production process of high viscosity powder according to claim 7, characterized in that: The resonance mechanism (700) comprises a support ring (710), an annular groove (720), a resonance movable arm (730) and a resonance movable column (740); the support ring (710) is fixed to the side wall of the agglomeration treatment box (110); the support ring (710) is provided with an annular groove (720); the left end of the resonance movable arm (730) is movably connected to the connecting rod (681); and the right end of the resonance movable arm (730) is provided with a resonance movable column (740) connected to the annular groove (720).

9. The device for treating agglomeration in the production process of high viscosity powder according to claim 1, characterized in that: A protective cover shell (800) is arranged on the top of the agglomeration processing box (110), and a side wall of the protective cover shell (800) is provided with avoidance grooves corresponding to the conveying mechanism (200) and the screening mechanism (600).

10. The device for treating agglomeration in the production process of high viscosity powder according to claim 2, characterized in that: The four corners of the bottom of the sliding bracket (130) are each provided with supporting legs (160), and the side wall of the agglomeration treatment box (110) is provided with an auxiliary supporting arm (170) connected to the feeding pipe (210).

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