A dust suppressant production dispersing device

Abstract

This invention discloses a dispersion device for dust suppressant production, belonging to the technical field of stirring devices. It includes a stirring module and a pump module. The stirring module is rotatably disposed within a container holding the dust suppressant, and has a cavity connected to the pump module. The pump module causes the dust suppressant in the container to circulate between the container and the cavity of the stirring module. Furthermore, the stirring module is equipped with a crushing structure that automatically adjusts the stirring effect according to the degree of dust suppressant dispersion. By incorporating a stirring module and a pump module within the container, this invention simultaneously stirs and mixes the dust suppressant while using centrifugal force to disperse it to several crushing structures within the stirring module, thus crushing and shearing the agglomerated components. The crushing effect can also be adjusted according to the particle size of the agglomerated components, thereby improving dissolution efficiency.

Description

Technical Field

[0001] This invention belongs to the field of stirring device technology, specifically relating to a dispersion device for dust suppressant production. Background Technology

[0002] Dust suppressants are functional materials that inhibit dust diffusion through physical bonding, chemical wetting, and charge agglomeration. Their core value lies in long-term dust control and resource conservation, which can significantly improve air quality and meet the dust control needs of various fields such as industry, mining, and urban construction.

[0003] Because soluble salts in dust suppressants are difficult to completely dissolve and polymers are difficult to fully hydrate and swell, the dust suppressant powder needs to be evenly dispersed in water to form a uniform and stable solution or suspension. In actual production, existing stirring equipment cannot completely destroy agglomerated components due to the stirring structure, resulting in agglomerated sediment at the bottom and uneven dispersion of the suspension, which clogs the spraying equipment and reduces the dust suppression effect. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the purpose of this invention is to provide a dispersion device for dust suppressant production to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: A dispersion device for dust suppressant production includes a stirring module and a pumping module. The stirring module is rotatably disposed inside a container holding the dust suppressant, and the stirring module has a cavity connected to the pumping module. The pumping module causes the dust suppressant in the container to circulate between the container and the cavity of the stirring module. The stirring module also has a crushing structure that automatically adjusts the stirring effect according to the degree of dispersion of the dust suppressant. The stirring module includes a stirring assembly, which includes a central tube, a pump outlet, a stirring shell, a separation chamber, and a guide groove. The central tube is fixedly installed inside the container, and the top of the central tube is provided with a pump outlet. The stirring shell is rotatably assembled on the central tube, and the stirring shell is circumferentially arranged with several separation chambers. One end of each separation chamber is provided with a guide groove, and the inner cavity of the central tube is connected to the several separation chambers.

[0006] As a further embodiment of the present invention, the dispersion device for producing dust suppressant further includes a housing assembly, the housing assembly including a housing, a feed inlet and an internal toothed ring, the feed inlet being provided at the top of the housing, and an internal toothed ring being provided on the inner peripheral wall of the feed inlet.

[0007] As a further embodiment of the present invention, the stirring assembly further includes a flow-through shell, an adjusting plate, and an extrusion plate. The flow-through shell is slidably disposed in the separation chamber, and the flow-through shell and the separation chamber are elastically connected. The flow-through shell is provided with opposing first flow-through holes. The adjusting plate is fitted to the flow-through shell and slidably disposed between the guide channel and the flow-through shell. The adjusting plate is provided with opposing second flow-through holes. A plurality of extrusion plates are also arrayed in the flow-through shell. The plurality of extrusion plates are fixedly connected and slidably assembled in the flow-through shell. The extrusion plates are disposed on the side close to the first flow-through holes.

[0008] As a further embodiment of the present invention, the stirring module further includes an adjustment component, which includes a main shaft, a sliding pin bracket, a sliding pin, a traction bracket, and a sliding groove. The main shaft is fixedly mounted on the central tube and is coaxially arranged with the central tube. Several sliding pin brackets are arranged circumferentially on the main shaft, and sliding pins are fixedly mounted on the sliding pin brackets. One end of the traction bracket is fixedly connected to the adjustment plate, and the other end of the traction bracket is fixedly mounted with a sliding groove, which is slidably sleeved on the sliding pin.

[0009] As a further embodiment of the present invention, the adjustment assembly further includes a bracket, a drive gear, a first transmission wheel, a second transmission wheel, a third transmission wheel, a pin, a lifting frame, a side sliding groove, a guide rod, and a linkage frame. The bracket is fixedly mounted on one side of the main shaft, and the drive gear, the first transmission wheel, the second transmission wheel, and the third transmission wheel are mounted on the bracket on a fixed axis. One end of the drive gear meshes with an internal gear ring, and the other end of the drive gear is coaxially and fixedly connected to the first transmission wheel. One end of the second transmission wheel is drivingly connected to the first transmission wheel, and the other end of the second transmission wheel is drivingly connected to the third transmission wheel. A pin is fixedly mounted on one end of the third transmission wheel. The lifting frame is slidably sleeved on the main shaft in the vertical direction, and a side sliding groove is fixedly provided on the lifting frame. The pin is limited and slidably mounted in the side sliding groove. One end of the guide rod is fixedly mounted in the lifting frame. One end of the linkage frame is slidably inserted into the guide rod, and the other end of the linkage frame is fixedly connected to several extrusion plates.

[0010] As a further embodiment of the present invention, the dispersion device for dust suppressant production further includes a drive assembly, which includes a driver, a first transmission rod, a second transmission rod, a transmission gear, and a fourth transmission wheel. The driver is fixedly disposed on one side of the housing. The first transmission rod, the second transmission rod, and the transmission gear are all fixedly arranged on one side of the housing. One end of the first transmission rod is engaged with the driver, and the other end of the first transmission rod is drivenly connected to the second transmission rod. The other end of the second transmission rod is engaged with the transmission gear. The end of the first transmission rod is also coaxially disposed with a fourth transmission wheel, which is drivenly connected to the main shaft.

[0011] As a further embodiment of the present invention, the pumping module includes a pumping assembly, which includes a pumping cylinder, a piston rod, a lateral inlet pipe, a lateral suction cylinder, a pulley, an inclined pressure frame, a driven wheel, and a sliding pressure wheel. The pumping cylinder is fixedly disposed at the bottom of the housing and connected to the central pipe. The piston rod is elastically slidably inserted in the pumping cylinder. One end of the pumping cylinder is also connected to the lateral inlet pipe, and the end of the lateral inlet pipe is connected to the lateral suction cylinder, which is disposed on one side of the bottom of the housing cavity. A pulley is fixedly disposed at the bottom of the piston rod. The inclined pressure frame is elastically slidably assembled at the bottom of the housing and one end is movably abutting against the pulley. One end of the driven wheel is coaxially fixedly connected to the transmission gear, and the other end of the driven wheel is rotatably assembled with a sliding pressure wheel. The sliding pressure wheel and the inclined pressure frame are movably abutting against each other.

[0012] In summary, the embodiments of the present invention have the following beneficial effects compared with the prior art: This invention incorporates a stirring module and a pump module within a container. While the dust suppressant is being stirred and mixed, centrifugal force disperses the dust suppressant to several crushing structures within the stirring module, thus crushing and shearing the agglomerated components. The crushing effect can also be adjusted according to the particle size of the agglomerated components, thereby improving the dissolution efficiency. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of a dispersion device for producing dust suppressants provided in one embodiment of the present invention.

[0014] Figure 2 This is a partial cross-sectional view of a dust suppressant production dispersion apparatus provided in one embodiment of the present invention.

[0015] Figure 3 This is a schematic diagram of the stirring component in a dispersion device for producing dust suppressants provided in one embodiment of the present invention.

[0016] Figure 4 This is a schematic diagram of the structure of a dispersion device for producing dust suppressants provided in one embodiment of the present invention.

[0017] Figure 5 for Figure 4 The diagram shows an enlarged view of the symbol marked A.

[0018] Figure 6 for Figure 4 The diagram shows an enlarged view of the symbol marked B.

[0019] Figure 7 This is a cross-sectional view from another perspective of the dust suppressant production dispersion apparatus provided in one embodiment of the present invention.

[0020] Figure 8 for Figure 5 The diagram shows an enlarged view of the symbol marked C.

[0021] Reference numerals: 1-Shell assembly, 101-Shell, 102-Inlet, 103-Internal gear ring, 2-Agitator assembly, 201-Centralized pipe, 202-Pump outlet, 203-Agitator shell, 204-Separation chamber, 205-Guide channel, 206-Flow shell, 207-Adjusting plate, 208-Extrusion plate, 3-Adjusting assembly, 301-Main shaft, 302-Sliding pin bracket, 303-Sliding pin, 304-Traction frame, 305-Slide groove, 306-Bracket, 307-Drive gear, 308-First transmission wheel, 309-Second transmission wheel, 310 - Third transmission wheel, 311- Pin rod, 312- Lifting frame, 313- Side sliding groove, 314- Guide rod, 315- Linkage frame, 4- Drive assembly, 401- Driver, 402- First transmission rod, 403- Second transmission rod, 404- Transmission gear, 405- Fourth transmission wheel, 5- Pump flow assembly, 501- Pump flow cylinder, 502- Piston rod, 503- Lateral inlet pipe, 504- Lateral pump suction cylinder, 505- Pulley, 506- Inclined pressure frame, 507- Driven wheel, 508- Sliding pressure wheel, a1- First flow hole, a2- Second flow hole. Detailed Implementation

[0022] To more clearly illustrate the structural features and effects of the present invention, the present invention will be described in detail below with reference to the accompanying drawings and specific embodiments.

[0023] Please see Figures 1-8 According to one embodiment of the present invention, a dispersion device for producing dust suppressants has opposing first directions x, second directions y, and third directions z. The dispersion device includes a stirring module and a pumping module. The stirring module is rotatably disposed within a container holding the dust suppressant, and a cavity connected to the pumping module is provided within the stirring module. The pumping module causes the dust suppressant in the container to circulate between the container and the cavity of the stirring module. Furthermore, the stirring module is equipped with a crushing structure that automatically adjusts the stirring effect according to the degree of dust suppressant dispersion. Figure 5 and Figure 6As shown, the stirring module includes a stirring assembly 2, which includes a central pipe 201, a pump outlet 202, a stirring shell 203, a separation chamber 204, and a guide channel 205. The central pipe 201 is fixedly installed inside the container, and the pump outlet 202 is provided at the top of the central pipe 201. The stirring shell 203 is rotatably mounted on the central pipe 201, and several separation chambers 204 are arranged circumferentially on the stirring shell 203. A guide channel 205 is provided at one end of each separation chamber 204, and the inner cavity of the central pipe 201 is connected to the several separation chambers 204. The dispersion device for dust suppressant production also includes a shell assembly 1, which includes a shell 101, a feed inlet 102, and an internal toothed ring 103. The feed inlet 102 is provided at the top of the shell 101, and an internal toothed ring 103 is also provided on the inner circumferential wall of the feed inlet 102. An outlet controlled by an independent valve is provided at the bottom of the shell 101.

[0024] In practical application, the dispersion device for dust suppressant production in this embodiment includes a stirring module and a pumping module. The stirring module is located in the inner cavity of the housing 101. During rotation, the stirring module can drive the dust suppressant between the outer wall of the stirring housing 203 and the inner wall of the housing 101 to stir and mix. During the rotation of the stirring housing 203, the pumping module located at the bottom of the housing 101 continuously draws and pumps the dust suppressant from the bottom of the cavity to the top of the stirring module. During the rotation of the stirring module, centrifugal force disperses the dust suppressant into several separation chambers 204. The separation chambers 204 can separate the solvent components in the dust suppressant and retain the agglomerated and undissolved agglomerated components in the inner cavity of the separation chambers 204. The crushing structure set in the separation chambers 204 crushes and shears the agglomerated components during reciprocating motion. While promoting its dissolution efficiency, the crushing effect can also be adjusted according to the proportion of agglomerated components, so that the crushing structure can adaptively adjust its mixing state for the dust suppressant in different states.

[0025] Please see Figure 8 In a preferred embodiment of the present invention, the stirring assembly 2 further includes a flow-through shell 206, an adjusting plate 207, and an extrusion plate 208. The flow-through shell 206 is slidably disposed in the separation chamber 204, and the flow-through shell 206 and the separation chamber 204 are elastically connected. The flow-through shell 206 is provided with opposing first flow-through holes a1. The adjusting plate 207 is fitted to the flow-through shell 206 and slidably disposed between the guide groove 205 and the flow-through shell 206. The adjusting plate 207 is provided with opposing second flow-through holes a2. A plurality of extrusion plates 208 are also arrayed in the flow-through shell 206. The plurality of extrusion plates 208 are fixedly connected and slidably assembled in the flow-through shell 206. The extrusion plates 208 are disposed on the side close to the first flow-through hole a1.

[0026] In practical application, the flow-through shell 206 is radially slidably disposed in the separation chamber 204 along the central tube 201, and the flow-through shell 206 is limited and slidably assembled in the separation chamber 204 to maintain a sliding seal between the separation chamber 204 and the flow-through shell 206. The flow-through shell 206 is provided with opposing first flow-through holes a1. The adjusting plate 207 is slidably assembled on one side of the flow-through shell 206 along the third direction z, and the adjusting plate 207 is provided with opposing second flow-through holes a2. The slots of the first flow-through hole a1 and the second flow-through hole a2 are large. The same size and several first flow holes a1 and several second flow holes a2 are arranged in an array and aligned so that when the regulating plate 207 slides in the third direction z, the overlapping area between the two sets of slots changes during the sliding process of the second flow holes a2 relative to the first flow holes a1, thereby adjusting the effective flow area between the first flow holes a1 and the second flow holes a2, and thus adjusting the flow rate per unit time. In the early stage of stirring, due to the high content of agglomerating components in the dust suppressant, a large amount of agglomerating components are trapped in the first flow holes in a short period of time. On side a1, when the stirring shell 203 rotates at a constant speed, the mass of the agglomerates retained on one side of the flow-through shell 206 increases. Therefore, the flow-through shell 206 moves away from the central tube 201. At this time, the adjusting plate 207 slides relative to the flow-through shell 206, thereby slightly increasing the effective flow area at one end of the first flow-through hole a1. This causes the large-mass agglomerates with large particle sizes to be retained at one end of the first flow-through hole a1, while the agglomerates with medium particle sizes pass through the first flow-through hole a1 and the second flow-through hole a2, preventing a large number of agglomerates from simultaneously blocking the first flow-through hole a1. On the flow hole a1 side, in the later stage of stirring, as the agglomerated components are broken down into small-diameter components, the mass of the agglomerated components retained on the flow shell 206 side continuously decreases. The flow shell 206 moves closer to the central tube 201 side. At this time, the adjusting plate 207 slides synchronously relative to the flow shell 206, thereby reducing the effective flow area at one end of the first flow hole a1, thus increasing the capture effect of small-diameter agglomerates. When the extrusion plate 208 reciprocates along the third direction z, it can further break down the small-diameter agglomerate components, thereby increasing the dissolution efficiency of the dust suppressant.

[0027] Please see Figure 3 In a preferred embodiment of the present invention, the stirring module further includes an adjustment component 3. The adjustment component 3 includes a main shaft 301, a sliding pin bracket 302, a sliding pin 303, a traction frame 304, and a sliding groove 305. The main shaft 301 is fixedly mounted on the central tube 201 and is coaxially arranged with the central tube 201. A plurality of sliding pin brackets 302 are arranged circumferentially on the main shaft 301, and a sliding pin 303 is fixedly arranged on the sliding pin bracket 302. One end of the traction frame 304 is fixedly connected to the adjustment plate 207, and the other end of the traction frame 304 is fixedly provided with a sliding groove 305. The sliding groove 305 is slidably sleeved on the sliding pin 303.

[0028] In practical application, the main shaft 301 is fixedly mounted on the top of the stirring shell 203, and the sliding pin bracket 302 and sliding pin 303 on the main shaft 301 are limited and slidably assembled in the sliding groove 305. When the flow shell 206 in the separation chamber 204 slides radially along the central tube 201, the traction frame 304 slides synchronously with the flow shell 206. During the movement, the sliding groove 305 synchronously drives the traction frame 304 to rise or fall in the third direction z, thereby controlling the orifice area of ​​effective flow between the first flow hole a1 and the second flow hole a2.

[0029] Please see Figure 4 and Figure 5 In a preferred embodiment of this invention, the adjusting assembly 3 further includes a bracket 306, a drive gear 307, a first transmission wheel 308, a second transmission wheel 309, a third transmission wheel 310, a pin 311, a lifting frame 312, a side sliding groove 313, a guide rod 314, and a linkage frame 315. The bracket 306 is fixedly mounted on one side of the main shaft 301, and the drive gear 307, the first transmission wheel 308, the second transmission wheel 309, and the third transmission wheel 310 are fixedly mounted on the bracket 306. One end of the drive gear 307 meshes with the internal gear ring 103, and the other end of the drive gear 307 is connected to the first transmission wheel 308. The two transmission wheels are coaxially fixedly connected. One end of the second transmission wheel 309 is connected to the first transmission wheel 308, and the other end of the second transmission wheel 309 is connected to the third transmission wheel 310. One end of the third transmission wheel 310 is fixedly fitted with a pin 311. The lifting frame 312 is slidably sleeved on the main shaft 301 in the vertical direction, and a side sliding groove 313 is fixedly provided on the lifting frame 312. The pin 311 is limited and slidably fitted in the side sliding groove 313. One end of the guide rod 314 is fixedly fitted in the lifting frame 312. One end of the linkage frame 315 is slidably inserted into the guide rod 314, and the other end of the linkage frame 315 is fixedly connected to several extrusion plates 208.

[0030] In practical application, the bracket 306 is fixedly mounted on one side of the main shaft 301, so that during the rotation of the main shaft 301, it drives the stirring shell 203 to rotate coaxially, and at the same time, it causes the drive gear 307 and the internal gear ring 103 to mesh and engage, thereby driving the first transmission wheel 308, the second transmission wheel 309, and the third transmission wheel 310 to move synchronously. During the rotation of the third transmission wheel 310, the pin 311 at one end synchronously pulls the side slide groove 313 to reciprocate up and down in the third direction z. Since the side slide groove 313 is fixedly mounted on the lifting frame 312, the synchronous movement is achieved. The lifting frame 312 reciprocates in the third direction z. Since the guide rod 314 is fixedly installed in the lifting frame 312 and the linkage frame 315 is slidably installed on the guide rod 314, the lifting frame 312 simultaneously drives the linkage frame 315 and several extrusion plates 208 to reciprocate in the third direction z while reciprocating. The extrusion plates 208 are set in contact with one side of the flow shell 206, so that the clumps trapped on the side of the first flow hole a1 are continuously cut off during the reciprocating sliding process of the extrusion plates 208, thereby reducing the diameter of the clumps and accelerating their dissolution rate in the dust suppressant.

[0031] Please see Figure 4 In a preferred embodiment of the present invention, the dispersion device for dust suppressant production further includes a drive assembly 4. The drive assembly 4 includes a driver 401, a first transmission rod 402, a second transmission rod 403, a transmission gear 404, and a fourth transmission wheel 405. The driver 401 is fixedly disposed on one side of the housing 101. The first transmission rod 402, the second transmission rod 403, and the transmission gear 404 are all fixedly arranged on one side of the housing 101. One end of the first transmission rod 402 is engaged with the driver 401, and the other end of the first transmission rod 402 is drivenly connected to the second transmission rod 403. The other end of the second transmission rod 403 is engaged with the transmission gear 404. The fourth transmission wheel 405 is also coaxially disposed at the end of the first transmission rod 402. The fourth transmission wheel 405 is drivenly connected to the main shaft 301.

[0032] In practical application, the driver 401 drives the first transmission rod 402 to rotate through the drive shaft in the driving state, so that one end of the first transmission rod 402 drives the second transmission rod 403 to rotate on a fixed axis. The end of the second transmission rod 403 is engaged with the transmission gear 404. The end of the first transmission rod 402 is coaxially fixedly provided with a fourth transmission wheel 405. The fourth transmission wheel 405 is connected to the main shaft 301 through transmission, thereby driving the main shaft 301 to rotate around the central tube 201 as the axis.

[0033] Please see Figure 4 and Figure 6In a preferred embodiment of the present invention, the pumping module includes a pumping assembly 5, which includes a pumping cylinder 501, a piston rod 502, a lateral inlet pipe 503, a lateral suction cylinder 504, a pulley 505, a slanted pressure frame 506, a driven wheel 507, and a sliding pressure wheel 508. The pumping cylinder 501 is fixedly disposed at the bottom of the housing 101 and communicates with the central pipe 201. The piston rod 502 is elastically slidably inserted into the pumping cylinder 501, and one end of the pumping cylinder 501 is also connected to the lateral inlet pipe 504. 03, the end of the lateral inlet pipe 503 is connected to a lateral pump suction cylinder 504, the lateral pump suction cylinder 504 is disposed on one side of the bottom of the housing 101, a pulley 505 is fixedly disposed at the bottom of the piston rod 502, the inclined pressure frame 506 is elastically slidably assembled at the bottom of the housing 101 and one end is movably abutting against the pulley 505, one end of the driven wheel 507 is coaxially fixedly connected to the transmission gear 404, and the other end of the driven wheel 507 is rotatably assembled with a sliding pressure wheel 508, the sliding pressure wheel 508 and the inclined pressure frame 506 are movably abutting against each other.

[0034] In practical application, the pump module in this embodiment includes a pump assembly 5. The pump cylinder 501 is fixedly installed at the bottom of the housing 101 and connected to the central tube 201. During rotation, the transmission gear 404 synchronously drives the driven wheel 507 to rotate. When the driven wheel 507 rotates, its sliding pressure wheel 508 rotates and abuts against the inclined pressure frame 506, pushing the inclined pressure frame 506 to overcome the elastic force and move in the positive direction of the first direction x. During the movement, the inclined pressure frame 506 moves against the pulley 505, thereby causing the pulley 505 and the piston rod 502 to move in the positive direction of the third direction z. When the inclined pressure frame 506 moves away from the pulley 505, the piston rod 502, under the action of elastic force... The piston rod 502 is reset to its initial position in the third direction z, and then reciprocates along the third direction z in the driving state, so that the inner cavity of the pump cylinder 501 cycles between positive and negative pressure states. When the inner cavity of the pump cylinder 501 is in a negative pressure state, the dust suppressant at the bottom of the cavity can be drawn into the inner cavity of the pump cylinder 501 by the lateral pump suction cylinder 504 set on the bottom side of the cavity of the housing 101. When the inner cavity of the pump cylinder 501 is in a positive pressure state, the drawn dust suppressant is pumped into the central pipe 201 and output to the stirring housing 203 cavity through the pump outlet 202 at the top of the central pipe 201. This allows the dust suppressant to circulate in the housing 101, and the agglomerated components in the dust suppressant are repeatedly transported to the crushing structure side for destruction, thereby increasing the dissolution efficiency.

[0035] In this embodiment, a one-way check valve is provided on the pump cylinder 501 to limit the fluid to flow unidirectionally along the lateral inlet pipe 503 into the inner cavity of the pump cylinder 501, and to limit the fluid to flow unidirectionally along the inner cavity of the pump cylinder 501 into the central pipe 201.

[0036] The above embodiments of the present invention provide a dispersion device for dust suppressant production. By providing a stirring module and a pumping module in the container, the dust suppressant is stirred and mixed while being dispersed to several crushing structures in the stirring module by centrifugal force, thereby crushing and shearing the agglomerated components. The crushing effect can also be adjusted according to the particle size of the agglomerated components to improve the dissolution efficiency.

[0037] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A dispersion device for producing a dust suppressant, characterized in that, The dispersion device for producing the dust suppressant includes: The mixing module and the pump module are provided. The mixing module is rotatably installed in the container of the dust suppressant, and the mixing module is provided with a cavity connected to the pump module. The pump module causes the dust suppressant in the container to circulate in the container and the cavity of the mixing module. The mixing module is also provided with a crushing structure that automatically adjusts the mixing effect according to the degree of dispersion of the dust suppressant. The stirring module includes a stirring assembly, which includes a central tube, a pump outlet, a stirring shell, a separation chamber, and a guide groove. The central tube is fixedly installed inside the container, and the top of the central tube is provided with a pump outlet. The stirring shell is rotatably assembled on the central tube, and the stirring shell is circumferentially arranged with several separation chambers. One end of each separation chamber is provided with a guide groove, and the inner cavity of the central tube is connected to the several separation chambers.

2. The dispersing device for dust suppressant production according to claim 1, characterized in that, The dispersion device for producing dust suppressant also includes a shell assembly, which includes a shell, a feed inlet, and an internal toothed ring. The feed inlet is provided on the top of the shell, and an internal toothed ring is also provided on the inner peripheral wall of the feed inlet.

3. The dispersing device for dust suppressant production according to claim 1, characterized in that, The stirring assembly further includes a flow-through shell, an adjusting plate, and an extrusion plate. The flow-through shell is slidably disposed in the separation chamber, and the flow-through shell and the separation chamber are elastically connected. The flow-through shell is provided with opposing first flow-through holes. The adjusting plate is fitted to the flow-through shell and slidably disposed between the guide channel and the flow-through shell. The adjusting plate is provided with opposing second flow-through holes. Several extrusion plates are also arrayed in the flow-through shell. The several extrusion plates are fixedly connected and slidably assembled in the flow-through shell. The extrusion plates are disposed on the side close to the first flow-through holes.

4. The dispersing device for dust suppressant production according to claim 3, wherein The stirring module also includes an adjustment assembly, which includes a main shaft, a sliding pin bracket, a sliding pin, a traction frame, and a sliding groove. The main shaft is fixedly mounted on the central tube and is coaxial with the central tube. Several sliding pin brackets are arranged circumferentially on the main shaft, and sliding pins are fixedly mounted on the sliding pin brackets. One end of the traction frame is fixedly connected to the adjustment plate, and the other end of the traction frame is fixedly mounted with a sliding groove, which is slidably sleeved on the sliding pin.

5. The dispersing device for dust suppressant production according to claim 1, characterized in that, The adjustment assembly further includes a bracket, a drive gear, a first transmission wheel, a second transmission wheel, a third transmission wheel, a pin, a lifting frame, a side sliding groove, a guide rod, and a linkage frame. The bracket is fixedly mounted on one side of the main shaft, and the drive gear, the first transmission wheel, the second transmission wheel, and the third transmission wheel are mounted on the bracket on a fixed axis. One end of the drive gear meshes with an internal gear ring, and the other end of the drive gear is coaxially and fixedly connected to the first transmission wheel. One end of the second transmission wheel is drivingly connected to the first transmission wheel, and the other end of the second transmission wheel is drivingly connected to the third transmission wheel. A pin is fixedly mounted on one end of the third transmission wheel. The lifting frame is slidably sleeved on the main shaft in the vertical direction, and a side sliding groove is fixedly provided on the lifting frame. The pin is limited and slidably mounted in the side sliding groove. One end of the guide rod is fixedly mounted in the lifting frame. One end of the linkage frame is slidably inserted into the guide rod, and the other end of the linkage frame is fixedly connected to several extrusion plates.

6. The dispersing device for dust suppressant production according to claim 1, wherein The dispersion device for dust suppressant production also includes a drive assembly, which includes a driver, a first transmission rod, a second transmission rod, a transmission gear, and a fourth transmission wheel. The driver is fixedly mounted on one side of the housing. The first transmission rod, the second transmission rod, and the transmission gear are all axially arranged on one side of the housing. One end of the first transmission rod is engaged with the driver, and the other end of the first transmission rod is driven by the second transmission rod. The other end of the second transmission rod is engaged with the transmission gear. The fourth transmission wheel is also coaxially mounted at the end of the first transmission rod, and the fourth transmission wheel is driven by the main shaft.

7. The dispersing device for dust suppressant production according to claim 1, wherein The pumping module includes a pumping assembly, which includes a pumping cylinder, a piston rod, a lateral inlet pipe, a lateral suction cylinder, a pulley, an inclined pressure frame, a driven wheel, and a sliding pressure wheel. The pumping cylinder is fixedly installed at the bottom of the housing and connected to the central pipe. The piston rod is elastically slidably inserted into the pumping cylinder. One end of the pumping cylinder is also connected to the lateral inlet pipe, and the end of the lateral inlet pipe is connected to the lateral suction cylinder, which is located on one side of the bottom of the housing cavity. A pulley is fixedly installed at the bottom of the piston rod. The inclined pressure frame is elastically slidably assembled at the bottom of the housing, and one end of the frame is movably abutting against the pulley. One end of the driven wheel is coaxially fixedly connected to the transmission gear, and the other end of the driven wheel is rotatably equipped with a sliding pressure wheel. The sliding pressure wheel and the inclined pressure frame are movably abutting against each other.

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