CN218398923U

CN218398923U - Combined homogenizing tank

Info

Publication number: CN218398923U
Application number: CN202222465567.9U
Authority: CN
Inventors: 秦晓辉; 吕怀兴; 周文; 刘玉清; 何鑫
Original assignee: Henan Green Recycling Electronic Waste Disposal Co ltd; Inner Mongolia Xinchuang Resource Regeneration Co ltd; Jiangxi Green Recycling Industry Co ltd
Current assignee: Henan Green Recycling Electronic Waste Disposal Co ltd; Inner Mongolia Xinchuang Resource Regeneration Co ltd; Jiangxi Green Recycling Industry Co ltd
Priority date: 2022-09-16
Filing date: 2022-09-16
Publication date: 2023-01-31
Anticipated expiration: 2032-09-16

Abstract

The utility model discloses a modular homogenization jar relates to granule material homogenization jar technical field, including a jar body, air lifting mechanism and mechanical lifting mechanism, air lifting mechanism is including promoting pipeline and air pumping subassembly, the feed end and the discharge end of promoting the pipeline are linked together with jar internal portion respectively, air pumping subassembly is linked together with the promotion pipeline, supplies jar internal material to fall to jar internal with the homogenization material after promoting the transport to the material level top via the promotion pipeline, mechanical lifting mechanism is including locating jar internal portion push away the material portion and with push away the promotion drive assembly that the material portion transmission is connected to the material that pushes away to the internal material of jar upwards promote carry to the material level top after the whereabouts to jar internal with the homogenization material. Thereby on the premise of guaranteeing the homogenization efficiency, the damage to the material is reduced as much as possible, and then the better homogenization efficiency and effect are obtained.

Description

Combined homogenizing tank

Technical Field

The utility model relates to a granule material homogenization jar technical field especially relates to a modular homogenization jar.

Background

In order to realize the uniformity of product quality, reduce the performance fluctuation of products and improve the productivity in large, medium and small manufacturing industries, proper homogenizing equipment plays a vital role in production. According to investigations within the plastics industry, there are common problems with the plastics particle homogenization process including: the homogenization efficiency is low, and the homogenization process generates powder by friction, so that the surface glossiness of the product is damaged. At present, homogenization process equipment adopts spiral homogenization jar mostly, for example chinese utility model patent CN201520484944.0 discloses a granule homogenization device, including frame, shale shaker, fan, homogenization jar, feeder hopper, discharge gate, pivot and driving motor, homogenization jar upper portion is cylindricly, and the lower part is leaks hopper-shaped, homogenization jar fixed mounting adopts spiral auger to follow supreme hank down with the raw materials in the frame, then spills down from homogenization jar upper portion to reach the abundant homogenization of the plastic granules of different compositions.

Above-mentioned granule homogenization device adopts the mode that the heliciform auger splashes down from homogenization jar upper portion after from supreme the winching of raw materials down to realize the homogenization of material, nevertheless adopts the auger to carry out the mode of homogenization to the material and although homogenization speed is very fast, nevertheless because physical friction can produce the destruction to the surface of material, causes to destroy product glossiness and produces a large amount of powders, influences the material quality after the homogenization. Besides the auger homogenization mode, the current common homogenization equipment also comprises an airflow homogenization tank, the airflow homogenization tank has a protection effect on products when in work, the glossiness of the products can be protected while the products are homogenized, and the homogenization efficiency is lower than that of the auger homogenization tank.

SUMMERY OF THE UTILITY MODEL

In view of the above, a need exists for a combined homogenizing tank to solve the technical problems in the prior art that an auger type homogenizing tank affects the quality of materials and the airflow type homogenizing tank has low homogenizing efficiency.

In order to achieve the technical purpose, the technical scheme of the utility model provides a modular homogenization jar, including a jar body, air lifting mechanism and mechanical lifting mechanism, air lifting mechanism is including promoting pipeline and air pumping subassembly, the feed end and the discharge end of promotion pipeline are linked together with jar internal portion respectively, the feed end of promotion pipeline is located the material level below with the intercommunication position of jar body, the discharge end of promotion pipeline is located the material level top with the intercommunication position of jar body, air pumping subassembly is linked together with the promotion pipeline, supplies the internal material of jar to fall to jar internal with the homogenization material after promoting the transport to the material level top via the promotion pipeline, mechanical lifting mechanism is including locating the material pushing part of jar internal portion and the promotion drive assembly who is connected with the transmission of material pushing part, material pushing part extends to the material level below, promotion drive assembly can drive material pushing part and pushes away the action of material, supplies material pushing part to promote the material in the jar internal material upwards to fall to jar internal with the homogenization material after the material is upwards promoted to be carried to the material level top.

In one embodiment, the material scattering device further comprises a material scattering assembly arranged in the tank body, wherein the material scattering assembly is provided with a material guiding inclined plane used for receiving materials falling after being lifted and conveyed by the pneumatic lifting mechanism or/and the mechanical lifting mechanism, and the materials are spread along the material guiding inclined plane and scattered into the tank body.

In one embodiment, the bulk cargo assembly comprises a conical air guide sleeve, the material guiding inclined plane is an external conical surface of the conical air guide sleeve, the conical air guide sleeve is provided with blanking chutes which are arranged at intervals along the external conical surface in a gradient manner, and the material falls into the tank body through the blanking chutes when sliding down along the external conical surface of the conical air guide sleeve.

In one embodiment, the mechanical lifting mechanism is an auger lifter or a ring chain tile bucket lifter.

In one embodiment, the mechanical lifting mechanism further includes a cylinder fixedly arranged inside the tank body and a rotating shaft rotatably arranged inside the tank body and penetrating through the cylinder, the lifting driving assembly includes a lifting motor fixedly arranged inside the tank body and in transmission connection with the rotating shaft, the pushing part includes a spiral rib plate fixedly arranged on the outer circumferential part of the rotating shaft, and the lifting motor can drive the rotating shaft and the spiral rib plate fixedly arranged on the rotating shaft to rotate around the axial lead of the rotating shaft, so that the spiral rib plate can push the material in the tank body to be lifted and conveyed upwards.

In one embodiment, the upper end and the lower end of the barrel are both open structures, the lower end of the barrel extends to below the material level, the spiral rib plate penetrates out of the barrel downwards, and when the lifting motor drives the rotating shaft and the spiral rib plate fixedly arranged on the rotating shaft to rotate around the axis of the rotating shaft, materials in the tank body enter the barrel through the opening at the lower end of the barrel to be lifted and conveyed, and then are discharged from the opening at the upper end of the barrel and fall into the tank body.

In one embodiment, the air-lift mechanism is a positive pressure air-lift mechanism or a negative pressure air-lift mechanism.

In one embodiment, a discharge port is formed in the bottom of the tank body, the pneumatic pumping assembly comprises a negative pressure roots blower, the lifting pipeline comprises a first pipeline and a second pipeline, a feed end of the lifting pipeline is arranged at one end of the first pipeline, one end of the first pipeline is communicated with the discharge port of the tank body through a solid-gas mixing assembly, the other end of the first pipeline is communicated with an inlet of the negative pressure roots blower, one end of the second pipeline is communicated with an outlet of the negative pressure roots blower, a discharge end of the lifting pipeline is arranged at the other end of the second pipeline, and the other end of the second pipeline is communicated with the inside of the tank body through a solid-gas separating assembly.

In one embodiment, the solid-gas mixing assembly comprises a buffering bin communicated with the discharge port of the tank body, a star-shaped discharger communicated with the buffering bin, and a mixing bin communicated with the star-shaped discharger and the first pipeline, wherein an air inlet is formed in one end of the mixing bin, so that external air enters the mixing bin through the air inlet and is mixed with materials falling into the mixing bin through the buffering bin and the star-shaped discharger and then is conveyed.

In one embodiment, the solid-gas separation assembly comprises a cyclone separator and a discharge valve, a feed pipe is fixedly arranged at the top of the tank body in a penetrating manner, a material guide hopper extending towards two sides along the radial direction of the feed pipe is arranged at the end part of the feed pipe positioned in the tank body, the discharge end of the cyclone separator is communicated with the second pipeline, and the discharge valve is respectively communicated with the discharge end of the cyclone separator and the feed pipe.

Compared with the prior art, the utility model discloses following beneficial effect has: the utility model discloses a combination formula homogenization jar is when carrying out homogenization treatment to the material, push away the material portion action through promoting the drive assembly drive, and promote material rebound through pushing away the material portion, make the material upwards promote and carry to the material level top after the whereabouts to the jar internal homogenization treatment mode that realizes the mechanical type and promote the whereabouts, be linked together lifting pipeline and jar body simultaneously, be linked together pneumatic pumping subassembly and lifting pipeline, through pneumatic pumping subassembly with jar internal material through lifting pipeline promote carry to the material level top after the whereabouts to the jar internal homogenization treatment mode that realizes the pneumatic lifting whereabouts. The utility model discloses a combination formula homogenization jar adopts mechanical type to promote whereabouts and mode that the pneumatic type promotion whereabouts combined together to carry out the homogenization to the material, causes the damage to the material for avoiding the mechanical type homogenization, the utility model discloses a combination formula homogenization jar can suitably reduce the speed that the mechanical type promoted the whereabouts in order to reduce the damage to the material at the during operation, compensates the homogenization efficiency that reduces the loss of mechanical type promotion whereabouts speed through pneumatic type homogenization simultaneously to under the prerequisite of guaranteeing homogenization efficiency, reduce the damage to the material as far as possible, and then obtain the homogenization efficiency and the homogenization effect of preferred.

Drawings

FIG. 1 is a schematic view of the cut tank body of the present invention;

fig. 2 is a schematic diagram of the tank, the cylinder, the inlet pipe and other parts of the present invention after being cut.

Detailed Description

The following detailed description of the preferred embodiments of the invention, which is to be read in connection with the accompanying drawings, forms a part of this application, and together with the embodiments of the invention, serve to explain the principles of the invention and not to limit its scope.

As shown in fig. 1 and 2, the utility model provides a modular homogenization jar, including jar body 10, air lifting mechanism 20 and mechanical lifting mechanism 30, air lifting mechanism 20 includes lifting pipe way 21 and air pumping subassembly 22, lifting pipe way 21's feed end and discharge end are linked together with jar body 10 inside respectively, lifting pipe way 21's feed end and jar body 10's intercommunication position are located the material level below, lifting pipe way 21's discharge end and jar body 10's intercommunication position are located the material level top, air pumping subassembly 22 is linked together with lifting pipe way 21, and the material that supplies in jar body 10 falls to jar body 10 after lifting pipe way 21 promotes to carry to the material level top in with the homogenization material, mechanical lifting mechanism 30 is including locating jar body 10 inside material pushing part 31 and the promotion drive assembly 32 who is connected with material pushing part 31 transmission, material pushing part 31 extends to the material level below, promotion drive assembly 32 can drive material pushing part 31 action, supplies material pushing part 31 to promote the material rebound to fall to jar body 10 after promoting material upward to carry to the material level top in jar body 10 with the homogenization material.

The utility model discloses a modular homogenization jar is when carrying out homogenization treatment to the material, push away the action of material portion 31 through promoting the drive assembly 32 drive, and promote the material through pushing away material portion 31 and upwards remove, make the material upwards promote and carry and fall to the material level top after and realize the homogenization treatment mode that the mechanical type promoted the whereabouts in jar body 10, be linked together lifting pipeline 21 and jar body 10 simultaneously, be linked together pneumatic pumping subassembly 22 and lifting pipeline 21, through pneumatic pumping subassembly 22 with the material in jar body 10 after lifting pipeline 21 promotes to carry to the material level top the whereabouts to the jar body 10 in realize the homogenization treatment mode that the pneumatic lifting whereabouts. The utility model discloses a combination formula homogenization jar adopts mechanical type to promote whereabouts and mode that the pneumatic type promotion whereabouts combined together to carry out the homogenization to the material, causes the damage to the material for avoiding the mechanical type homogenization, the utility model discloses a combination formula homogenization jar can suitably reduce the speed that the mechanical type promoted the whereabouts in order to reduce the damage to the material at the during operation, compensates the homogenization efficiency that reduces the loss of mechanical type promotion whereabouts speed through pneumatic type homogenization simultaneously to under the prerequisite of guaranteeing homogenization efficiency, reduce the damage to the material as far as possible, and then obtain the homogenization efficiency and the homogenization effect of preferred.

In one embodiment, the top of the can body 10 is provided with a ventilation filter 14 communicated with the inside of the can body 10, and the inside of the can body 10 is communicated with the outside through the ventilation filter 14, so that the air pressure inside the can body 10 is equal to the atmospheric pressure.

In one embodiment, the air-lifting mechanism 20 can be a positive pressure air-lifting mechanism or a negative pressure air-lifting mechanism, etc. which are commonly used in the art. In this embodiment, the pneumatic lifting mechanism 20 is a negative pressure pneumatic lifting mechanism, and more specifically, the bottom of the tank 10 is provided with a discharge port 11, the discharge port 11 of the tank 10 is communicated with an electric butterfly valve 12, the pneumatic pumping component 22 includes a negative pressure roots blower 221, the lifting pipeline 21 includes a first pipeline 211 and a second pipeline 212, the feed end of the lifting pipeline 21 is disposed at one end of the first pipeline 211, one end of the first pipeline 211 is communicated with the discharge port 11 of the tank 10 through a solid-gas mixing component 23, the other end of the first pipeline 211 is communicated with an inlet of the negative pressure roots blower 221, one end of the second pipeline 212 is communicated with an outlet of the negative pressure roots blower 221, the discharge end of the lifting pipeline 21 is disposed at the other end of the second pipeline 212, and the other end of the second pipeline 212 is communicated with the inside of the tank 10 through a solid-gas separation component 24.

When the materials are lifted and conveyed by the air lifting mechanism 20, the external air is sucked into the first pipeline 211 under the action of the negative pressure Roots blower 221, the materials falling from the discharge port 11 are mixed with the air sucked into the first pipeline 211 by the solid-gas mixing component 23 and then lifted and conveyed along the first pipeline 211 and the second pipeline 212, and the materials are lifted to a high position and then separated by the solid-gas separation component 24 and then fall back into the tank 10.

In one embodiment, the solid-gas mixing assembly 23 includes a buffer bin 231 communicated with the discharge port 11 of the tank 10, a star discharger 232 communicated with the buffer bin 231, and a mixing bin 233 communicated with the star discharger 232 and the first pipeline 211, wherein an air inlet 2331 is formed at one end of the mixing bin 233, so that external air enters the mixing bin 233 through the air inlet 2331 and is mixed with the materials falling into the mixing bin 233 through the buffer bin 231 and the star discharger 232 for transportation. The air inlet 2331 is communicated with an air filter 234, the buffer bin 231 is communicated with the inside of the tank body 10 through a pressure equalizing pipe 235, and high-pressure gas brought by rotation of an impeller when the star-shaped discharger 232 works can be discharged from the pressure equalizing pipe 235, so that the gas ejection phenomenon is reduced, and smooth falling of materials is facilitated.

When the solid-gas mixing assembly 23 works, materials in the tank body 10 fall into the buffer bin 231 from the discharge hole 11, and then are discharged into the mixing bin 233 through the star discharger 232 to be mixed with air filtered by the air filter 234 to form stable aerosol.

In one embodiment, the solid-gas separation assembly 24 includes a cyclone separator 241 and a discharge valve 242, the top of the tank 10 is fixedly provided with a feeding pipe 13, the end of the feeding pipe 13 located inside the tank 10 is provided with a material guide hopper 131 located above the conical air guide sleeve 41 and extending to two sides along the radial direction of the feeding pipe 13, the discharge end of the cyclone separator 241 is communicated with the second pipeline 212, and the discharge valve 242 is respectively communicated with the discharge end of the cyclone separator 241 and the feeding pipe 13.

The material separated by the cyclone separator 241 falls into the feeding pipe 13, is spread and dispersed to a certain extent by the material guiding hopper 131, is discharged, and falls onto the outer conical surface of the conical air guide sleeve 41.

In one embodiment, the mechanical lifting mechanism 30 can be a lifting device such as a screw elevator or a chain shoe elevator. In this embodiment, the mechanical lifting mechanism 30 is a screw conveyor, and more specifically, the mechanical lifting mechanism 30 further includes a cylinder 33 fixedly disposed inside the tank 10 along a vertical direction through a bracket 35, and a rotating shaft 34 rotatably disposed in the tank 10 and penetrating through the cylinder 33, the lifting driving component 32 includes a lifting motor 321 fixedly disposed on the tank 10 and in transmission connection with the rotating shaft 34, the material pushing portion 31 includes a spiral rib plate 311 fixedly disposed on an outer peripheral portion of the rotating shaft 34, and the lifting motor 321 can drive the rotating shaft 34 and the spiral rib plate 311 fixedly disposed on the rotating shaft 34 to rotate around an axial lead of the rotating shaft 34, so that the spiral rib plate 311 pushes the material in the tank 10 to be lifted and conveyed upwards. The upper end and the lower end of the cylinder 33 are both open structures, the lower end of the cylinder 33 extends to the position below the material level, the spiral rib plate 311 penetrates out of the cylinder 33 downwards, when the lifting motor 321 drives the rotating shaft 34 and the spiral rib plate 311 fixedly connected with the rotating shaft 34 to rotate around the axis of the rotating shaft 34, the material in the tank 10 enters the cylinder 33 through the opening at the lower end of the cylinder 33 to be lifted and conveyed, and then is discharged from the opening at the upper end of the cylinder 33 and falls into the tank 10.

The lifting motor 321 can drive the rotating shaft 34 and the spiral rib 311 fixedly arranged on the rotating shaft 34 to rotate around the axis of the rotating shaft 34, so that the materials in the tank 10 are pushed by the spiral rib 311 to enter the barrel 33 from the opening at the bottom end of the barrel 33, are lifted upwards along the barrel 33, are finally discharged from the opening at the upper end of the barrel 33, and fall into the tank 10. In order to ensure that the material can smoothly enter the barrel 33, when the height of the barrel 33 and the height of the spiral rib plate 311 are set, the lower end of the barrel 33 needs to be extended to the position below the material level, and the spiral rib plate 311 needs to penetrate out of the barrel 33 and extend into the material.

In one embodiment, the container further comprises a bulk material assembly 40 disposed in the tank 10, wherein the bulk material assembly 40 is provided with a material guiding slope 411 for receiving the material falling after being lifted and conveyed by the air lifting mechanism 20 or/and the mechanical lifting mechanism 30, and the material is spread along the material guiding slope 411 and is scattered into the tank 10. The bulk cargo assembly 40 comprises a conical air guide sleeve 41 fixedly arranged inside the tank body 10 through a support 42, the conical air guide sleeve 41 is sleeved outside the cylinder body 33, and the upper end face of the conical air guide sleeve 41 is positioned below the upper end face of the cylinder body 33. The material guiding inclined plane 411 is an outer conical surface of the conical air guide sleeve 41, the conical air guide sleeve 41 is provided with material discharging grooves 412 which are arranged along the outer conical surface at intervals in a gradient manner, and the material is supplied to fall into the tank 10 through the material discharging grooves 412 when sliding down along the outer conical surface of the conical air guide sleeve 41.

Because the outer conical surface of the conical air guide sleeve 41 is a curved surface with the radius gradually becoming wider from top to bottom, the falling materials after being lifted and conveyed by the air lifting mechanism 20 or/and the mechanical lifting mechanism 30 can be spread and dispersed after falling onto the outer conical surface of the conical air guide sleeve 41, and because the conical air guide sleeve 41 is provided with the blanking chutes 412 which are arranged along the outer conical surface at intervals in a gradient manner, the materials can fall into the tank body 10 through the blanking chutes 412 with different heights when sliding down along the outer conical surface of the conical air guide sleeve 41, so that the materials fall into the tank body 10 as dispersedly as much as possible, the falling materials are prevented from being bundled, and the homogenization effect is improved.

The utility model discloses a modular homogenization jar's theory of operation as follows: the rotating shaft 34 and the spiral rib plate 311 fixed on the rotating shaft 34 are driven by the lifting motor 321 of the mechanical lifting mechanism 30 to rotate around the axial lead of the rotating shaft 34, so that the material in the tank 10 is pushed by the spiral rib plate 311 to enter the cylinder 33 from the opening at the bottom end of the cylinder 33, is lifted upwards along the cylinder 33 and finally discharged from the opening at the upper end of the cylinder 33, falls onto the outer conical surface of the conical air guide sleeve 41 after being discharged, falls into the tank 10 through the blanking groove 412 and the outer edge of different heights when sliding along the outer conical surface of the conical air guide sleeve 41, and is homogenized by mechanical lifting and falling. Meanwhile, the electric butterfly valve 12, the star discharger 232 and the negative pressure roots blower 221 are opened, so that the material in the tank body 10 falls into the surge bin 231 from the discharge port 11, is discharged into the mixing bin 233 through the star discharger 232 and is mixed with the air filtered by the air filter 234 to form stable aerosol, is lifted and conveyed along the first pipeline 211 and the second pipeline 212, falls into the feed pipe 13 after being separated by the cyclone separator 241, is spread and dispersed to a certain extent through the guide hopper 131, falls onto the outer conical surface of the conical guide cover 41, falls into the tank body 10 through the material falling grooves 412 with different heights and the outer edge when sliding down along the outer conical surface of the conical guide cover 41, and is homogenized by means of pneumatic lifting and falling.

The above description is only for the preferred embodiment of the present invention, but the scope of the present invention is not limited thereto, and any changes or substitutions that can be easily conceived by those skilled in the art within the technical scope of the present invention should be covered by the present invention.

Claims

1. The utility model provides a modular homogenization jar, its characterized in that, including a jar body, air lifting mechanism and mechanical lifting mechanism, air lifting mechanism includes promotion pipeline and air pumping subassembly, the feed end and the discharge end of promotion pipeline are linked together with jar internal portion respectively, the feed end of promotion pipeline is located the material level below with the intercommunication position of jar body, the discharge end of promotion pipeline is located the material level top with the intercommunication position of jar body, air pumping subassembly is linked together with the promotion pipeline, supplies the internal material of jar to fall to jar internal with the homogenization material after promoting the transport to the material level top via the promotion pipeline, mechanical lifting mechanism is including locating the material pushing part of jar internal portion and the promotion drive assembly who is connected with material pushing part transmission, material pushing part extends to the material level below, promotion drive assembly can drive material pushing part action, supplies material pushing part to promote the material rebound to fall to jar internal with the homogenization material after the material upwards promotes the transport to the material level top in the jar.

2. The combined homogenizing tank of claim 1, further comprising a bulk material assembly disposed in the tank body, wherein the bulk material assembly is provided with a material guiding slope for receiving the material falling after being lifted and conveyed by the pneumatic lifting mechanism or/and the mechanical lifting mechanism, and the material is spread along the material guiding slope and is scattered into the tank body.

3. The combined homogenizing tank of claim 2, wherein the bulk material assembly comprises a conical guide hood, the guide slope is an outer conical surface of the conical guide hood, the conical guide hood is provided with feeding chutes arranged at intervals along the gradient of the outer conical surface, and the material falls into the tank body through the feeding chutes when sliding down along the outer conical surface of the conical guide hood.

4. The combined homogenization tank of claim 1 wherein the mechanical lifting mechanism is an auger elevator or a chain shoe elevator.

5. The combined homogenizing tank according to claim 1, wherein the mechanical lifting mechanism further comprises a cylinder fixedly arranged inside the tank body and a rotating shaft rotatably arranged inside the tank body and penetrating through the cylinder body, the lifting driving assembly comprises a lifting motor fixedly arranged on the tank body and in transmission connection with the rotating shaft, the material pushing part comprises a spiral rib plate fixedly arranged on the outer peripheral part of the rotating shaft, and the lifting motor can drive the rotating shaft and the spiral rib plate fixedly arranged on the rotating shaft to rotate around the axial lead of the rotating shaft, so that the spiral rib plate can push materials in the tank body to be lifted and conveyed upwards.

6. The combined homogenizing tank according to claim 5, wherein the upper end and the lower end of the barrel are both open structures, the lower end of the barrel extends below the material level, the spiral rib plate penetrates out of the barrel downwards, and when the lifting motor drives the rotating shaft and the spiral rib plate fixedly arranged on the rotating shaft to rotate around the axis of the rotating shaft, materials in the tank body enter the barrel through the opening at the lower end of the barrel, are lifted and conveyed, are discharged from the opening at the upper end of the barrel and fall into the tank body.

7. The combined homogenization tank of claim 1 wherein the air lift mechanism is a positive pressure air lift mechanism or a negative pressure air lift mechanism.

8. The combined homogenizing tank according to claim 1, wherein the bottom of the tank body is provided with a discharge port, the pneumatic pumping assembly comprises a negative pressure roots blower, the lifting pipeline comprises a first pipeline and a second pipeline, a feed end of the lifting pipeline is arranged at one end of the first pipeline, one end of the first pipeline is communicated with the discharge port of the tank body through a solid-gas mixing assembly, the other end of the first pipeline is communicated with an inlet of the negative pressure roots blower, one end of the second pipeline is communicated with an outlet of the negative pressure roots blower, a discharge end of the lifting pipeline is arranged at the other end of the second pipeline, and the other end of the second pipeline is communicated with the inside of the tank body through a solid-gas separating assembly.

9. The combination homogenizer tank of claim 8, wherein the solid-gas mixing assembly comprises a surge bin communicated with the discharge port of the tank body, a star discharger communicated with the surge bin, and a mixing bin communicated with the star discharger and the first pipeline, and an air inlet is formed at one end of the mixing bin, so that external air can enter the mixing bin through the air inlet and be mixed with the material falling into the mixing bin through the surge bin and the star discharger and then be conveyed.

10. The combined homogenizer tank of claim 8, wherein the solid-gas separation assembly comprises a cyclone separator and a discharge valve, a feed pipe is fixedly disposed through the top of the tank, a guide hopper extending along the radial direction of the feed pipe is disposed at the end of the feed pipe inside the tank, the discharge end of the cyclone separator is connected to the second pipeline, and the discharge valve is connected to the discharge end of the cyclone separator and the feed pipe respectively.