Air pushing type powder feeding and impurity removing filter

Abstract

The utility model provides an air pushing type powder feeding and impurity removing filter which comprises a rotating mechanism, the rotating mechanism comprises a driving motor arranged on the ground, the output of the driving motor is provided with a transmission roll shaft, the top end of the transmission roll shaft is provided with a spherical impurity remover in a transmission mode, and the outer side wall of the spherical impurity remover is provided with arc-shaped open grooves. An arc-shaped open groove is formed in the middle of the top end of the arc-shaped open groove, an access sleeve is attached to the middle of the top end of the groove position of the arc-shaped open groove, the top end of the access sleeve communicates with a transmission rolling shaft, and a spherical cover is arranged at the top end of the transmission rolling shaft and wraps the outer portion of the spherical impurity remover. The adopted connecting pipe is used for transferring raw materials at any time after being communicated, and in the transferring process, the raw materials are dispatched by the conveying sleeve in advance, enter a specific filter box and are purified by a plurality of sleeves at the top of the box and a filter plate above, so that unified purification is realized.

Description

Technical Field

[0001] The utility model relates to the technical field of filters, in particular to a pneumatic powder feeding and impurity removing filter. Background Technique

[0002] The filter element is the heart of the filter, as the name implies, it is the filter element. The main principle of the filter element, which is also the main principle of the filter, is to purify the original ecological resources and the reuse of resources, and the purification equipment is required. The filter element is generally mainly used in filtration industries such as oil filtration, water filtration, and air filtration. Removing a small amount of impurities in the filter medium can protect the normal operation of the equipment or the cleanliness of the air. When the fluid passes through the filter element with a certain precision in the filter, the impurities are blocked, and the clean fluid flows out through the filter element.

[0003] After retrieval, it is found that the filter element with the application number: CN02246509.X;

[0004] The utility model relates to a filter element for industrial use with a filtration accuracy reaching the micron level. A pleated and rolled cylindrical filter layer is filled between the inner and outer central tube supports of the filter element. The inner and outer central tubes are cylinders with densely distributed openings. There is a coalescing layer on the outer side of the outer central tube that can coalesce the moisture in the oil. The outside of the coalescing layer is a protective layer. End caps are buckled at both ends of the filter element. The filter layer is based on a micron-level glass fiber filter paper layer, and the protective layer is composed of inner and outer composite non-woven fabrics and protective nets; the water droplet coalescing layer is based on a glass fiber felt, with non-woven fabric lined on the inner side of the glass fiber felt and bundled on the outer central tube with a protective net on the outer side, and a cotton sleeve is put on the outermost side. The filter element of the utility model can work in high alkali concentration, high working pressure, and high-temperature oil, and the filter material does not deform or break through.

[0005] In the process, some semi-finished powdery raw materials with a fineness of 100-150 meshes will be used. The powdery raw materials are transported by tanker. There are often sundries such as stones, wooden blocks, bricks, iron blocks, plastic blocks, and plastic bags in the semi-finished powdery raw materials and in the tanker. They often mix into the production system together with the powdery raw materials, resulting in pipeline blockage, or causing operation failures of the powder separator, or causing the finished product to contain sundries and be unqualified. Therefore, a spherical impurity remover was designed and manufactured during the production process to block various sundries in the spherical impurity remover, ensuring the normal operation of the equipment and the quality of the product, but the later reuse characteristics are poor. Content of the Utility Model

[0006] The purpose of the present utility model is to provide a pneumatically-pushed powder feeding and impurity removing filter, so as to solve the problem that in the process described in the above background technology, some semi-finished powdered raw materials with a fineness of 100-150 meshes are used. The powdered raw materials are transported by tanker trucks. There are often sundries such as stones, wooden blocks, bricks, iron blocks, plastic blocks, and plastic bags in the semi-finished powdered raw materials and in the tanker trucks. These sundries often mix into the production system together with the powdered raw materials, resulting in pipeline blockage, or causing operation failures of the powder separator, or causing the finished products to contain sundries and be unqualified. Therefore, a spherical impurity remover is designed and manufactured during the production process to block various sundries in the spherical impurity remover, ensuring the normal operation of the equipment and the quality of the products. However, its reuse characteristics in the later stage are poor.

[0007] To achieve the above object, the present utility model provides the following technical solution: A pneumatically-pushed powder feeding and impurity removing filter, including a rotating mechanism. The rotating mechanism includes a driving motor arranged on the ground. The output of the driving motor is provided with a transmission roller shaft. The top end of the transmission roller shaft is drivingly provided with a spherical impurity remover. The outer side wall of the spherical impurity remover is provided with arc-shaped slots. In the middle of the top of the slot position of the arc-shaped slot, an access sleeve is fitted and installed. The top end of the access sleeve is communicated with a transmission roller shaft. The top end of the transmission roller shaft is provided with a spherical cover. The spherical cover covers the outside of the spherical impurity remover. A fitting gasket is fitted and installed on the middle surface of the spherical cover. An arc-shaped bracket is also installed at the bottom of one side of the spherical cover.

[0008] As a preferred scheme of the present utility model: A purification mechanism is installed at the other end of the spherical cover;

[0009] The purification mechanism includes an intersecting slot installed on the side wall of the spherical cover. The end of the intersecting slot is communicated with an access base. The surface of the access base is provided with fastening nuts around it. A ring-shaped access ferrule is fitted and installed on the surface of the fastening nuts.

[0010] As a preferred scheme of the present utility model: The end of the ring-shaped access ferrule is sleeved with a sleeve. A number of arc-shaped sleeves are arranged around the outer circle of the sleeve. The number of arc-shaped sleeves is evenly arranged between the corresponding sleeves, and purification sleeves are provided at the end positions of the sleeves.

[0011] As a preferred scheme of the present utility model: A filter sleeve for air filtration is embedded inside the purification sleeve. A number of gas purification openings are sequentially opened on the outer side wall surface of the barrel of the filter sleeve. Filter cores are embedded inside the hole positions of the gas purification openings. An access connecting pipe is provided at the end of the filter sleeve. An access sleeve is installed at the position of the access connecting pipe. One end of the access sleeve is connected with a sleeve. A tray is provided at the end of the sleeve. One end of the tray is fixedly arranged with an externally-connected access sleeve.

[0012] As a preferred embodiment of the present utility model: A gas injection mechanism is provided at the top of the two spherical impurity removers. The gas injection mechanism includes a conical sleeve respectively arranged in the middle of the top of the spherical impurity remover. The top of the conical sleeve is communicated with a filter membrane ventilation pipe, the top of the filter membrane ventilation pipe is communicated with an injection pipe, and a filtering mechanism is sleeved in the middle of the injection pipe. The filtering mechanism includes a filtering box for gas filtration. A circular opening is provided in the middle of the box body of the filtering box, and a sleeve is horizontally communicated in the middle of the hole position of the circular opening.

[0013] As a preferred embodiment of the present utility model: A concave slot is provided in the middle of the top of the sleeve. The back of the concave slot is communicated with a conveying sleeve, and one end of the conveying sleeve is communicated with a connecting pipe.

[0014] Compared with the prior art, the beneficial effects of the present utility model are:

[0015] 1) By adopting the driving motor and the transmission roller shaft, the purpose is to use the energized state of the driving motor for transfer and transportation. After the connecting pipe is connected, it is used for the real-time transfer of raw materials. During the transfer process, it will be scheduled through the conveying sleeve and enter the specific filtering box, and after being purified by several sleeves on the top of the box and the filtering plate above, unified purification is achieved;

[0016] 2) After the driving motor is energized, the transmission roller shaft spherical impurity remover will control the rotation of the spherical impurity remover, so as to ensure that the filtered materials are further screened, and the materials inside the sphere after screening are the real required materials. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is the structural schematic diagram of the present utility model;

[0018] Figure 2 is the structural schematic diagram of the sleeve of the present utility model;

[0019] Figure 3 is the structural schematic diagram of the purification mechanism of the present utility model;

[0020] Figure 4 is the structural schematic diagram of the connecting pipe of the present utility model;

[0021] Figure 5 is the structural schematic diagram of the rotating mechanism of the present utility model;

[0022] Figure 6 is the structural schematic diagram of the transmission roller shaft of the present utility model;

[0023] Figure 7 is the structural schematic diagram of the gas purification opening of the present utility model;

[0024] Figure 8Schematic diagram of the filter box structure of the present utility model.

[0025] In the figure: 1. Rotating mechanism; 11. Driving motor; 12. Transmission roller shaft; 13. Spherical impurity remover; 14. Arc-shaped slot; 15. Access sleeve; 16. Transmission roller; 17. Spherical cover; 18. Fitting gasket; 19. Arc-shaped bracket;

[0026] 2. Purification mechanism; 21. Intersecting slot; 22. Access base; 23. Tightening nut; 24. Annular access ring; 25. Sleeve; 26. Arc-shaped sleeve; 27. Purification sleeve; 28. Filter sleeve; 29. Gas purification opening; 291. Access connecting pipe; 292. Access sleeve; 293. Connecting sleeve; 294. Tray;

[0027] 3. Gas injection mechanism; 31. Conical sleeve; 33. Filter membrane ventilation pipe; 34. Injection pipe;

[0028] 4. Filtering mechanism; 41. Filter box; 42. Circular opening; 43. Assembly cylinder; 45. Concave-shaped slot; 46. Delivery sleeve; 47. Connecting pipe. Specific implementation mode

[0029] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present utility model without creative efforts shall fall within the protection scope of the present utility model.

[0030] Please refer to Figure 1 - Figure 5 , the present utility model provides a technical solution: a gas-pushed powder feeding and impurity removing filter, including a rotating mechanism 1. The rotating mechanism 1 includes a driving motor 11 arranged on the ground. The output of the driving motor 11 is provided with a transmission roller shaft 12. The top end of the transmission roller shaft 12 is drivingly provided with a spherical impurity remover 13. Arc-shaped slots 14 are provided on the outer side wall of the spherical impurity remover 13. An access sleeve 15 is fitted and installed at the middle of the top of the arc-shaped slot 14. The top end of the access sleeve 15 is communicated with a transmission roller 16. The top end of the transmission roller 16 is provided with a spherical cover 17. The spherical cover 17 covers the outside of the spherical impurity remover 13. A fitting gasket 18 is fitted and installed on the middle surface of the spherical cover 17. An arc-shaped bracket 19 is also installed at the bottom of one side of the spherical cover 17.

[0031] In this embodiment: the other end of the spherical cover 17 is installed with a purification mechanism 2;

[0032] The purification mechanism 2 includes an intersecting slot 21 installed on the side wall of the spherical cover 17. The end of the intersecting slot 21 is connected to an access base 22. A fastening nut 23 is arranged around the surface of the access base 22, and an annular access ferrule 24 is fitted on the surface of the fastening nut 23.

[0033] By using the spherical cover 17 and the fastening nut 23 threaded with the upper annular access ferrule 24, one end of the two independent spherical covers 17 is closed.

[0034] In this embodiment: The end of the annular access ferrule 24 is sleeved with a sleeve 25. A plurality of arc-shaped sleeves 26 are arranged around the outer circle of the sleeve 25. The plurality of arc-shaped sleeves 26 are evenly arranged between the corresponding sleeves 25, and purification sleeves 27 are provided at the end positions of the sleeves 25.

[0035] The arc-shaped sleeve 26 and the sleeve 25 adopted are used as one end of the internal purification sleeve 27 to bind the substances in the material by gas pushing of the material.

[0036] In this embodiment: A filter sleeve 28 for air filtration is embedded inside the purification sleeve 27. A plurality of gas purification openings 29 are sequentially opened on the outer side wall surface of the barrel of the filter sleeve 28. Filter cores are embedded inside the holes of the gas purification openings 29. An access connecting pipe 291 is provided at the end of the filter sleeve 28, and an access sleeve 292 is installed at the end position. One end of the access sleeve 292 is connected to an adapter sleeve 293. A tray 294 is provided at the end of the adapter sleeve 293. One end of the tray 294 is fixedly arranged with an externally connected access sleeve.

[0037] The adapter sleeve 293 and the tray 294 adopted are used to store the filter cores for material purification.

[0038] In this embodiment: A gas injection mechanism 3 is opened at the top of the two spherical separators 13. The gas injection mechanism 3 includes a conical sleeve 31 respectively arranged in the middle of the top of the spherical separator 13. The top of the conical sleeve 31 is connected to a filter membrane ventilation pipe 33. The top of the filter membrane ventilation pipe 33 is connected to an injection pipe 34. A filtering mechanism 4 is sleeved in the middle of the injection pipe 34. The filtering mechanism 4 includes a filtering box 41 for gas filtration. A circular opening 42 is opened in the middle of the box body of the filtering box 41. An assembly cylinder 43 is horizontally connected in the middle of the hole of the circular opening 42.

[0039] The circular opening 42 and the assembly cylinder 43 adopted are used to achieve transfer at one end of the cylinder.

[0040] In this embodiment: A concave slot 45 is opened in the middle of the top of the assembly cylinder 43. The back of the concave slot 45 is connected to a conveying sleeve 46. One end of the conveying sleeve 46 is connected to a connecting pipe 47.

[0041] The adopted takeover 47 and concave grooving 45 achieve the injection of materials.

[0042] First, the operator prepares the spherical impurity remover 13. Then, connect the rotating mechanism 1 to the slag truck for slag delivery. When impurity removal and cleaning are required, connect one end of the hose to one end of the truck. Finally, guide the materials to one end of the conveying sleeve 46 and inject them into the pipe end of the conveying sleeve 46. Then, purify sundries such as stones, wooden blocks, bricks, iron blocks, plastic blocks, and plastic bags. After that, first enter the filter box 41 from one end of the circular opening 42. Based on the purification of the box body of the filter box 41, separate some larger materials along one end of the assembly cylinder 43 at the end position.

[0043] Step 2: Batch transportation of materials;

[0044] During transportation, transfer from one end of the assembly cylinder 43. During the transfer, at this time, the operator brings one end of the corresponding injection pipe 34 and moves it downward along one end of the corresponding conical sleeve 31. Finally, separate to one end of the corresponding spherical impurity remover 13. After separation, finally gather uniformly inside the spherical impurity remover 13. Finally, after the output end of the driving motor 11 is powered on, control one end of the driving roller shaft 12 at the end. After transmission, control one end of the lower motor according to the scheduling of the spherical impurity remover 13 to drive the top spherical impurity remover 13 to rotate. During the rotation, the corresponding closing of one end of the fitting gasket 18 is achieved. Then, the materials are put into the spherical impurity remover 13. When the motor drives the spherical impurity remover 13 for screening to rotate, finally, when separating and discharging other western medicines, the materials will converge with each other in the sleeve 25. Based on the gas purification opening 29, after purification, they are transferred to the outside. After that, the operator transfers them to the outside along one end of the filter sleeve 28 built in the sleeve 25.

[0045] The content not described in detail in this specification belongs to the prior art well-known to those skilled in the art. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. An air-pushing powder conveying impurity removal filter, comprising a rotating mechanism (1), characterized in that: The rotating mechanism (1) comprises a driving motor (11) arranged on the ground, the output of the driving motor (11) is provided with a transmission roller (12), the top end of the transmission roller (12) is provided with a spherical impurity remover (13), the outer side wall of the spherical impurity remover (13) is provided with an arc-shaped slot (14), the middle part of the slot top of the arc-shaped slot (14) is fitted with an access sleeve (15), the top end of the access sleeve (15) is connected to a driving roller (16), the top end of the driving roller (16) is provided with a spherical cover (17), the spherical cover (17) covers the outside of the spherical impurity remover (13), the middle surface of the spherical cover (17) is fitted with a fitting gasket (18), and the bottom of the spherical cover (17) on one side is also fitted with an arc-shaped bracket (19).

2. The air-push powder conveying impurity removal filter according to claim 1, characterized in that: A purification mechanism (2) is installed at the other end of the spherical cover (17); The purification mechanism (2) comprises an intersecting slot (21) mounted on the side wall of the spherical cover (17); the end of the intersecting slot (21) is connected to an access base (22); a fastening nut (23) is arranged around the surface of the access base (22); and an annular access ring (24) is fitted on the surface of the fastening nut (23).

3. The air-push powder conveying impurity removal filter according to claim 2, characterized in that: The end of the annular access ring (24) is sleeved with a sleeve (25), and a plurality of arc-shaped sleeves (26) are arranged around the outer ring of the sleeve (25). The plurality of arc-shaped sleeves (26) are evenly arranged between corresponding sleeves (25), and a purification sleeve (27) is provided at the end of each sleeve (25).

4. The air-push powder conveying impurity removal filter according to claim 3, characterized in that: A filter sleeve (28) for air filtering is embedded inside the purification sleeve (27); a plurality of gas purification openings (29) are sequentially provided on the outer wall surface of the filter sleeve (28); filter cores are embedded inside the holes of the gas purification openings (29); an access connecting pipe (291) is provided at the end of the filter sleeve (28); an access sleeve (292) is installed at the end position; one end of the access sleeve (292) is connected to a connecting sleeve (293); the end of the connecting sleeve (293) is provided with a tray (294); one end of the tray (294) is fixedly arranged with the external access sleeve.

5. The air-pushing powder conveying and impurity-removing filter according to claim 1 is characterized in that: A gas injection mechanism (3) is provided at the top of the two spherical impurity removers (13). The gas injection mechanism (3) comprises a conical sleeve (31) respectively arranged at the middle of the top of the spherical impurity remover (13). The top of the conical sleeve (31) is connected to a filter membrane ventilation pipe (33). The top of the filter membrane ventilation pipe (33) is connected to an injection pipe (34). The middle of the injection pipe (34) is sleeved with a filter mechanism (4). The filter mechanism (4) comprises a filter box (41) for gas filtering. A circular opening (42) is provided in the middle of the filter box (41). The middle of the hole of the circular opening (42) is laterally connected to an assembly cylinder (43).

6. The air-pushing powder conveying impurity removal filter according to claim 5, characterized in that: A concave groove (45) is formed in the middle of the top end of the assembly tube (43); the back side of the concave groove (45) is connected to a delivery sleeve (46); one end of the delivery sleeve (46) is connected to a connecting pipe (47).

Images