Resin material storage bin

Abstract

The utility model relates to the technical field of material storage bins, in particular to a resin material storage bin which comprises a base, a material storage mechanism is arranged at the upper end of the base, a sealing cover mechanism is arranged at the upper end of the material storage mechanism, the material storage mechanism comprises a material tank, a heat conduction sleeve is fixedly wrapped on the outer wall face of the material tank, and the heat conduction sleeve is made of aluminum alloy materials. A plurality of electric heating tubes which are annularly distributed at equal intervals are arranged on the heat conduction sleeve, the electric heating tubes are upwards inserted into the heat conduction sleeve from the bottom of the heat conduction sleeve, and a grating is fixedly wrapped outside the heat conduction sleeve and is made of a ceramic material. According to the scheme, the aluminum alloy heat conduction sleeve fully surrounds the material tank and is matched with the annularly-distributed electric heating pipes, it is ensured that resin is evenly heated, local overheating is avoided, the external ceramic grating has the heat insulation and explosion-proof functions, the heat conduction sleeve is protected, safety is improved, the conical bottom design facilitates discharging and reduces residues, meanwhile, the pressure release valve can automatically adjust the internal pressure, and the service life of the material tank is prolonged. The explosion risk is further reduced, and operation safety is guaranteed.

Description

Technical Field

[0001] This utility model relates to the field of storage silo technology, and in particular to a resin material storage silo. Background Technology

[0002] Liquid resin materials are widely used in the manufacture of composite materials, such as glass fiber reinforced composites and carbon fiber reinforced composites. They are also used in processes such as casting, molding, and coating.

[0003] A resin material storage silo is a device specifically designed for storing resin materials and is widely used in industries such as chemicals, plastics, and coatings. For example, the existing technology, Chinese Patent Publication No. "CN219602123U", provides a submerged resin storage silo, which includes a storage barrel and a pre-buried pit. The storage barrel is buried in the pre-buried pit. The storage barrel is equipped with an inner liner and an outer liner. The top of the outer liner is equipped with an annular cover, and the top of the inner liner is equipped with a sealing cover. The outer liner wraps around the outside of the inner liner, and the inside of the outer liner is filled with a first insulation cotton. The bottom of the storage barrel is equipped with an anti-corrosion base plate, and the top surface of the anti-corrosion base plate has an installation groove, which is filled with a second insulation cotton. This invention, by setting up a storage tank and a precast pit, allows the storage tank to be buried in the precast pit, thereby utilizing the underground temperature to keep the storage tank in a constant temperature environment. This facilitates the storage of resin inside the storage tank, ensuring the quality of the resin. Furthermore, the combined use of an outer liner, a first insulation cotton, an anti-corrosion base plate, and a second insulation cotton improves the insulation effect of the storage tank, which is beneficial for resin storage.

[0004] Currently, when storing resin materials, it is necessary not only to encapsulate and preserve them, but also to design storage containers according to actual conditions, such as temperature and ease of material retrieval. Most current storage containers are simple tank structures. In winter, some resins cannot adapt to low-temperature storage, so the containers need to have a certain heating capacity. At the same time, when retrieving materials, due to the high adhesion of some resins, it is difficult to achieve a stable and continuous discharge efficiency by simply relying on gravity. Utility Model Content

[0005] The purpose of this utility model is to address the aforementioned shortcomings in the existing technology by proposing a resin material storage bin.

[0006] To achieve the above objectives, the present invention adopts the following technical solution:

[0007] Design a resin material storage silo, including a base, a storage mechanism at the upper end of the base, a sealing mechanism at the upper end of the storage mechanism, the storage mechanism including a material tank, a heat-conducting sleeve fixedly wrapped around the outer wall of the material tank, the heat-conducting sleeve being made of aluminum alloy, a number of annularly equidistantly distributed electric heating tubes being arranged on the heat-conducting sleeve, the electric heating tubes being inserted into the interior of the heat-conducting sleeve from the bottom upwards, and a grid fixedly wrapped around the outside of the heat-conducting sleeve, the grid being made of ceramic material;

[0008] The bottom of the material tank is fixedly provided with a discharge port, and a valve is provided on the discharge port. The valve core of the valve is embedded inside the discharge port.

[0009] The sealing mechanism includes a cover plate, a shaft, and a spiral blade. The cover plate is fixed to the upper end of the material tank, the shaft passes through the inside of the cover plate, and the lower end of the shaft is also fixedly wound with a spiral blade, which is inserted into the inside of the discharge port.

[0010] In detail, a bearing is fixed through the center of the cover plate, and the shaft is inserted through the interior of the bearing. The shaft is also interference-fitted with the inner ring wall of the bearing.

[0011] In detail, a motor is installed above the cover plate. The outer wall of the motor is fixedly assembled to the surface of the cover plate by a bracket. The motor has a drive shaft inside, and the end of the shaft is fixedly connected to the end of the shaft rod by a coupling.

[0012] In detail, two symmetrically distributed scraper rods are attached to the inner wall of the material tank. One end of the scraper rod is fixedly installed on the surface of the shaft rod, and several stirring blades are fixed on the surface of the shaft rod. The other end of the stirring blades is fixedly installed on the inner side of the scraper rod.

[0013] In detail, a pressure relief valve is also provided through the surface of the cover plate, and the connection between the pressure relief valve and the cover plate is fixed by welding.

[0014] In detail, the upper end of the cover plate is also provided with a feeding interface, and the connection between the feeding interface and the cover plate is fixed by welding. A second valve is provided on the surface of the feeding interface, and the valve core of the second valve is embedded inside the feeding interface.

[0015] In detail, the material tank is provided with an annular seat inside, the upper end of the annular seat is fixedly installed on the lower end of the cover plate, the annular seat is provided with an annular cavity inside, and several nozzles are fixedly inserted through the bottom of the annular seat, with the nozzles communicating with the interior of the annular cavity.

[0016] In detail, the upper end of the annular seat is fixedly connected to a water inlet, which extends upward through the cover plate. The connection between the water inlet and the cover plate is fixed by sealant. A valve three is provided on the surface of the water inlet, and the valve core of the valve three is embedded inside the water inlet.

[0017] The design scheme proposed in this utility model has the following beneficial effects in application:

[0018] 1. This solution uses an aluminum alloy heat-conducting jacket to fully surround the material tank, combined with a ring-shaped distribution of electric heating tubes to ensure uniform heating of the resin and avoid local overheating. The external ceramic grid has both heat insulation and explosion-proof functions, which protects the heat-conducting jacket and improves safety. The conical bottom design facilitates material discharge and reduces residue. At the same time, the pressure relief valve can automatically adjust the internal pressure to further reduce the risk of explosion and ensure operational safety.

[0019] 2. This solution uses a shaft to drive the spiral blades, stirring blades, and scraper to operate synchronously. Forward rotation enables quantitative material discharge, while reverse rotation mixes the resin to prevent stratification. The scraper simultaneously cleans the tank wall of any adhering material. The annular seat has a built-in nozzle that can be connected to a water pump via the water inlet to spray cleaning fluid or rinse the inner wall with clean water, achieving automated cleaning, reducing manual intervention, and improving maintenance efficiency. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0021] Figure 2 This is a schematic diagram of the internal structure of the present invention;

[0022] Figure 3 This is a schematic diagram of the grille structure of this utility model;

[0023] Figure 4 This is a bottom view of the annular seat and the bottom of the nozzle of this utility model.

[0024] In the diagram: 1. Base; 2. Storage mechanism; 20. Material tank; 21. Heat-conducting jacket; 22. Heating element; 23. Grille; 24. Discharge port; 25. Valve 1; 3. Covering mechanism; 30. Cover plate; 31. Bearing; 32. Shaft; 33. Motor; 34. Stirring blade; 35. Spiral blade; 36. Pressure relief valve; 37. Feed port; 38. Valve 2; 39. Scraper; 3001. Annular seat; 3002. Nozzle; 3003. Water inlet; 3004. Valve 3; 3005. Annular cavity. Detailed Implementation

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0026] Reference Figures 1-4A resin material storage silo includes a base 1, a storage mechanism 2 at the upper end of the base 1, and a sealing mechanism 3 at the upper end of the storage mechanism 2. The storage mechanism 2 includes a material tank 20, and a heat-conducting sleeve 21 is fixedly wrapped around the outer wall of the material tank 20. The heat-conducting sleeve 21 completely surrounds the side walls and bottom of the material tank 20, allowing for better and more uniform heating when the liquid resin in the material tank 20 is heated and stored. The bottom of the material tank 20 has a conical structure, which also facilitates smoother discharge. The heat-conducting sleeve 21 is made of aluminum alloy and has several annular equidistant rings. The distributed heating elements 22 are connected in parallel to the same external temperature control switch via wires. The heating temperature of the heating elements 22 can be reasonably controlled by the temperature control switch. The heating elements 22 are inserted into the heat-conducting sleeve 21 from the bottom upwards. The heat-conducting sleeve 21 is fixedly wrapped with a grid 23. The grid 23 is made of ceramic material. Ceramic material has good hardness and a certain heat insulation capacity, which can prevent large-area contact with the heat-conducting sleeve 21. At the same time, it can also play a role in explosion prevention for the material tank 20.

[0027] The bottom of the material tank 20 is fixedly provided with a discharge port 24, and a valve 25 is provided on the discharge port 24. The valve core of the valve 25 is embedded inside the discharge port 24. The discharge port 24 can be used to discharge resin.

[0028] The sealing mechanism 3 includes a cover plate 30, a shaft 32, and a spiral blade 35. The cover plate 30 is fixed to the upper end of the material tank 20. The shaft 32 is inserted through the inside of the cover plate 30. The lower end of the shaft 32 is also fixedly wound with a spiral blade 35. The spiral blade 35 is inserted into the inside of the discharge port 24. When the shaft 32 drives the spiral blade 35 to rotate in the forward direction, the spiral blade 35 can be spirally fed downward through the discharge port 24. The outer spiral surface of the spiral blade 35 is in contact with the inner wall surface of the discharge port 24. When the shaft 32 drives the spiral blade 35 to rotate in the reverse direction, the liquid resin can be prevented from being conveyed downward. At this time, in conjunction with the stirring blade 34 and the scraper 39, the liquid resin can be heated evenly during heating. At the same time, the scraper 39 cleans the inner wall of the material tank 20.

[0029] It should be further explained that a bearing 31 is fixed through the center of the cover plate 30, and the shaft 32 is internally connected to the bearing 31. The shaft 32 is also interference-fitted with the inner ring wall of the bearing 31. The bearing 31 is a sealed bearing, which can ensure the sealing effect at the connection between the shaft 32 and the bearing 31.

[0030] It should be further noted that a motor 33 is installed above the cover plate 30. The outer wall of the motor 33 is fixedly assembled to the surface of the cover plate 30 through a bracket. The motor 33 has a drive shaft inside. The end of the shaft is fixedly connected to the end of the shaft rod 32 through a coupling. The motor 33 is a stepper motor and is connected to a forward and reverse switch through wires. The forward and reverse switch is model HY2-8 and can realize forward and reverse rotation with the motor 33.

[0031] It should be further explained that two symmetrically distributed scraper rods 39 are attached to the inner wall of the material tank 20. One end of the scraper rod 39 is fixedly installed on the surface of the shaft 32, and several stirring blades 34 are fixed on the surface of the shaft 32. The other end of the stirring blades 34 is fixedly installed on the inner side of the scraper rod 39. The stirring blades 34 can uniformly stir the liquid resin when it is heated or when the liquid resin is stored for a long time and stratification occurs. The scraper rods 39 can rotate synchronously, which can prevent the resin from sticking to the inside of the material tank 20.

[0032] It should be further noted that a pressure relief valve 36 is also provided through the surface of the cover plate 30. The connection between the pressure relief valve 36 and the cover plate 30 is fixed by welding. The pressure relief valve 36 can prevent the resin in the heating tank 20 from exploding due to excessive pressure.

[0033] It should be further noted that a feed inlet 37 is also provided through the upper end of the cover plate 30. The feed inlet 37 is fixed to the cover plate 30 by welding. A valve 2 38 is provided on the surface of the feed inlet 37. The valve core of the valve 2 38 is embedded inside the feed inlet 37. The feed inlet 37 can play the role of conveying resin into the material tank 20 when storing resin.

[0034] It should be further explained that the material tank 20 is provided with an annular seat 3001 inside. The upper end of the annular seat 3001 is fixedly installed on the lower end of the cover plate 30. The annular seat 3001 is provided with an annular cavity 3005 inside. Several nozzles 3002 are fixedly inserted through the bottom of the annular seat 3001. The nozzles 3002 are connected to the interior of the annular cavity 3005. The nozzles 3002 have a curved structure and their ends are positioned facing the inner wall of the material tank 20. When cleaning the material tank 20, cleaning liquid or clean water can be sprayed onto the inner wall of the material tank 20 to achieve flow rinsing.

[0035] It should be further explained that the upper end of the annular seat 3001 is fixedly connected to a water inlet 3003, which extends upward through the cover plate 30. The connection between the water inlet 3003 and the cover plate 30 is fixed by adhesive. A valve 3004 is provided on the surface of the water inlet 3003. The valve core of the valve 3004 is embedded inside the water inlet 3003. The water inlet 3003 can be connected to an external water pump to provide sufficient liquid delivery pressure during flushing.

[0036] Working method: This solution achieves uniform heating through built-in electric heating tube 22 and heat-conducting sleeve 21. The heat-conducting sleeve 21 is made of aluminum alloy, which has good thermal conductivity and can quickly transfer the heat generated by the electric heating tube 22 to the entire outer wall and bottom of the material tank 20, ensuring that the internal resin is heated evenly. The grid 23 is wrapped around the outside of the heat-conducting sleeve 21, which not only serves as heat insulation but also prevents external objects from directly contacting the high-temperature components. At the same time, its ceramic material has explosion-proof function, enhancing safety. The conical bottom design of the material tank 20, combined with the heating system, can reduce the viscosity of the resin, avoid blockage caused by low-temperature solidification, and ensure smooth discharge. In addition, the stirring blade 34 and scraper 39 rotate periodically under the drive of motor 33, further promoting uniform heating of the resin and preventing local overheating or stratification.

[0037] The storage silo achieves precise resin delivery through the coordinated action of the spiral blade 35 and the valve 25 at the discharge port 24. When discharge is required, the motor 33 drives the spiral blade 35 to rotate in the forward direction via the shaft 32. Its outer spiral surface fits tightly against the inner wall of the discharge port 24, forming a forced feeding channel that pushes the resin at the bottom of the cone downwards in a spiral motion, achieving controllable discharge. When rotating in the reverse direction, the spiral blade 35 forms a sealing barrier to prevent resin flow. The valve 25 is embedded in the discharge port 24 to further enhance the sealing and prevent leakage. The pressure relief valve 36 automatically adjusts the pressure inside the tank during heating or storage to prevent pressure buildup caused by temperature rise and ensure system safety.

[0038] An annular spray structure is also designed inside the material tank 20 to achieve efficient cleaning. The annular seat 3001 is fixed below the cover plate 30, and its annular cavity 3005 is connected to an external water pump through the water inlet interface 3003. High-pressure water or cleaning liquid is sprayed radially through the curved nozzle 3002 to cover the inner wall of the material tank 20. The curved structure of the nozzle 3002 directionally scours, and combined with the rotation of the scraper 39, it can remove residual resin. When the motor 33 drives the shaft 32, the stirring blade 34 and the scraper 39 rotate synchronously to help peel off the adhering substances on the inner wall and improve cleaning efficiency.

[0039] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A resin material storage silo, comprising a base (1), characterized in that: The upper end of the base (1) is provided with a storage mechanism (2), and the upper end of the storage mechanism (2) is provided with a sealing mechanism (3). The storage mechanism (2) includes a material tank (20). The outer wall of the material tank (20) is fixedly wrapped with a heat-conducting sleeve (21). The heat-conducting sleeve (21) is made of aluminum alloy. Several annularly distributed electric heating tubes (22) are provided on the heat-conducting sleeve (21). The electric heating tubes (22) are inserted into the heat-conducting sleeve (21) from the bottom upward. The outside of the heat-conducting sleeve (21) is fixedly wrapped with a grid (23). The grid (23) is made of ceramic material. The bottom of the material tank (20) is fixedly provided with a discharge port (24), and a valve (25) is provided on the discharge port (24). The valve core of the valve (25) is embedded inside the discharge port (24). The sealing mechanism (3) includes a cover plate (30), a shaft (32) and a spiral blade (35). The cover plate (30) is fixed to the upper end of the material tank (20). The shaft (32) is inserted through the inside of the cover plate (30). The lower end of the shaft (32) is also fixedly wound with a spiral blade (35). The spiral blade (35) is inserted into the inside of the discharge port (24).

2. The resin material storage silo according to claim 1, characterized in that: A bearing (31) is fixed through the center of the cover plate (30), and the shaft (32) is connected through the interior of the bearing (31). The shaft (32) is also interference-fitted with the inner ring wall of the bearing (31).

3. The resin material storage silo according to claim 2, characterized in that: A motor (33) is provided above the cover plate (30). The outer wall of the motor (33) is fixedly assembled with the surface of the cover plate (30) through a bracket. The motor (33) has a drive shaft inside. The end of the drive shaft is fixedly connected to the end of the shaft (32) through a coupling.

4. The resin material storage silo according to claim 3, characterized in that: Two symmetrically distributed scrapers (39) are attached to the inner wall of the material tank (20). One end of the scraper (39) is fixedly installed on the surface of the shaft (32), and several stirring blades (34) are fixed on the surface of the shaft (32). The other end of the stirring blades (34) is fixedly installed on the inner side of the scraper (39).

5. A resin material storage silo according to claim 4, characterized in that: A pressure relief valve (36) is also provided through the surface of the cover plate (30), and the connection between the pressure relief valve (36) and the cover plate (30) is fixed by welding.

6. A resin material storage silo according to claim 5, characterized in that: The upper end of the cover plate (30) is also provided with a feed port (37). The feed port (37) and the cover plate (30) are fixed by welding. The surface of the feed port (37) is provided with a valve two (38), and the valve core of the valve two (38) is embedded in the inside of the feed port (37).

7. A resin material storage silo according to claim 6, characterized in that: The material tank (20) is provided with an annular seat (3001) inside. The upper end of the annular seat (3001) is fixedly installed on the lower end of the cover plate (30). The annular seat (3001) is provided with an annular cavity (3005) inside. Several nozzles (3002) are fixedly inserted through the bottom of the annular seat (3001). The nozzles (3002) are connected to the interior of the annular cavity (3005).

8. A resin material storage silo according to claim 7, characterized in that: The upper end of the annular seat (3001) is fixedly connected to a water inlet (3003), which extends upward through the cover plate (30). The connection between the water inlet (3003) and the cover plate (30) is fixed by adhesive. A valve three (3004) is provided on the surface of the water inlet (3003), and the valve core of the valve three (3004) is embedded inside the water inlet (3003).

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