Crushing and conveying system for production of zinc-based material for high-fine-granularity anticorrosive coating and processing method of crushing and conveying system

Abstract

The invention relates to the technical field of zinc-based material production, and discloses a crushing and conveying system for production of a zinc-based material for a high-fine-granularity anticorrosive coating and a machining method thereof.The crushing and conveying system comprises a conveying base, a groove body is fixedly connected to one side of the conveying base, and a driving source is arranged on one side of the groove body; solid drying agent materials in the drying box are used for improving the dryness of gas blown into the tank body by transmission blades, the drying efficiency of raw materials in the tank body is improved, stirring blades rotate along the surface of an inner screening net to primarily scatter the raw materials, the conveying smoothness of the raw materials entering the tank body is improved, and the drying efficiency of the raw materials is improved. The grinding plates at the bottom continuously move for grinding, and the multiple grinding plates are synchronously driven to crush and screen the raw materials when the main conveying rod rotates, so that the effect in the conveying process of the zinc-based raw materials is improved; the main conveying rod drives the spiral blades to rotate to synchronously drive the side cleaning brushes to rotate when conveying the raw materials, and regular cleaning by operators is not needed.

Description

Technical Field

[0001] The present invention belongs to the technical field of zinc base material production, and specifically relates to a crushing and conveying system for producing zinc base material for high-fine particle size anti-corrosion coating and a processing method thereof. Background Art

[0002] Zinc-based materials for high-fine-grained anti-corrosion coatings refer to a type of core functional raw material with metallic zinc as the main component. After ultra-fine processing, it usually reaches a micron or submicron particle size. It is specially used for the preparation of high-performance anti-corrosion coatings. At the same time, zinc slag or coarse zinc powder needs to be transported after processing and transported to subsequent processes such as mixing, coating, and packaging using various conveying equipment.

[0003] In the prior art, the patent application document "CN218114354U" discloses "a coating conveying device for zinc-based anti-corrosion base material processing"; it includes a bottom bracket, both ends of the top of the bottom bracket are provided with hydraulic cylinders, the tops of the two hydraulic cylinders are provided with piston rods, the tops of the two piston rods are commonly connected to a conveying cylinder, the bottom of the conveying cylinder and the end close to the discharge are provided with a discharge port, the top of the conveying cylinder and the end close to the feed are provided with a material transport channel, the top of the material transport channel is provided with a containing bin, the interior of the containing bin is provided with a crushing assembly for crushing the zinc-based anti-corrosion base material, and the end of the conveying cylinder close to the feed is provided with a rotating motor. Compared with the existing coating conveying device for zinc-based anti-corrosion base material processing, the utility model can improve the practicality and functionality of the coating conveying device for zinc-based anti-corrosion base material processing through design.

[0004] The above-mentioned "a coating conveying device for zinc-based anti-corrosion base material processing" still has some disadvantages. For example, during the conveying process of the existing zinc base material for anti-corrosion coating, water vapor in the air will be carried into the conveying device during the feeding process of the zinc base material for anti-corrosion coating. The water vapor will cause the raw material particles to form agglomeration and agglomeration. The agglomeration easily causes the screw feeder to frequently block the material, requiring shutdown for cleaning, thereby reducing the conveying efficiency of the crushing and conveying system for the production of the zinc base material for anti-corrosion coating;

[0005] To this end, a crushing and conveying system for the production of zinc base material for high-fine-grained anti-corrosion coating and a processing method thereof are proposed to solve the above-mentioned problems. Summary of the Invention

[0006] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a crushing and conveying system for the production of high-fine-grained zinc base material for anti-corrosion coating and a processing method thereof, which effectively solves the problem that during the feeding process of the zinc base material for anti-corrosion coating on the market, water vapor in the air will be carried into the conveying device, and the water vapor will cause the raw material particles to agglomerate and form agglomeration. The agglomeration can easily cause the screw feeder to frequently block the material, requiring shutdown for cleaning.

[0007] To achieve the above-mentioned object, the present invention provides the following technical solution: a crushing and conveying system for producing zinc-based materials for high-fine-grained anti-corrosion coating, comprising a conveying seat, one side of the conveying seat is fixedly connected to a trough body, one side of the trough body is provided with a driving source, the output shaft of the driving source is fixedly connected to a main conveying rod, the surface of the main conveying rod is fixedly connected to a spiral blade, the top of the trough body is fixedly connected to a top sealing plate, the top of the top sealing plate is fixedly connected to a feeding pipe, the bottom of the trough body is fixedly connected to a discharging pipe, the top of the top sealing plate is fixedly connected to a top connecting cylinder, the top of the top connecting cylinder is fixedly connected to a drying box, the top of the drying box is fixedly connected to a connecting cover, the top of the connecting cover is fixedly connected to a top fixing seat, the top of the top fixing seat is fixedly connected to a motor body, the output shaft of the motor body is fixedly connected to a top transmission rod, one end of the top transmission rod is fixedly connected to a transmission blade, the bottom of the transmission blade is movably connected to a bottom bearing disk, and the bottom of the bottom bearing disk is movably connected to an inner fixing plate The bottom of the top connecting cylinder is fixedly connected to a bottom barrier net, the bottom of the drying box is fixedly connected to a bottom isolation net, side air intake frames are opened on both sides of the drying box, and the inside of the drying box is filled with solid desiccant material, the surface of the top transmission rod is fixedly connected to a No. 1 bevel gear plate, one side of the No. 1 bevel gear plate is meshed with a No. 2 bevel gear plate, one side of the No. 2 bevel gear plate is fixedly connected to a side transmission rod, one end of the side transmission rod is fixedly connected to a No. 3 bevel gear plate, one side of the No. 3 bevel gear plate is meshed with a No. 4 bevel gear plate, one side of the No. 4 bevel gear plate is fixedly connected to a bottom transmission rod, the bottom of the bottom transmission rod is fixedly connected to a driving gear plate, one side of the driving gear plate is meshed with a driven gear plate, the inner side of the driven gear plate is fixedly connected to an inner transmission plate, the inner side of the inner transmission plate is fixedly connected to an inner connecting rod, the bottom of the inner connecting rod is fixedly connected to an inner transmission rod, the bottom of the inner transmission rod is fixedly connected to a stirring blade, and the bottom of the feed pipe is fixedly connected to an inner screening net.

[0008] Preferably, a curved water tank is fixedly connected to the surface of the trough body, a heat sink is fixedly connected to the top of the curved water tank, a heat sink is fixedly connected to one side of the heat sink, and there are multiple heat sinks.

[0009] Preferably: one side of the trough body is fixedly connected to a liquid storage tank, the top of the liquid storage tank is fixedly connected to a top connecting pipe, the bottom of the liquid storage tank is fixedly connected to a water pump, a water pump is provided on one side of the water pump, and the other side of the liquid storage tank is fixedly connected to a water outlet pipe, one end of the water outlet pipe and one end of the water pump pipe are fixedly connected to both sides of the arc-shaped water tank.

[0010] Preferably: the surface of the main conveying rod is fixedly connected with a No. 5 bevel gear plate, one side of the No. 5 bevel gear plate is meshedly connected with the No. 6 bevel gear plate, one side of the No. 6 bevel gear plate is fixedly connected with an inner fixed rod, one end of the inner fixed rod is fixedly connected with a bottom fixed rod, the surface of the bottom fixed rod is fixedly connected with a grinding plate, the number of the grinding plates is two, the bottom of the discharge pipe is fixedly connected with a discharge barrel, the top of the discharge barrel is fixedly connected with an inner connecting ring, the inner side of the inner connecting ring is fixedly connected with a top screening net, the inner side of the discharge barrel is fixedly connected with a grinding disk, and the surface of the grinding disk is provided with crushing holes.

[0011] Preferably: the bottom of the discharge barrel is fixedly connected to a bottom connecting plate, the top of the bottom connecting plate is movably connected to a side bearing disk, the top of the side bearing disk is movably connected to the bottom end of the bottom fixed rod, both sides of the bottom fixed rod are fixedly connected to transmission side frames, and the number of the transmission side frames is multiple, one side of each of the multiple transmission side frames is fixedly connected to a side transmission plate, and one side of the side transmission plate is fixedly connected to a side cleaning brush.

[0012] Preferably, a top transmission plate is fixedly connected to the surface of the top transmission rod, an inner stirring rod is fixedly connected to the bottom of the top transmission plate, and a side stirring rod is fixedly connected to the surface of the inner stirring rod.

[0013] Preferably, the inner side of the drying box is fixedly connected to a bottom fixing frame, the inner side of the bottom fixing frame is fixedly connected to a protective sleeve, the inner side of the side air intake frame is fixedly connected to a side barrier net, and the bottom of the drying box is fixedly connected to a bottom isolation net.

[0014] Preferably: a sliding ring is provided on the surface of the side transmission rod, the surface of the sliding ring is slidably connected to a bearing sleeve, the bottom of the bearing sleeve is fixedly connected to a top support plate, the bottom of the driving gear plate is fixedly connected to a bottom extension rod, and the bottom of the bottom extension rod is movably connected to a top bearing plate.

[0015] Preferably, a bottom bearing ring is fixedly connected to the bottom of the inner transmission disc, a sliding rail is provided on the top of the feed pipe, and the inner side of the sliding rail is slidably connected to the bottom of the bottom bearing ring.

[0016] A method for processing a crushing and conveying system for producing a zinc base material for high-fine-grained anti-corrosion coating comprises the following steps:

[0017] S1. Pour the raw materials to be transported into the trough through the feed pipe. After the raw materials enter the trough through the feed pipe, the main conveying rod is driven by the driving source to rotate. The rotating main conveying rod drives the spiral blade to rotate. The rotating spiral blade drives the raw materials to move along the inner side of the trough, transporting the raw materials to the other side of the trough and discharging the raw materials through the discharge pipe.

[0018] S2. Start the motor body and use it to drive the top transmission rod to rotate. The rotating top transmission rod drives the transmission blades to rotate. The rotating transmission blades generate wind force. The continuously rotating transmission blades draw external air into the drying box and blow it out along one side of the top connecting tube. The inside of the drying box is filled with solid desiccant material. The bottom of the drying box is blocked by a bottom isolation net. The solid desiccant material is placed inside the drying box. By opening the side air intake frame, the external air is drawn into the inside of the drying box along the side air intake frame when the transmission blades rotate. The solid desiccant material in the drying box improves the dryness of the air blown into the tank by the transmission blades.

[0019] S3. When the top transmission rod continuously rotates, it will synchronously drive the top transmission plate to rotate along the inner side of the drying box. The rotating top transmission plate will drive the inner stirring rod to rotate. The rotating inner stirring rod will stir the solid desiccant material in the drying box. At the same time, the rotating inner stirring rod will drive multiple side stirring rods to rotate. The rotating side stirring rods will stir the solid desiccant material in the drying box.

[0020] S4. When the top transmission rod rotates, it will drive the No. 1 helical gear plate to rotate. The rotating No. 1 helical gear plate will drive the meshing No. 2 helical gear plate to rotate synchronously. The rotating No. 2 helical gear plate will drive the side transmission rod to rotate. The rotating side transmission rod will drive the No. 3 helical gear plate to rotate. The rotating No. 3 helical gear plate will drive the meshing No. 4 helical gear plate to rotate. The rotating No. 4 helical gear plate will drive the bottom transmission rod to rotate. The rotating bottom transmission rod will drive the driving gear plate to rotate. Through the meshing transmission of the driving gear plate and the driven gear plate, when the driving gear plate rotates, it will drive the inner transmission plate to rotate. The rotating inner transmission plate will drive the inner The connecting rod rotates, and the rotating inner connecting rod drives the inner transmission rod to rotate. The rotating inner transmission rod drives the stirring blades to move along the surface of the inner screening mesh. When the raw materials are added along the inner side of the feed pipe, the raw materials will accumulate on the surface of the inner screening mesh. When the transmission blades rotate, the stirring blades will be synchronously driven to rotate. The rotating stirring blades will continue to move along the surface of the inner screening mesh, stirring the raw materials accumulated on the surface of the inner screening mesh and breaking up the agglomerated or agglomerated raw materials. The broken-up raw materials will pass through the inner screening mesh into the tank body for transportation. The raw materials are preliminarily broken up by the stirring blades rotating along the surface of the inner screening mesh.

[0021] S5. While the raw materials are being transported along the tank, the operator adds coolant into the liquid storage tank through the top connecting pipe. The coolant in the liquid storage tank flows along the outlet pipe into the curved water tank for storage. The inner side of the curved water tank is in contact with the surface of the tank, and the inner side of the curved water tank is made of metal. The curved water tank and the heat sink continuously cool the surface of the tank. The water pump is started, and the started water pump drives the liquid in the curved water tank to flow back to the liquid storage tank along the pumping pipe.

[0022] S6. When the main conveying rod drives the spiral blade to rotate and transport the raw materials, the rotating main conveying rod will drive the No. 5 bevel gear plate to rotate, and the rotating No. 5 bevel gear plate will drive the meshing transmission No. 6 bevel gear plate to rotate, and the rotating No. 6 bevel gear plate will drive the inner fixed rod to rotate, and the rotating inner fixed rod will drive the two grinding plates to rotate, and the top grinding plate will rotate along the surface of the top screening mesh, and the bottom grinding plate will rotate along the surface of the grinding disc. After the raw materials are transported along the trough body, they will be discharged along the discharge pipe. When discharged, the raw materials will first fall into the surface of the top screening mesh on the inner side of the inner connecting ring, and the screened raw materials will fall onto the surface of the grinding disc. At this time, the bottom grinding plate will continue to move to grind the raw materials along the surface of the grinding disc. The surface of the grinding disc is provided with multiple crushing holes. During the grinding process, larger pieces of agglomerated raw material particles will be ground into high-fineness particles that can pass through the crushing holes. The ground high-fineness raw materials will be discharged along the discharge barrel;

[0023] S7. When the bottom fixed rod rotates, it drives multiple transmission side frames to rotate. The multiple transmission side frames will rotate along the inner sides of the discharge pipe and the discharge barrel respectively. When the multiple transmission side frames rotate, they will drive the side transmission plate to rotate. The rotating side transmission plate will drive the side cleaning brush to clean along the inner wall of the discharge pipe and the discharge barrel.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] 1) The rotating transmission blades will generate wind force. The continuously rotating transmission blades will draw external air into the drying box. By utilizing the opening of the side air intake frame, the external air will be drawn into the inner side of the drying box along the side air intake frame when the transmission blades rotate. At the same time, the side barrier net will block the external air, reducing the amount of particles entering the drying box. At the same time, the bottom isolation net will perform secondary filtration, thereby improving the cleanliness of the air drawn into the tank body. The solid desiccant material in the drying box will improve the dryness of the air blown into the tank body by the transmission blades, thereby improving the drying efficiency of the raw materials in the tank body. The continuously rotating transmission blades will improve the air circulation in the tank body, while reducing the water vapor in the tank body, thereby improving the effect of conveying raw materials in the tank body.

[0026] 2) The rotating top transmission plate will drive the inner stirring rod to rotate, and the rotating inner stirring rod will drive multiple side stirring rods to rotate. The rotating side stirring rods will stir the solid desiccant material in the drying box, increasing the contact area between the solid desiccant material and the gas in the drying box, while reducing the problem of low dehumidification efficiency caused by the adhesion of pollutants on the surface of the solid desiccant, thereby improving the gas drying effect in the drying box;

[0027] 3) In the crushing and conveying system for producing zinc-based materials for high-fine-grained anti-corrosion coatings and the processing method thereof, when the transmission blades rotate, they will synchronously drive the stirring blades to rotate. The rotating stirring blades will continuously move along the surface of the inner screening mesh, stirring the raw materials accumulated on the surface of the inner screening mesh, breaking up the agglomerated or agglomerated raw materials. The broken-up raw materials will pass through the inner screening mesh into the tank body for transportation. The stirring blades rotate along the surface of the inner screening mesh to perform a preliminary breaking-up process on the raw materials, thereby improving the smoothness of the raw materials entering the tank body and reducing the blockage of the raw materials during transportation in the tank body.

[0028] 4) The inner side of the arc-shaped water tank is made of metal. The arc-shaped water tank and the heat dissipation plate are used to continuously cool the surface of the tank body, maintaining the stability of the temperature of the inner and outer walls of the tank body. At the same time, multiple heat dissipation fins are provided on one side of the heat dissipation plate. The use of multiple heat dissipation fins increases the heat dissipation area of the heat dissipation plate, thereby improving the heat dissipation efficiency of the heat dissipation plate. At the same time, the water pump is started. After starting, the water pump will drive the liquid in the arc-shaped water tank to flow back to the liquid storage tank along the water pump pipe. The circulation through the water pump pipe and the water outlet pipe improves the fluidity of the liquid in the liquid storage tank and the arc-shaped water tank, thereby improving the effect of the coolant on the heat dissipation of the tank body;

[0029] 5) When the main conveying rod drives the spiral blade to rotate and transport the raw materials, it will synchronously drive the two grinding plates to move. The top grinding plate moves along the surface of the top screening mesh, and the raw materials are rubbed along the surface of the top screening mesh to reduce the formation of agglomerates in the trough. The screened raw materials will fall onto the surface of the grinding disc. At this time, the bottom grinding plate is continuously moved to grind the raw materials along the surface of the grinding disc. The surface of the grinding disc is provided with multiple crushing holes. During the grinding process, larger agglomerated raw material particles will be ground into high-fineness particles that can pass through the crushing holes. The ground high-fineness raw materials will be discharged along the discharge barrel. When the main conveying rod rotates, it synchronously drives multiple grinding plates to crush and screen the raw materials, thereby improving the effect of zinc-based raw material transportation.

[0030] 6) The rotating side transmission plate will drive the side cleaning brush to clean along the inner wall of the discharge pipe and the discharge barrel, and clean the adhesion between the raw materials and the inner wall when they are discharged along the discharge pipe and the discharge barrel. The main conveying rod drives the spiral blade to rotate and synchronously drive the side cleaning brush to rotate when the raw materials are conveyed. There is no need for operators to clean it regularly, which reduces the long-term coverage of the inner wall of the discharge pipe by the raw materials and causes corrosion, thereby improving the efficiency of raw material discharge. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0032] Figure 1 This is a schematic diagram of the overall appearance structure of the present invention;

[0033] Figure 2 Schematic diagram of the spiral blade structure of the present invention;

[0034] Figure 3 It is a schematic diagram of the transmission blade structure of the present invention;

[0035] Figure 4 Schematic diagram of the internal stirring rod structure of the present invention;

[0036] Figure 5 This is a schematic diagram of the protective sleeve structure of the present invention;

[0037] Figure 6 This is a schematic diagram of the inner transmission rod structure of the present invention;

[0038] Figure 7 This is a schematic structural diagram of the feed pipe of the present invention;

[0039] Figure 8 This is a schematic diagram of the arc-shaped water tank structure of the present invention;

[0040] Figure 9 Schematic diagram of the grinding disc structure of the present invention;

[0041] Figure 10 It is a schematic structural diagram of the bottom fixing rod of the present invention.

[0042] In the figure: 1. Conveyor seat; 2. Tank body; 3. Drive source; 4. Main conveyor rod; 5. Spiral blade; 6. Top sealing plate; 7. Feed pipe; 8. Discharge pipe; 901. Top connecting cylinder; 902. Drying box; 903. Connecting cover; 904. Top fixing seat; 905. Motor body; 906. Top transmission rod; 907. Transmission blade; 908. Bottom bearing plate; 909. Bottom barrier net; 9010. Inner fixing plate; 1001. Protective sleeve; 1002. Bottom fixing frame; 1 003, side air intake frame; 1004, side barrier net; 1005, bottom isolation net; 1006, top transmission plate; 1007, inner stirring rod; 1008, side stirring rod; 1101, bevel gear plate No. 1; 1102, bevel gear plate No. 2; 1103, side transmission rod; 1104, sliding ring; 1105, bearing sleeve; 1106, top support plate; 1107, bevel gear plate No. 3; 1108, bevel gear plate No. 4; 1109, bottom transmission rod; 1110, driving gear Plate; 1111, bottom extension rod; 1112, top bearing plate; 1113, driven gear plate; 1114, inner transmission plate; 1115, inner connecting rod; 1116, inner transmission rod; 1117, stirring blade; 1118, sliding rail; 1119, bottom bearing ring; 1120, inner screening net; 1201, curved water tank; 1202, heat sink; 1203, heat sink; 1204, water pump; 1205, water pump; 1206, liquid storage tank; 1207, top Connecting pipe; 1208, water outlet pipe; 1301, No. 5 bevel gear disc; 1302, No. 6 bevel gear disc; 1303, inner fixing rod; 1304, bottom fixing rod; 1305, grinding plate; 1306, inner connecting ring; 1307, top screening mesh; 1308, grinding disc; 1309, discharge barrel; 1310, crushing hole; 1311, bottom connecting plate; 1312, side bearing disc; 1313, transmission side frame; 1314, side transmission plate; 1315, side cleaning brush. DETAILED DESCRIPTION

[0043] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0044] Example 1

[0045] In this embodiment, Figures 1-10 The present invention provides the following technical solutions:

[0046] A crushing and conveying system for producing zinc-based materials for high-fine-grained anti-corrosion coatings, comprising a conveying seat 1, a trough body 2 fixedly connected to one side of the conveying seat 1, a driving source 3 provided on one side of the trough body 2, an output shaft of the driving source 3 fixedly connected to a main conveying rod 4, a spiral blade 5 fixedly connected to the surface of the main conveying rod 4, a top sealing plate 6 fixedly connected to the top of the top sealing plate 6 fixedly connected to a feed pipe 7, a discharge pipe 8 fixedly connected to the bottom of the trough body 2, a top connecting cylinder 901 fixedly connected to the top of the top connecting cylinder 901 fixedly connected to a drying box 902, a drying box 903 fixedly connected to the top of the top sealing plate 6, and a drying box 904 fixedly connected to the top of the top sealing plate 6. The top of the drying box 902 is fixedly connected to a connecting cover 903, the top of the connecting cover 903 is fixedly connected to a top fixing seat 904, the top of the top fixing seat 904 is fixedly connected to a motor body 905, the output shaft of the motor body 905 is fixedly connected to a top transmission rod 906, one end of the top transmission rod 906 is fixedly connected to a transmission leaf 907, the bottom of the transmission leaf 907 is movably connected to a bottom bearing disk 908, the bottom of the bottom bearing disk 908 is movably connected to an inner fixing plate 9010, the bottom of the top connecting cylinder 901 is fixedly connected to a bottom barrier net 909, and the bottom of the drying box 902 is fixedly connected There is a bottom isolation net 1005, and side air intake frames 1003 are opened on both sides of the drying box 902. The inside of the drying box 902 is filled with solid desiccant material. The surface of the top transmission rod 906 is fixedly connected to the first bevel gear disc 1101, and one side of the first bevel gear disc 1101 is meshed with the second bevel gear disc 1102. One side of the second bevel gear disc 1102 is fixedly connected to the side transmission rod 1103, and one end of the side transmission rod 1103 is fixedly connected to the third bevel gear disc 1107. One side of the third bevel gear disc 1107 is meshed with the fourth bevel gear disc 1108. One side of the feed pipe 7 is fixedly connected to a bottom transmission rod 1109, the bottom of the bottom transmission rod 1109 is fixedly connected to a driving gear plate 1110, one side of the driving gear plate 1110 is meshedly connected to a driven gear plate 1113, the inner side of the driven gear plate 1113 is fixedly connected to an inner transmission plate 1114, the inner side of the inner transmission plate 1114 is fixedly connected to an inner connecting rod 1115, the bottom of the inner connecting rod 1115 is fixedly connected to an inner transmission rod 1116, the bottom of the inner transmission rod 1116 is fixedly connected to a stirring blade 1117, and the bottom of the feed pipe 7 is fixedly connected to an inner screening net 1120.

[0047] It should be noted that the rotating transmission blade 907 is movably supported on one side of the inner fixed plate 9010 by the bottom bearing plate 908. The movable connection of the bottom bearing plate 908 improves the rotation stability of the transmission blade 907. The motor body 905 drives the top transmission rod 906 to rotate. The rotating top transmission rod 906 drives the transmission blade 907 to rotate. The rotating transmission blade 907 generates wind force. The continuously rotating transmission blade 907 draws external air into the drying box 902 and blows it out along one side of the top connecting cylinder 901. The raw materials are fed along the feed line. When the raw materials are added from the inner side of the tube 7, they will accumulate on the surface of the inner screening mesh 1120. When the transmission blade 907 rotates, the stirring blade 1117 will be driven to rotate synchronously. The rotating stirring blade 1117 will continue to move along the surface of the inner screening mesh 1120, stirring the raw materials accumulated on the surface of the inner screening mesh 1120, and breaking up the lumped or agglomerated raw materials. The broken-up raw materials will pass through the inner screening mesh 1120 into the trough body 2 for transportation, and the raw materials will be preliminarily broken up by the stirring blade 1117 rotating along the surface of the inner screening mesh 1120.

[0048] In an optional embodiment: the surface of the trough body 2 is fixedly connected to an arc-shaped water tank 1201, the top of the arc-shaped water tank 1201 is fixedly connected to a heat sink 1202, one side of the heat sink 1202 is fixedly connected to a heat sink 1203, and the number of heat sinks 1203 is multiple.

[0049] It should be noted that the coolant in the liquid storage tank 1206 will flow into the arc-shaped water tank 1201 along the outlet pipe 1208 for storage. The inner side of the arc-shaped water tank 1201 is in contact with the surface of the tank body 2, and the inner side of the arc-shaped water tank 1201 is made of metal. The arc-shaped water tank 1201 and the heat sink 1202 are used to continuously cool the surface of the tank body 2 to maintain the stability of the temperature of the inner and outer walls of the tank body 2. At the same time, multiple heat sinks 1203 are provided on one side of the heat sink 1202. The use of multiple heat sinks 1203 increases the heat dissipation area of the heat sink 1202, thereby improving the heat dissipation efficiency of the heat sink 1202.

[0050] In an optional embodiment: one side of the trough body 2 is fixedly connected to a liquid storage tank 1206, the top of the liquid storage tank 1206 is fixedly connected to a top connecting pipe 1207, the bottom of the liquid storage tank 1206 is fixedly connected to a water pumping pipe 1204, a water pump 1205 is provided on one side of the water pumping pipe 1204, and the other side of the liquid storage tank 1206 is fixedly connected to a water outlet pipe 1208, one end of the water outlet pipe 1208 and one end of the water pumping pipe 1204 are fixedly connected to both sides of the arc-shaped water tank 1201.

[0051] It should be noted that, when the water pump 1205 is started, the started water pump 1205 will drive the liquid in the arc-shaped water tank 1201 to flow back to the liquid storage tank 1206 along the water suction pipe 1204. The circulation of the water suction pipe 1204 and the water outlet pipe 1208 improves the fluidity of the liquid in the liquid storage tank 1206 and the arc-shaped water tank 1201, and improves the effect of the coolant on the heat dissipation of the tank body 2.

[0052] In an optional embodiment: the surface of the main conveying rod 4 is fixedly connected with the No. 5 bevel gear disc 1301, one side of the No. 5 bevel gear disc 1301 is meshedly connected with the No. 6 bevel gear disc 1302, one side of the No. 6 bevel gear disc 1302 is fixedly connected with the inner fixed rod 1303, one end of the inner fixed rod 1303 is fixedly connected with the bottom fixed rod 1304, the surface of the bottom fixed rod 1304 is fixedly connected with a grinding plate 1305, the number of grinding plates 1305 is two, the bottom of the discharge pipe 8 is fixedly connected with the discharge barrel 1309, the top of the discharge barrel 1309 is fixedly connected with the inner connecting ring 1306, the inner side of the inner connecting ring 1306 is fixedly connected with the top screening net 1307, the inner side of the discharge barrel 1309 is fixedly connected with the grinding disc 1308, and the surface of the grinding disc 1308 is provided with a crushing hole 1310.

[0053] It should be noted that the top grinding plate 1305 moves along the surface of the top screening mesh 1307, causing the raw materials to rub along the surface of the top screening mesh 1307, thereby reducing the formation of agglomerates of the raw materials in the trough body 2. The screened raw materials will fall onto the surface of the grinding disc 1308. At this time, the bottom grinding plate 1305 is continuously moved to grind the raw materials along the surface of the grinding disc 1308. The surface of the grinding disc 1308 is provided with multiple crushing holes 1310. During the grinding process, larger agglomerated raw material particles will be ground into high-fineness particles that can pass through the crushing holes 1310. The ground high-fineness raw materials will be discharged along the discharge barrel 1309.

[0054] In an optional embodiment: the bottom of the discharge barrel 1309 is fixedly connected to the bottom connecting plate 1311, the top of the bottom connecting plate 1311 is movably connected to the side bearing disk 1312, the top of the side bearing disk 1312 is movably connected to the bottom end of the bottom fixed rod 1304, and the two sides of the bottom fixed rod 1304 are fixedly connected to the transmission side frames 1313, and the number of the transmission side frames 1313 is multiple, and one side of the multiple transmission side frames 1313 is fixedly connected to the side transmission plate 1314, and one side of the side transmission plate 1314 is fixedly connected to the side cleaning brush 1315.

[0055] It should be noted that the movable support of the side bearing plate 1312 is used to improve the stability of the bottom fixed rod 1304 during rotation. The rotating side transmission plate 1314 will drive the side cleaning brush 1315 to clean along the inner wall of the discharge pipe 8 and the discharge barrel 1309, and clean the adhesion of the raw materials to the inner wall when they are discharged along the discharge pipe 8 and the discharge barrel 1309, without the need for operators to clean regularly.

[0056] In an optional embodiment: the surface of the top transmission rod 906 is fixedly connected to the top transmission plate 1006, the bottom of the top transmission plate 1006 is fixedly connected to the inner stirring rod 1007, and the surface of the inner stirring rod 1007 is fixedly connected to the side stirring rod 1008.

[0057] It should be noted that the rotating inner stirring rod 1007 will drive the multiple side stirring rods 1008 to rotate, and the rotating side stirring rods 1008 will stir the solid desiccant material in the drying box 902, increase the contact area between the solid desiccant material and the gas in the drying box 902, and improve the adsorption efficiency.

[0058] In an optional embodiment: the inner side of the drying box 902 is fixedly connected to a bottom fixing frame 1002, the inner side of the bottom fixing frame 1002 is fixedly connected to a protective sleeve 1001, the inner side of the side air intake frame 1003 is fixedly connected to a side barrier net 1004, and the bottom of the drying box 902 is fixedly connected to a bottom isolation net 1005.

[0059] It should be noted that the bottom of the drying box 902 is blocked by a bottom isolation net 1005, and the solid desiccant material is placed on the inside of the drying box 902. At the same time, the protective sleeve 1001 is used to protect the rotating top transmission rod 906 to reduce the collision impact of the solid desiccant material in the drying box 902 on the top transmission rod 906. The side barrier net 1004 is used to block the particulate matter in the external air from entering the inside of the drying box 902.

[0060] In an optional embodiment: a sliding ring 1104 is provided on the surface of the side transmission rod 1103, the surface of the sliding ring 1104 is slidingly connected to a bearing sleeve 1105, the bottom of the bearing sleeve 1105 is fixedly connected to a top support plate 1106, the bottom of the driving gear plate 1110 is fixedly connected to a bottom extension rod 1111, and the bottom of the bottom extension rod 1111 is movably connected to a top bearing plate 1112.

[0061] It should be noted that, by utilizing the sliding connection between the bearing sleeve 1105 and the sliding ring 1104, when the side transmission rod 1103 rotates, it will be supported by the bearing sleeve 1105 and the top support plate 1106, thereby improving the rotation stability of the side transmission rod 1103. The rotating active gear plate 1110 will drive the bottom extension rod 1111 to rotate, and the rotating bottom extension rod 1111 will be movably supported on the top of the top sealing plate 6 through the top bearing plate 1112. The movably supported top bearing plate 1112 improves the rotation stability of the bottom extension rod 1111 and the active gear plate 1110.

[0062] In an optional embodiment: the bottom of the inner transmission disk 1114 is fixedly connected to the bottom of the bottom bearing ring 1119, and a sliding rail 1118 is opened on the top of the feed pipe 7, and the inner side of the sliding rail 1118 is slidably connected to the bottom of the bottom bearing ring 1119.

[0063] It should be noted that when the inner transmission disk 1114 rotates, it will slide along the inner side of the sliding rail 1118 through the bottom bearing ring 1119. The sliding of the bottom bearing ring 1119 and the sliding rail 1118 improves the rotation stability of the inner transmission disk 1114.

[0064] Example 2

[0065] This embodiment 2 provides a processing method for a crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating, which is used to further illustrate the working process or principle of the crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating provided in the above embodiment 1. The details are as follows:

[0066] A method for processing a crushing and conveying system for producing a zinc base material for high-fine-grained anti-corrosion coating comprises the following steps:

[0067] S1. First, pour the raw materials to be transported along the feed pipe 7. After the raw materials enter the trough body 2 along the feed pipe 7, the main transport rod 4 is driven to rotate by the driving source 3. The rotating main transport rod 4 drives the spiral blade 5 to rotate. The rotating spiral blade 5 drives the raw materials to move along the inner side of the trough body 2, transporting the raw materials to the other side of the trough body 2, and discharging the raw materials along the discharge pipe 8;

[0068] S2, first start the motor body 905, use the motor body 905 to drive the top transmission rod 906 to rotate, the rotating top transmission rod 906 will drive the transmission blade 907 to rotate, the rotating transmission blade 907 will generate wind, the continuously rotating transmission blade 907 will draw the external air into the drying box 902, and blow it out along the side of the top connecting tube 901, and use the bottom barrier net 909 to block the particulate matter in the external air, reducing the external pollutants from entering the tank body 2 and causing pollution to the raw materials. The inside of the drying box 902 is filled with solid desiccant material, and the side air intake frame 1003 is opened to open the transmission blade 907. During rotation, external air is drawn into the inner side of the drying box 902 along the side air intake frame 1003. At the same time, the air is blocked by the side barrier net 1004, which reduces the amount of particulate matter in the external air that enters the drying box 902. At the same time, the air is filtered twice by the bottom isolation net 1005, thereby improving the cleanliness of the air drawn into the tank body 2. The solid desiccant material in the drying box 902 improves the dryness of the air blown into the tank body 2 by the transmission blades 907, thereby improving the drying efficiency of the raw materials in the tank body 2. The continuously rotating transmission blades 907 improve the air circulation in the tank body 2, while reducing the water vapor in the tank body 2, thereby improving the effect of conveying the raw materials in the tank body 2.

[0069] S3. During the continuous rotation of the top transmission rod 906, the top transmission plate 1006 is synchronously driven to rotate along the inner side of the drying box 902. The rotating top transmission plate 1006 drives the inner stirring rod 1007 to rotate. The rotating inner stirring rod 1007 stirs the solid desiccant material in the drying box 902. At the same time, the rotating inner stirring rod 1007 drives the multiple side stirring rods 1008 to rotate. The rotating side stirring rods 1008 stir the solid desiccant material in the drying box 902, thereby increasing the contact area between the solid desiccant material and the gas in the drying box 902, improving the adsorption efficiency, and reducing the problem of low dehumidification efficiency caused by the adhesion of pollutants to the surface of the solid desiccant, thereby improving the gas drying effect in the drying box 902.

[0070] S4. When the top transmission rod 906 rotates, it drives the No. 1 bevel gear plate 1101 to rotate. The rotating No. 1 bevel gear plate 1101 drives the meshing No. 2 bevel gear plate 1102 to rotate synchronously. The rotating No. 2 bevel gear plate 1102 drives the side transmission rod 1103 to rotate. The rotating side transmission rod 1103 drives the No. 3 bevel gear plate 1107 to rotate. The rotating No. 3 bevel gear plate 1107 drives the meshing No. 4 bevel gear plate 1108 to rotate. The rotating No. 4 bevel gear plate 1108 drives the bottom transmission rod 1109 to rotate. The rotating bottom transmission rod 1109 drives the driving gear plate 1110 to rotate. Through the meshing transmission between the driving gear plate 1110 and the driven gear plate 1113, when the driving gear plate 1110 rotates, it drives the inner transmission plate 1114 to rotate. The rotating inner transmission plate 1114 drives the inner connecting rod 1115 to rotate. The rotating inner connecting rod 1115 will drive the inner transmission rod 1116 to rotate, and the rotating inner transmission rod 1116 will drive the stirring blade 1117 to move along the surface of the inner screening mesh 1120. When the raw materials are added along the inner side of the feeding pipe 7, the raw materials will accumulate on the surface of the inner screening mesh 1120, and when the transmission blade 907 rotates, it will synchronously drive the stirring blade 1117 to rotate. The rotating stirring blade 1117 will continue to move along the surface of the inner screening mesh 1120, stirring the raw materials accumulated on the surface of the inner screening mesh 1120 and breaking up the lumps or agglomerated raw materials. The broken-up raw materials will pass through the inner screening mesh 1120 into the trough body 2 for transportation. The raw materials are preliminarily broken up by the stirring blade 1117 rotating along the surface of the inner screening mesh 1120, thereby improving the smoothness of the raw materials entering the trough body 2 and reducing the blockage of the raw materials when being transported in the trough body 2.

[0071] S5. During the transportation of raw materials along the inside of the tank body 2, the operator adds coolant into the liquid storage tank 1206 along the top connecting pipe 1207. The coolant in the liquid storage tank 1206 flows into the arc-shaped water tank 1201 along the outlet pipe 1208 for storage. The inner side of the arc-shaped water tank 1201 is in contact with the surface of the tank body 2, and the inner side of the arc-shaped water tank 1201 is made of metal. The surface of the tank body 2 is continuously cooled by the arc-shaped water tank 1201 and the heat sink 1202 to maintain the stability of the temperature of the inner and outer walls of the tank body 2. At the same time, the heat sink 1202 A plurality of heat sinks 1203 are provided on one side of the heat sink 1202. The plurality of heat sinks 1203 increase the heat dissipation area of the heat sink 1202, thereby improving the heat dissipation efficiency of the heat sink 1202. At the same time, the water pump 1205 is started. The started water pump 1205 drives the liquid in the arc-shaped water tank 1201 to flow back to the liquid storage tank 1206 along the water pumping pipe 1204. The circulation through the water pumping pipe 1204 and the water outlet pipe 1208 improves the fluidity of the liquid in the liquid storage tank 1206 and the arc-shaped water tank 1201, thereby improving the heat dissipation effect of the coolant on the tank body 2.

[0072] S6. When the main conveying rod 4 drives the spiral blade 5 to rotate and transport the raw materials, the rotating main conveying rod 4 will drive the No. 5 bevel gear plate 1301 to rotate, the rotating No. 5 bevel gear plate 1301 will drive the meshing transmission No. 6 bevel gear plate 1302 to rotate, the rotating No. 6 bevel gear plate 1302 will drive the internal fixed rod 1303 to rotate, the rotating internal fixed rod 1303 will drive the two grinding plates 1305 to rotate, the top grinding plate 1305 will rotate along the surface of the top screening net 1307, and the bottom grinding plate 1305 will rotate along the surface of the grinding disk 1308. After the raw materials are transported along the trough body 2, they will be discharged along the discharge pipe 8. When discharged, the raw materials will first fall into the surface of the top screening net 1307 on the inner side of the inner connecting ring 1306, and pass through the top grinding plate 1305 along the top The surface movement of the screening mesh 1307 causes the raw materials to rub along the surface of the top screening mesh 1307, thereby reducing the formation of agglomerates in the trough body 2. The screened raw materials will fall onto the surface of the grinding disc 1308. At this time, the grinding plate 1305 at the bottom is continuously moved to grind the raw materials along the surface of the grinding disc 1308. The surface of the grinding disc 1308 is provided with a plurality of crushing holes 1310. During the grinding process, larger agglomerated raw material particles will be ground into high-fineness particles that can pass through the crushing holes 1310. The ground high-fineness raw materials will be discharged along the discharge barrel 1309. When the main conveying rod 4 rotates, the plurality of grinding plates 1305 are synchronously driven to crush and screen the raw materials, thereby improving the effect of the zinc-based raw material transportation process and improving the efficiency of subsequent operations of the zinc-based raw materials after transportation.

[0073] S7. At the same time, when the bottom fixed rod 1304 rotates, it will drive multiple transmission side frames 1313 to rotate. The multiple transmission side frames 1313 will rotate along the inner sides of the discharge pipe 8 and the discharge barrel 1309 respectively. When the multiple transmission side frames 1313 rotate, they will drive the side transmission plate 1314 to rotate. The rotating side transmission plate 1314 will drive the side cleaning brush 1315 to clean along the inner walls of the discharge pipe 8 and the discharge barrel 1309, and clean the adhesion between the raw materials and the inner walls when they are discharged along the discharge pipe 8 and the discharge barrel 1309. There is no need for operators to clean regularly, which reduces the long-term coverage of the inner wall of the discharge pipe 8 by the raw materials and causes corrosion, thereby improving the efficiency of raw material discharge.

[0074] It should be noted that the driving source 3 and the motor body 905 in the present invention are both existing technologies, and the corresponding models can be selected according to actual needs. The internal structure and operating principle of the above parts are also common knowledge to those skilled in the art, and will not be elaborated on in detail.

[0075] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art will be able to modify the technical solutions described in the aforementioned embodiments or substitute equivalents for some of the technical features. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. A crushing and conveying system for producing zinc base material for high-fine-grained anti-corrosion coating and a processing method thereof, comprising a conveying seat (1), characterized in that: One side of the conveying seat (1) is fixedly connected to a trough body (2), a driving source (3) is provided on one side of the trough body (2), an output shaft of the driving source (3) is fixedly connected to a main conveying rod (4), a surface of the main conveying rod (4) is fixedly connected to a spiral blade (5), the top of the trough body (2) is fixedly connected to a top sealing plate (6), the top of the top sealing plate (6) is fixedly connected to a feeding pipe (7), the bottom of the trough body (2) is fixedly connected to a discharging pipe (8), the top of the top sealing plate (6) is fixedly connected to a top connecting cylinder (901), the top of the top connecting cylinder (901) is fixedly connected to a drying box (902), the top of the drying box (902) is fixedly connected to a connecting pipe (901), and the top of the connecting pipe (901) is fixedly connected to a connecting pipe (902). The connecting cover (903) is fixedly connected to a top fixing seat (904) at the top of the connecting cover (903), and the top of the top fixing seat (904) is fixedly connected to a motor body (905). The output shaft of the motor body (905) is fixedly connected to a top transmission rod (906), and one end of the top transmission rod (906) is fixedly connected to a transmission leaf (907). The bottom of the transmission leaf (907) is movably connected to a bottom bearing disk (908), and the bottom of the bottom bearing disk (908) is movably connected to an inner fixing plate (9010). The bottom of the top connecting cylinder (901) is fixedly connected to a bottom barrier net (909), and the bottom of the drying box (902) is fixedly connected to a bottom isolation net (1 005), side air intake frames (1003) are provided on both sides of the drying box (902), the inner side of the drying box (902) is filled with solid desiccant material, the surface of the top transmission rod (906) is fixedly connected to a first bevel gear disc (1101), one side of the first bevel gear disc (1101) is meshedly connected to a second bevel gear disc (1102), one side of the second bevel gear disc (1102) is fixedly connected to a side transmission rod (1103), one end of the side transmission rod (1103) is fixedly connected to a third bevel gear disc (1107), one side of the third bevel gear disc (1107) is meshedly connected to a fourth bevel gear disc (1108), one side of the fourth bevel gear disc (1108) is fixedly connected to a third bevel gear disc (1107), and one side of the fourth bevel gear disc (1108) is fixedly connected to a third bevel gear disc (1107). The side of the feeding pipe (7) is fixedly connected to a bottom transmission rod (1109), the bottom of the bottom transmission rod (1109) is fixedly connected to a driving gear plate (1110), one side of the driving gear plate (1110) is meshedly connected to a driven gear plate (1113), the inner side of the driven gear plate (1113) is fixedly connected to an inner transmission plate (1114), the inner side of the inner transmission plate (1114) is fixedly connected to an inner connecting rod (1115), the bottom of the inner connecting rod (1115) is fixedly connected to an inner transmission rod (1116), the bottom of the inner transmission rod (1116) is fixedly connected to a stirring blade (1117), and the bottom of the feeding pipe (7) is fixedly connected to an inner screening net (1120).

2. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 1 are characterized by: The surface of the trough body (2) is fixedly connected to an arc-shaped water tank (1201), the top of the arc-shaped water tank (1201) is fixedly connected to a heat dissipation plate (1202), one side of the heat dissipation plate (1202) is fixedly connected to a heat sink (1203), and the number of the heat sink (1203) is multiple.

3. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 2 are characterized by: A liquid storage tank (1206) is fixedly connected to one side of the tank body (2), a top connecting pipe (1207) is fixedly connected to the top of the liquid storage tank (1206), a water pump (1204) is fixedly connected to the bottom of the liquid storage tank (1206), a water pump (1205) is provided on one side of the water pumping pipe (1204), and a water outlet pipe (1208) is fixedly connected to the other side of the liquid storage tank (1206), one end of the water outlet pipe (1208) and one end of the water pumping pipe (1204) are both fixedly connected to two sides of the arc-shaped water tank (1201).

4. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 3 are characterized by: The surface of the main conveying rod (4) is fixedly connected with a No. 5 bevel gear disc (1301), one side of the No. 5 bevel gear disc (1301) is meshedly connected with a No. 6 bevel gear disc (1302), one side of the No. 6 bevel gear disc (1302) is fixedly connected with an inner fixed rod (1303), one end of the inner fixed rod (1303) is fixedly connected with a bottom fixed rod (1304), the surface of the bottom fixed rod (1304) is fixedly connected with a grinding plate (1305), the grinding plate (1306) is fixedly connected with the grinding plate (1307). There are two grinding plates (1305), the bottom of the discharge pipe (8) is fixedly connected to a discharge barrel (1309), the top of the discharge barrel (1309) is fixedly connected to an inner connecting ring (1306), the inner side of the inner connecting ring (1306) is fixedly connected to a top screening net (1307), the inner side of the discharge barrel (1309) is fixedly connected to a grinding disc (1308), and the surface of the grinding disc (1308) is provided with a crushing hole (1310).

5. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 4 are characterized by: The bottom of the discharge barrel (1309) is fixedly connected to a bottom connecting plate (1311), the top of the bottom connecting plate (1311) is movably connected to a side bearing disc (1312), the top of the side bearing disc (1312) is movably connected to the bottom end of the bottom fixed rod (1304), and the two sides of the bottom fixed rod (1304) are fixedly connected to transmission side frames (1313), and the number of the transmission side frames (1313) is multiple, and one side of the multiple transmission side frames (1313) is fixedly connected to a side transmission plate (1314), and one side of the side transmission plate (1314) is fixedly connected to a side cleaning brush (1315).

6. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 5 are characterized by: The surface of the top transmission rod (906) is fixedly connected to a top transmission plate (1006), the bottom of the top transmission plate (1006) is fixedly connected to an inner stirring rod (1007), and the surface of the inner stirring rod (1007) is fixedly connected to a side stirring rod (1008).

7. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 6 are characterized by: The inner side of the drying box (902) is fixedly connected to a bottom fixing frame (1002), the inner side of the bottom fixing frame (1002) is fixedly connected to a protective sleeve (1001), the inner side of the side air intake frame (1003) is fixedly connected to a side barrier net (1004), and the bottom of the drying box (902) is fixedly connected to a bottom isolation net (1005).

8. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 7 are characterized by: A sliding ring (1104) is provided on the surface of the side transmission rod (1103), and a bearing sleeve (1105) is slidably connected to the surface of the sliding ring (1104). The bottom of the bearing sleeve (1105) is fixedly connected to a top support plate (1106). The bottom of the driving gear plate (1110) is fixedly connected to a bottom extension rod (1111), and the bottom of the bottom extension rod (1111) is movably connected to a top bearing plate (1112).

9. The crushing and conveying system for producing a high-fine-grained zinc base material for anti-corrosion coating and the processing method thereof according to claim 8 are characterized by: The bottom of the inner transmission disc (1114) is fixedly connected to a bottom bearing ring (1119), and the top of the feed pipe (7) is provided with a sliding rail (1118), and the inner side of the sliding rail (1118) is slidably connected to the bottom of the bottom bearing ring (1119).

10. A method for processing a crushing and conveying system for producing a zinc base material for high-fine-grained anti-corrosion coating, applied to a crushing and conveying system for producing a zinc base material for high-fine-grained anti-corrosion coating according to any one of claims 1 to 9, characterized in that: The steps include: S1. The raw materials to be transported are poured into the feeding pipe (7). After the raw materials enter the tank body (2) along the feeding pipe (7), the main transport rod (4) is driven to rotate by the driving source (3). The rotating main transport rod (4) drives the spiral blade (5) to rotate. The rotating spiral blade (5) drives the raw materials to move along the inner side of the tank body (2), transports the raw materials to the other side of the tank body (2), and discharges the raw materials along the discharge pipe (8); S2. Start the motor body (905), and use the motor body (905) to drive the top transmission rod (906) to rotate. The rotating top transmission rod (906) will drive the transmission blade (907) to rotate. The rotating transmission blade (907) will generate wind force. The continuously rotating transmission blade (907) will draw external air into the drying box (902) and blow it out along one side of the top connecting tube (901). The inner side of the drying box (902) is filled with solid desiccant material. The bottom of the drying box (902) is blocked by a bottom isolation net (1005), and a solid desiccant material is placed inside the drying box (902). By utilizing the opening of the side air intake frame (1003), when the transmission blade (907) rotates, external air is drawn into the inside of the drying box (902) along the side air intake frame (1003), and the solid desiccant material in the drying box (902) improves the dryness of the air blown into the tank body (2) by the transmission blade (907); S3. During the continuous rotation of the top transmission rod (906), the top transmission plate (1006) is synchronously driven to rotate along the inner side of the drying box (902). The rotating top transmission plate (1006) drives the inner stirring rod (1007) to rotate. The rotating inner stirring rod (1007) stirs the solid desiccant material in the drying box (902). At the same time, the rotating inner stirring rod (1007) drives the plurality of side stirring rods (1008) to rotate. The rotating side stirring rods (1008) stir the solid desiccant material in the drying box (902). S4. When the top transmission rod (906) rotates, it drives the No. 1 helical gear disc (1101) to rotate. The rotating No. 1 helical gear disc (1101) drives the meshing No. 2 helical gear disc (1102) to rotate synchronously. The rotating No. 2 helical gear disc (1102) drives the side transmission rod (1103) to rotate. The rotating side transmission rod (1103) drives the No. 3 helical gear disc (1107) to rotate. The rotating No. 3 helical gear disc (1107) drives the meshing The fourth helical gear plate (1108) of the transmission rotates, and the rotating fourth helical gear plate (1108) drives the bottom transmission rod (1109) to rotate. The rotating bottom transmission rod (1109) drives the driving gear plate (1110) to rotate. Through the meshing transmission of the driving gear plate (1110) and the driven gear plate (1113), when the driving gear plate (1110) rotates, it drives the inner transmission plate (1114) to rotate. The rotating inner transmission plate ( 1114) will drive the inner connecting rod (1115) to rotate, the rotating inner connecting rod (1115) will drive the inner transmission rod (1116) to rotate, and the rotating inner transmission rod (1116) will drive the stirring blade (1117) to move along the surface of the inner screening net (1120). When the raw materials are added along the inner side of the feed pipe (7), the raw materials will accumulate on the surface of the inner screening net (1120), and when the transmission blade (907) rotates, it will synchronously drive the stirring blade (1117) rotates, and the rotating stirring blades (1117) continuously move along the surface of the inner screening net (1120), stirring the raw materials accumulated on the surface of the inner screening net (1120), breaking up the lumps or agglomerated raw materials, and the broken up raw materials pass through the inner screening net (1120) into the tank body (2) for transportation, and the stirring blades (1117) rotate along the surface of the inner screening net (1120) to perform a preliminary breaking up of the raw materials; S5. During the transportation of the raw materials along the tank body (2), the operator adds cooling liquid into the liquid storage tank (1206) along the top connecting pipe (1207). The cooling liquid in the liquid storage tank (1206) flows along the outlet pipe (1208) into the arc-shaped water tank (1201) for storage. The inner side of the arc-shaped water tank (1201) is in contact with the surface of the tank body (2), and the inner side of the arc-shaped water tank (1201) is made of metal. The surface of the tank body (2) is continuously cooled by the arc-shaped water tank (1201) and the heat dissipation plate (1202). The water pump (1205) is started. After starting, the water pump (1205) drives the liquid in the arc-shaped water tank (1201) to flow back into the liquid storage tank (1206) along the water extraction pipe (1204). S6. When the main conveying rod (4) drives the spiral blade (5) to rotate and transport the raw materials, the rotating main conveying rod (4) drives the fifth bevel gear disc (1301) to rotate, the rotating fifth bevel gear disc (1301) drives the sixth bevel gear disc (1302) of the meshing transmission to rotate, the rotating sixth bevel gear disc (1302) drives the inner fixed rod (1303) to rotate, the rotating inner fixed rod (1303) drives the two grinding plates (1305) to rotate, the top grinding plate (1305) rotates along the surface of the top screening net (1307), and the bottom grinding plate (1305) rotates along the surface of the grinding disc (1308). The surface rotates, and the raw materials are transported along the inside of the trough (2) and then discharged along the discharge pipe (8). When discharged, the raw materials first fall onto the surface of the top screening net (1307) inside the inner connecting ring (1306). The screened raw materials fall onto the surface of the grinding disc (1308). At this time, the grinding plate (1305) at the bottom is continuously moved to grind the raw materials along the surface of the grinding disc (1308). The surface of the grinding disc (1308) is provided with a plurality of crushing holes (1310). During the grinding process, larger agglomerated raw material particles are ground into high-fineness particles that can pass through the crushing holes (1310). The ground high-fineness raw materials are discharged along the discharge barrel (1309); S7. When the bottom fixed rod (1304) rotates, it drives the multiple transmission side frames (1313) to rotate. The multiple transmission side frames (1313) will rotate along the inner sides of the discharge pipe (8) and the discharge barrel (1309) respectively. When the multiple transmission side frames (1313) rotate, they will drive the side transmission plate (1314) to rotate. The rotating side transmission plate (1314) will drive the side cleaning brush (1315) to clean along the inner walls of the discharge pipe (8) and the discharge barrel (1309).

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