A device for processing high-alumina brick batching

Abstract

The invention discloses a device for processing high-aluminum brick batching, which belongs to the technical field of high-aluminum brick processing, and includes a feeding device, which is used to put aluminum sulfate stock solution and ammonium carbonate stock solution into and prepare aluminum oxide, and a drying device is provided on the feeding device, and the drying device is used to dry aluminum oxide, and a mixing device is provided on the drying device, and the mixing device is used to mix aluminum oxide and clay. The feeding device heats the aluminum sulfate stock solution to obtain gas, which is passed into the ammonium carbonate stock solution, and the two are stirred and mixed by an inner stirring shaft and an outer stirring shaft to obtain flocculent precipitation and water, which enter the drying device for drying to obtain aluminum oxide, and the degree of automation is high. Aluminum oxide is prepared during production to prevent aluminum oxide from being mixed with impurities during storage and transportation, thereby affecting the quality of high-aluminum bricks; through the rotation and revolution of the upper grinding head, and the back-and-forth sliding of the grinding plate, clay and aluminum oxide can be fully mixed and ground.

Description

Technical Field

[0001] The invention relates to the technical field of high-alumina brick processing, in particular to a device for batching and processing high-alumina bricks. Background Art

[0002] High alumina brick is a refractory brick with aluminum oxide as the main component. It is mainly used in the construction of blast furnaces, hot blast furnaces, rotary kilns and other equipment that require high temperatures. Compared with ordinary clay bricks, high alumina bricks have additional aluminum oxide added to the clay, which changes the performance of the bricks. There are dozens of methods for preparing aluminum oxide. The commonly used method in industry is the aluminum carbonate ammonium pyrolysis method, which uses aluminum sulfate and ammonium carbonate as raw materials and adopts a liquid phase precipitation method to prepare the precursor ammonium aluminum carbonate, and sinter to obtain aluminum oxide powder. In the prior art, aluminum oxide is added to clay, mixed and ground with clay to obtain the processing raw materials of high alumina bricks, and then the high alumina bricks are processed, but aluminum oxide cannot be prepared. The finished aluminum oxide is prone to problems in transportation and storage. On-site preparation of aluminum oxide can avoid this problem, thereby improving the quality of high alumina bricks. At the same time, clay and aluminum oxide need to be continuously filled and mixed and ground to improve the automation of the equipment. Summary of the invention

[0003] In view of the above technical problems, the technical solution adopted by the present invention is: a device for processing high-alumina brick ingredients, including a feeding device, the feeding device including a mixing tank, the feeding device is used to put aluminum sulfate stock solution and ammonium carbonate stock solution into and prepare aluminum oxide, the feeding device is provided with a drying device, the drying device includes a heating tank, the heating tank is fixedly installed on the mixing tank, the drying device is used to dry the aluminum oxide, the drying device is provided with a mixing device, the mixing device includes a grinding tank, the grinding tank is fixedly installed on the heating tank, and the mixing device is used to mix aluminum oxide and clay.

[0004] Furthermore, the feeding device includes a combustion pool fixedly installed on the mixing pool, a burner fixedly installed on the combustion pool, a feed port fixedly installed on the combustion pool, an air outlet pipe fixedly installed on the combustion pool, the end of the air outlet pipe is located in the mixing pool, a slope is provided in the mixing pool, the ammonium carbonate raw liquid is placed in the mixing pool, an impurity pump is fixedly installed in the mixing pool, a liquid outlet pipe is fixedly installed on the impurity pump, the liquid outlet pipe is fixedly installed on the heating tank, a stirring mechanism is provided on the mixing pool, and a switch mechanism is provided in the combustion pool.

[0005] Furthermore, the stirring mechanism includes an inner stirring shaft and an outer stirring shaft rotatably mounted on the mixing tank, an inner stirring shaft is fixedly mounted with an inner stirring gear, an outer stirring shaft is fixedly mounted with an outer stirring gear, and a transmission belt is wrapped around the outer stirring gear and the inner stirring gear.

[0006] Furthermore, the switch mechanism comprises a switch plate rotatably mounted in the combustion pool, and a spring is arranged between the switch plate and the mixing pool.

[0007] Aluminum oxide is produced by the aluminum carbonate ammonium pyrolysis method. Aluminum sulfate and ammonium carbonate are used as raw materials. The precursor ammonium aluminum carbonate is prepared by liquid phase precipitation method, and then sintered to obtain aluminum oxide powder.

[0008] First, pour the ammonium carbonate stock solution into the mixing pool. The rotation of the outer stirring gear drives the outer stirring shaft to rotate. The outer stirring gear drives the inner stirring gear and the inner stirring shaft to rotate through the transmission belt at the same time. The liquid in the mixing pool is continuously stirred by the inner stirring shaft and the outer stirring shaft. Then pour the aluminum sulfate stock solution into the combustion pool. The combustion pool is fully burned by the burner to change the aluminum sulfate from liquid to gas, and enter the ammonium carbonate stock solution in the mixing pool through the outlet pipe. The inner stirring shaft and the outer stirring shaft rotate to fully mix the aluminum sulfate gas with the ammonium carbonate liquid to generate flocculent precipitate and water. Finally, the impurity pump draws the flocculent precipitate and water into the heating tank through the liquid outlet pipe.

[0009] Furthermore, the drying device includes a heating machine fixedly mounted on the heating tank, a transmission motor fixedly mounted on the heating tank, a motor gear fixedly mounted on the motor shaft of the transmission motor, a plurality of toggle wheels rotatably mounted in the heating tank, a docking gear fixedly mounted on the outermost toggle wheel, toggle gears fixedly mounted on the remaining toggle wheels, the docking gears mesh with the motor gears, an inclined transmission belt is wrapped around the docking gears and the toggle gears, and a slope is arranged in the heating tank.

[0010] The flocculent precipitate and water that enter the heating tank through the liquid outlet pipe are heated in the heating tank by multiple heaters arranged under the heating tank. The liquid and precipitate in the heating tank can be heated, thereby drying the water and finally obtaining block or powdery aluminum oxide.

[0011] The rotation of the transmission motor drives the motor gear to rotate, thereby driving the docking gear to rotate, thereby driving the toggle gear and the toggle wheel to rotate through the oblique transmission belt, and the aluminum oxide powder is continuously toggled into the grinding pool through the toggle wheel.

[0012] Furthermore, the mixing device includes an external motor fixedly mounted on the grinding pool, a large gear and a small gear fixedly mounted on the motor shaft of the external motor, an upper transmission belt wrapped around the small gear and the external stirring gear, a clay box fixedly mounted on the grinding pool, the clay box filled with clay, an eccentric gear rotatably mounted on the grinding pool, a transverse transmission belt wrapped around the eccentric gear and the large gear, an eccentric rotating rod fixedly mounted on the eccentric gear, a soil feeding mechanism provided in the clay box, and a grinding mechanism provided on the grinding pool.

[0013] Furthermore, the soil feeding mechanism includes an electric cylinder fixedly installed on the clay box, a pressure head is fixedly installed on the top of the electric cylinder, a soil feeding frame is slidably installed in the clay box, a pulling connecting rod is rotatably installed on the soil feeding frame, the pulling connecting rod is rotatably installed with the eccentric rotating rod, and a through groove is provided on the soil feeding frame, the size of which is the same as the discharge hole of the clay box.

[0014] Furthermore, the grinding mechanism includes a grinding plate slidably installed at the bottom of the grinding pool, an outer rotating rod is rotatably installed on the eccentric rotating rod, the outer rotating rod and the pulling connecting rod are rotatably installed, the outer rotating rod and the grinding plate are rotatably installed, a rotating column is fixedly installed below the eccentric gear, an eccentric rotating wheel is fixedly installed on the rotating column, an upper grinding head is slidably installed outside the eccentric rotating wheel, and the upper grinding head and the grinding plate are slidably installed.

[0015] The rotation of the external motor drives the large gear and the small gear to rotate. The small gear drives the external stirring gear to rotate through the upper transmission belt. The large gear drives the eccentric gear to rotate through the transverse transmission belt. The rotation of the eccentric gear drives the twitching connecting rod to rotate through the eccentric rotating rod, thereby driving the soil feeding frame to slide in the clay box. In the initial state, the soil feeding frame blocks the outlet of the clay box, and the electric cylinder is extended and retracted to drive the pressure head to rise and fall, thereby hitting and breaking up the clay in the clay box through the pressure head. When the empty slot of the soil feeding frame reaches below the outlet hole of the clay box, the broken clay enters the empty slot of the soil feeding frame. When the soil feeding frame slides outward, the clay in the empty slot is placed into the grinding pool.

[0016] At the same time, the rotation of the eccentric gear drives the rotating column to rotate, thereby driving the eccentric wheel to rotate. Since the upper grinding head and the rotating column are not concentric, the eccentric wheel drives the upper grinding head to rotate while revolving, thereby improving the crushing effect. At the same time, the eccentric rotating rod drives the outer rotating rod to rotate, thereby driving the grinding plate to slide back and forth. At this time, the upper grinding head and the grinding plate form a large relative motion, thereby further increasing the crushing effect. The clay and alumina are crushed and mixed by the upper grinding head and the grinding plate. When the raw material film reaches a certain size, it falls out of the holes in the grinding plate and the raw material is collected for subsequent processing.

[0017] Compared with the prior art, the present invention has the following beneficial effects: (1) the feeding device provided in the present invention obtains gas by heating the aluminum sulfate stock solution, and then passes the gas into the ammonium carbonate stock solution, and stirs and mixes the two through the inner stirring shaft and the outer stirring shaft to obtain flocculent precipitate and water, and then enters the drying device for drying to obtain aluminum oxide, with a high degree of automation. Aluminum oxide is prepared during production to prevent aluminum oxide from being mixed with impurities during storage and transportation, thereby affecting the quality of high-aluminum bricks; (2) the mixing device provided in the present invention intermittently puts clay into the grinding pool, and fully mixes and grinds it with aluminum oxide to obtain the production raw material of high-aluminum bricks, providing raw materials for subsequent firing processing of high-aluminum bricks, and at the same time continuously impacts the clay through the pressure head, so that the clay is dispersed and convenient for feeding; (3) the grinding mechanism provided in the present invention enables the clay and aluminum oxide to be fully mixed and ground through the rotation and revolution of the upper grinding head and the back-and-forth sliding of the grinding plate, thereby improving the quality of high-aluminum bricks. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0019] Figure 2 It is a schematic structural diagram of the feeding device of the present invention.

[0020] Figure 3 It is a schematic diagram of the internal structure of the feeding device of the present invention.

[0021] Figure 4 It is a schematic diagram of the structure of the drying device of the present invention.

[0022] Figure 5 Schematic diagram of the mixing device structure of the present invention Figure 1 .

[0023] Figure 6 Schematic diagram of the mixing device structure of the present invention Figure 2 .

[0024] Figure 7 It is a schematic diagram of the structure of the soil feeding mechanism of the present invention.

[0025] Figure 8 It is a schematic diagram of the grinding mechanism structure of the present invention.

[0026] Reference numerals: 101-mixing tank; 102-combustion tank; 103-burner; 104-feeding port; 105-switch plate; 106-spring; 107-exhaust pipe; 108-internal stirring gear; 109-internal stirring shaft; 110-external stirring gear; 111-external stirring shaft; 112-transmission belt; 113-impurity pump; 114-liquid outlet pipe; 201-heating tank; 202-heating machine; 203-transmission motor; 204-motor gear; 205-paddle wheel; 206-paddle wheel Connecting gear; 207-switching gear; 208-oblique transmission belt; 301-grinding pool; 302-external motor; 303-large gear; 304-small gear; 305-upper transmission belt; 306-clay box; 307-electric cylinder; 308-pressing head; 309-horizontal transmission belt; 310-eccentric gear; 311-eccentric rotating rod; 312-external rotating rod; 313-pulling connecting rod; 314-soil feeding frame; 315-grinding plate; 316-rotating column; 317-eccentric rotating wheel; 318-upper grinding head. DETAILED DESCRIPTION

[0027] The specific implementation of the present invention will be further described below in conjunction with the accompanying drawings.

[0028] Example: Reference Figure 1-Figure 8 A device for processing high-alumina brick ingredients includes a feeding device, the feeding device includes a mixing tank 101, the feeding device is used to put aluminum sulfate stock solution and ammonium carbonate stock solution into and prepare aluminum oxide, the feeding device is provided with a drying device, the drying device includes a heating tank 201, the heating tank 201 is fixedly installed on the mixing tank 101, the drying device is used to dry the aluminum oxide, the drying device is provided with a mixing device, the mixing device includes a grinding tank 301, the grinding tank 301 is fixedly installed on the heating tank 201, and the mixing device is used to mix aluminum oxide and clay.

[0029] like Figure 1-Figure 3 As shown, the feeding device includes a combustion pool 102 fixedly installed on a mixing pool 101, a burner 103 fixedly installed on the combustion pool 102, a feeding port 104 fixedly installed on the combustion pool 102, an air outlet pipe 107 fixedly installed on the combustion pool 102, the end of the air outlet pipe 107 is located in the mixing pool 101, a slope is provided in the mixing pool 101, and the ammonium carbonate raw liquid is put into the mixing pool 101, an impurity pump 113 is fixedly installed in the mixing pool 101, a liquid outlet pipe 114 is fixedly installed on the impurity pump 113, and the liquid outlet pipe 114 is fixedly installed on the heating tank 201, a stirring mechanism is provided on the mixing pool 101, and a switch mechanism is provided in the combustion pool 102.

[0030] like Figure 2 , Figure 3As shown, the stirring mechanism includes an inner stirring shaft 109 and an outer stirring shaft 111 rotatably mounted on the mixing tank 101, an inner stirring gear 108 is fixedly mounted on the inner stirring shaft 109, an outer stirring gear 110 is fixedly mounted on the outer stirring shaft 111, and a transmission belt 112 is wrapped around the outer stirring gear 110 and the inner stirring gear 108.

[0031] like Figure 2 , Figure 3 As shown, the switch mechanism includes a switch plate 105 rotatably installed in the combustion pool 102 , and a spring 106 is arranged between the switch plate 105 and the mixing pool 101 .

[0032] Aluminum oxide is produced by the aluminum carbonate ammonium pyrolysis method. Aluminum sulfate and ammonium carbonate are used as raw materials. The precursor ammonium aluminum carbonate is prepared by liquid phase precipitation method, and then sintered to obtain aluminum oxide powder.

[0033] First, pour the ammonium carbonate stock solution into the mixing pool 101, and the outer stirring gear 110 rotates to drive the outer stirring shaft 111 to rotate. The outer stirring gear 110 drives the inner stirring gear 108 and the inner stirring shaft 109 to rotate through the transmission belt 112, and the liquid in the mixing pool 101 is continuously stirred by the inner stirring shaft 109 and the outer stirring shaft 111; then pour the aluminum sulfate stock solution into the combustion pool 102, and the combustion pool 102 is fully burned by the burner 103 to change the aluminum sulfate from liquid to gas, and enter the ammonium carbonate stock solution in the mixing pool 101 through the outlet pipe 107; the inner stirring shaft 109 and the outer stirring shaft 111 rotate to fully mix the aluminum sulfate gas with the ammonium carbonate liquid to generate flocculent precipitate and water; finally, the impurity pump 113 draws the flocculent precipitate and water into the heating tank 201 through the liquid outlet pipe 114.

[0034] like Figure 4 As shown, the drying device includes a heating machine 202 fixedly mounted on a heating tank 201, a transmission motor 203 fixedly mounted on the heating tank 201, a motor gear 204 fixedly mounted on the motor shaft of the transmission motor 203, a plurality of toggle wheels 205 rotatably mounted in the heating tank 201, a docking gear 206 fixedly mounted on the outermost toggle wheel 205, and toggle gears 207 fixedly mounted on the remaining toggle wheels 205, the docking gear 206 is meshed with the motor gear 204, an oblique transmission belt 208 is wound around the docking gear 206 and the toggle gear 207, and a slope is provided in the heating tank 201.

[0035] The flocculent precipitate and water entering the heating tank 201 through the liquid outlet pipe 114 are heated in the heating tank 201 by multiple heaters 202 arranged below the heating tank 201, which can heat the liquid and precipitate in the heating tank 201, thereby drying the water and finally obtaining block or powdery aluminum oxide.

[0036] The transmission motor 203 rotates to drive the motor gear 204 to rotate, thereby driving the docking gear 206 to rotate, thereby driving the toggle gear 207 and the toggle wheel 205 to rotate through the oblique transmission belt 208, and the toggle wheel 205 continuously toggles the aluminum oxide powder into the grinding pool 301.

[0037] like Figure 5-Figure 8 As shown, the mixing device includes an external motor 302 fixedly mounted on a grinding pool 301, a large gear 303 and a small gear 304 are fixedly mounted on the motor shaft of the external motor 302, an upper transmission belt 305 is wound around the small gear 304 and the external stirring gear 110, a clay box 306 is fixedly mounted on the grinding pool 301, the clay box 306 is filled with clay, an eccentric gear 310 is rotatably mounted on the grinding pool 301, a transverse transmission belt 309 is wound around the eccentric gear 310 and the large gear 303, an eccentric rotating rod 311 is fixedly mounted on the eccentric gear 310, a soil feeding mechanism is provided in the clay box 306, and a grinding mechanism is provided on the grinding pool 301.

[0038] like Figure 5-Figure 8 As shown, the soil feeding mechanism includes an electric cylinder 307 fixedly mounted on the clay box 306, a pressure head 308 is fixedly mounted on the top of the electric cylinder 307, a soil feeding frame 314 is slidably mounted in the clay box 306, a pulling connecting rod 313 is rotatably mounted on the soil feeding frame 314, the pulling connecting rod 313 is rotatably mounted with the eccentric rotating rod 311, and a through groove is provided on the soil feeding frame 314, the size of which is the same as the discharge hole of the clay box 306.

[0039] like Figure 5-Figure 8 As shown, the grinding mechanism includes a grinding plate 315 slidably mounted on the bottom of the grinding pool 301, an outer rotating rod 312 is rotatably mounted on the eccentric rotating rod 311, the outer rotating rod 312 and the pulling connecting rod 313 are rotatably mounted, the outer rotating rod 312 and the grinding plate 315 are rotatably mounted, a rotating column 316 is fixedly mounted below the eccentric gear 310, an eccentric rotating wheel 317 is fixedly mounted on the rotating column 316, an upper grinding head 318 is slidably mounted outside the eccentric rotating wheel 317, and the upper grinding head 318 and the grinding plate 315 are slidably mounted.

[0040] The rotation of the external motor 302 drives the large gear 303 and the small gear 304 to rotate. The small gear 304 drives the external stirring gear 110 to rotate through the upper transmission belt 305. The large gear 303 drives the eccentric gear 310 to rotate through the transverse transmission belt 309. The rotation of the eccentric gear 310 drives the twitching connecting rod 313 to rotate through the eccentric rotating rod 311, thereby driving the soil feeding frame 314 to slide in the clay box 306. In the initial state, the soil feeding frame 314 blocks the outlet of the clay box 306. The electric cylinder 307 is extended and retracted to drive the pressure head 308 to rise and fall, thereby the clay in the clay box 306 is struck and broken up by the pressure head 308. When the empty slot of the soil feeding frame 314 reaches below the outlet hole of the clay box 306, the broken up clay enters the empty slot of the soil feeding frame 314. When the soil feeding frame 314 slides outward, the clay in the empty slot is put into the grinding pool 301.

[0041] At the same time, the rotation of the eccentric gear 310 drives the rotating column 316 to rotate, thereby driving the eccentric rotating wheel 317 to rotate. Since the upper grinding head 318 is not concentric with the rotating column 316, the eccentric rotating wheel 317 drives the upper grinding head 318 to rotate while revolving, thereby improving the crushing effect. At the same time, the eccentric rotating rod 311 drives the outer rotating rod 312 to rotate, thereby driving the grinding plate 315 to slide back and forth. At this time, the upper grinding head 318 and the grinding plate 315 form a large relative motion, thereby further increasing the crushing effect. The clay and aluminum oxide are crushed and mixed by the upper grinding head 318 and the grinding plate 315. When the raw material film reaches a certain size, it falls out of the hole in the grinding plate 315, and the raw material is collected for subsequent processing.

[0042] The working principle of the high-alumina brick batching processing device disclosed in the present invention is: aluminum oxide is produced by aluminum carbonate ammonium pyrolysis method, aluminum sulfate and ammonium carbonate are used as raw materials, a liquid phase precipitation method is adopted to prepare the precursor ammonium aluminum carbonate, and the aluminum oxide powder is sintered.

[0043] First, pour the ammonium carbonate stock solution into the mixing pool 101, and the outer stirring gear 110 rotates to drive the outer stirring shaft 111 to rotate. The outer stirring gear 110 drives the inner stirring gear 108 and the inner stirring shaft 109 to rotate through the transmission belt 112, and the liquid in the mixing pool 101 is continuously stirred by the inner stirring shaft 109 and the outer stirring shaft 111; then pour the aluminum sulfate stock solution into the combustion pool 102, and the combustion pool 102 is fully burned by the burner 103 to change the aluminum sulfate from liquid to gas, and enter the ammonium carbonate stock solution in the mixing pool 101 through the outlet pipe 107; the inner stirring shaft 109 and the outer stirring shaft 111 rotate to fully mix the aluminum sulfate gas with the ammonium carbonate liquid to generate flocculent precipitate and water; finally, the impurity pump 113 draws the flocculent precipitate and water into the heating tank 201 through the liquid outlet pipe 114. The flocculent precipitate and water entering the heating tank 201 through the liquid outlet pipe 114 are heated in the heating tank 201 by multiple heaters 202 arranged below the heating tank 201, which can heat the liquid and precipitate in the heating tank 201, thereby drying the water, and finally obtaining block or powder aluminum oxide. The transmission motor 203 rotates to drive the motor gear 204 to rotate, thereby driving the docking gear 206 to rotate, thereby driving the toggle gear 207 and the toggle wheel 205 to rotate through the oblique transmission belt 208, and the aluminum oxide powder is continuously toggled into the grinding pool 301 through the toggle wheel 205. The rotation of the external motor 302 drives the large gear 303 and the small gear 304 to rotate. The small gear 304 drives the external stirring gear 110 to rotate through the upper transmission belt 305. The large gear 303 drives the eccentric gear 310 to rotate through the transverse transmission belt 309. The rotation of the eccentric gear 310 drives the twitching connecting rod 313 to rotate through the eccentric rotating rod 311, thereby driving the soil feeding frame 314 to slide in the clay box 306. In the initial state, the soil feeding frame 314 blocks the outlet of the clay box 306. The electric cylinder 307 is extended and retracted to drive the pressure head 308 to rise and fall, thereby the clay in the clay box 306 is struck and broken up by the pressure head 308. When the empty slot of the soil feeding frame 314 reaches below the outlet hole of the clay box 306, the broken up clay enters the empty slot of the soil feeding frame 314. When the soil feeding frame 314 slides outward, the clay in the empty slot is put into the grinding pool 301. At the same time, the rotation of the eccentric gear 310 drives the rotating column 316 to rotate, thereby driving the eccentric rotating wheel 317 to rotate. Since the upper grinding head 318 is not concentric with the rotating column 316, the eccentric rotating wheel 317 drives the upper grinding head 318 to rotate while revolving, thereby improving the crushing effect. At the same time, the eccentric rotating rod 311 drives the outer rotating rod 312 to rotate, thereby driving the grinding plate 315 to slide back and forth. At this time, the upper grinding head 318 and the grinding plate 315 form a large relative motion, thereby further increasing the crushing effect. The clay and aluminum oxide are crushed and mixed by the upper grinding head 318 and the grinding plate 315. When the raw material film reaches a certain size, it falls out of the hole in the grinding plate 315, and the raw material is collected for subsequent processing.

[0044] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A device for processing high-alumina brick batching, including a feeding device, characterized in that: The feeding device comprises a mixing tank (101), the feeding device is used to put aluminum sulfate stock solution and ammonium carbonate stock solution into and prepare aluminum oxide, the feeding device is provided with a drying device, the drying device comprises a heating tank (201), the heating tank (201) is fixedly mounted on the mixing tank (101), the drying device is used to dry the aluminum oxide, the drying device is provided with a mixing device, the mixing device comprises a grinding tank (301), the grinding tank (301) is fixedly mounted on the heating tank (201), and the mixing device is used to mix aluminum oxide and clay; The feeding device comprises a combustion pool (102) fixedly mounted on a mixing pool (101), a burner (103) fixedly mounted on the combustion pool (102), a feeding port (104) fixedly mounted on the combustion pool (102), an air outlet pipe (107) fixedly mounted on the combustion pool (102), the end of the air outlet pipe (107) being located in the mixing pool (101), a slope being arranged in the mixing pool (101), ammonium carbonate stock solution being put into the mixing pool (101), an impurity pump (113) fixedly mounted in the mixing pool (101), a liquid outlet pipe (114) fixedly mounted on the impurity pump (113), the liquid outlet pipe (114) being fixedly mounted on the heating tank (201), a stirring mechanism being arranged on the mixing pool (101), and a switch mechanism being arranged in the combustion pool (102); The stirring mechanism comprises an inner stirring shaft (109) and an outer stirring shaft (111) which are rotatably mounted on the mixing tank (101); an inner stirring gear (108) is fixedly mounted on the inner stirring shaft (109); an outer stirring gear (110) is fixedly mounted on the outer stirring shaft (111); and a transmission belt (112) is wound around the outer stirring gear (110) and the inner stirring gear (108); The mixing device comprises an external motor (302) fixedly mounted on a grinding pool (301); a large gear (303) and a small gear (304) are fixedly mounted on the motor shaft of the external motor (302); an upper transmission belt (305) is wound around the small gear (304) and the external stirring gear (110); a clay box (306) is fixedly mounted on the grinding pool (301); clay is contained in the clay box (306); an eccentric gear (310) is rotatably mounted on the grinding pool (301); a transverse transmission belt (309) is wound around the eccentric gear (310) and the large gear (303); an eccentric rotating rod (311) is fixedly mounted on the eccentric gear (310); a soil feeding mechanism is arranged in the clay box (306); and a grinding mechanism is arranged on the grinding pool (301); The soil feeding mechanism comprises an electric cylinder (307) fixedly mounted on the clay box (306), a pressure head (308) fixedly mounted on the top of the electric cylinder (307), a soil feeding frame (314) slidably mounted in the clay box (306), a twitching connecting rod (313) rotatably mounted on the soil feeding frame (314), the twitching connecting rod (313) and the eccentric rotating rod (311) rotatably mounted, and a through groove is provided on the soil feeding frame (314), the size of which is the same as the discharge hole of the clay box (306); The grinding mechanism comprises a grinding plate (315) slidably mounted on the bottom of the grinding pool (301); an outer rotating rod (312) is rotatably mounted on the eccentric rotating rod (311); the outer rotating rod (312) and the pulling connecting rod (313) are rotatably mounted; the outer rotating rod (312) and the grinding plate (315) are rotatably mounted; a rotating column (316) is fixedly mounted below the eccentric gear (310); an eccentric rotating wheel (317) is fixedly mounted on the rotating column (316); an upper grinding head (318) is slidably mounted outside the eccentric rotating wheel (317); and the upper grinding head (318) and the grinding plate (315) are slidably mounted.

2. The high-alumina brick batching processing device according to claim 1 is characterized in that: The switch mechanism comprises a switch plate (105) rotatably mounted in the combustion pool (102), and a spring (106) is arranged between the switch plate (105) and the mixing pool (101).

3. The high-alumina brick batching processing device according to claim 1 is characterized in that: The drying device comprises a heating machine (202) fixedly mounted on a heating tank (201); a transmission motor (203) fixedly mounted on the heating tank (201); a motor gear (204) fixedly mounted on the motor shaft of the transmission motor (203); a plurality of toggle wheels (205) rotatably mounted in the heating tank (201); a docking gear (206) fixedly mounted on the outermost toggle wheel (205); toggle gears (207) fixedly mounted on the remaining toggle wheels (205); the docking gear (206) meshes with the motor gear (204); an oblique transmission belt (208) is wound around the docking gear (206) and the toggle gear (207); and a slope is provided in the heating tank (201).

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