Aluminum ingot continuous feeding device for aluminum alloy production

Abstract

The invention belongs to the technical field of continuous feeding, and particularly relates to an aluminum ingot continuous feeding device for aluminum alloy production, which comprises a loading box for storing aluminum ingots, a feeding shell and a conveying assembly for conveying the aluminum ingots from the loading box to the periphery, the loading box is located outside the feeding shell, a protection assembly is arranged in the feeding shell, and a supporting component is arranged in the loading box. The conveying assembly is located in the feeding shell, through cooperation of the loading box and the feeding shell, the effects of controlling aluminum ingots and reducing physical damage of the device are achieved, an output shaft of a motor controls rotation of an auxiliary part, the auxiliary part controls rotation of the auxiliary part, rotation of a fan-shaped part, extension of an output shaft of a hydraulic rod and rotation of the loading box, and the aluminum ingots in the device fall off in a layered and batched mode. The rotating piece rotates, the clamping groove of the rotating piece is just matched with the aluminum ingot in shape, and therefore the aluminum ingot can fall into the clamping groove of the rotating piece, and then the aluminum ingot falls into the loading box from the rotating piece.

Description

Technical Field

[0001] The invention belongs to the technical field of continuous feeding, in particular to a continuous feeding device for aluminum ingots in aluminum alloy production. Background Art

[0002] The continuous feeding device for aluminum ingots used in aluminum alloy production usually has a relatively compact and reasonable structural design to achieve efficient and stable feeding functions. The feeding device is located between the conveying mechanism and the lifting mechanism and the receiving end such as the smelting furnace. Its main function is to accurately control the feeding speed and feeding amount of the aluminum ingots to meet the precise requirements for the input amount of aluminum ingots in the aluminum alloy production process. The continuous feeding device for aluminum ingots is a key equipment used in the aluminum alloy production process, mainly used to continuously and stably feed aluminum ingots into the smelting furnace or refining furnace. The design and working mode of this equipment are aimed at improving production efficiency, reducing manual intervention, ensuring process continuity, and helping to control production process parameters.

[0003] The existing continuous feeding device will collect the aluminum ingots to the same location during the feeding process, and then transfer them. However, they are not handled with care during this process. If the aluminum ingots are of high purity, their hardness is relatively low, and they are prone to deformation during the collection process; if the aluminum ingots are of low purity, their hardness is high, and the feeding device is easily damaged during the collection process. Therefore, during the collection and feeding process, it is ensured that each aluminum ingot is subjected to moderate but not excessive pressure during the transfer process, which effectively reduces the physical damage of the aluminum ingots, protects the equipment from damage, and improves the overall production efficiency.

[0004] To this end: the present invention provides a continuous feeding device for aluminum ingots in aluminum alloy production. Summary of the invention

[0005] In order to make up for the deficiencies of the prior art, at least one technical problem raised in the background technology is solved.

[0006] The technical solution adopted by the present invention to solve the technical problem is as follows: a continuous feeding device for aluminum ingots in aluminum alloy production according to the present invention comprises a loading box for storing aluminum ingots, a feeding shell and a conveying assembly for conveying the aluminum ingots from the loading box to the periphery; The loading box is located outside the loading shell, the loading shell is equipped with a protective component, and the loading box is equipped with a supporting member; The conveying assembly is located inside the loading shell; A support column is fixedly installed on the outer wall of the loading shell, a hydraulic rod is fixedly installed on the outer wall of the loading shell, the output shafts of the support column and the hydraulic rod are fixedly connected with hinges, and the outer wall of the hinge is fixedly connected to the outer wall of the loading box; In the process of aluminum alloy production, to ensure production efficiency, it is necessary to ensure the feeding speed of aluminum ingots. Therefore, before the production of aluminum alloy, the aluminum ingots are first placed in the loading box according to batches, and then the output shaft of the hydraulic rod is controlled to extend. At this time, the loading box rotates with one end of the support column as the center to pour the aluminum ingots inside into the feeding shell, and then the aluminum ingots are transported outward in a regular and quantitative manner through the conveying component for the production of aluminum alloy. By controlling the conveying amount and conveying time of the aluminum ingots, the effect of ensuring the production efficiency of the aluminum alloy is achieved.

[0007] Preferably, a limit block is fixedly installed on the outer wall of the loading box, a motor is fixedly installed on the inner wall of the limit block, an auxiliary part is fixedly installed on the output shaft of the motor, a rotating column is installed inside the loading shell, a fan-shaped part is fixedly installed on the outer wall of the rotating column, an auxiliary part is rotatably connected between the inner walls of the two hinges, the teeth of the auxiliary part are meshed with the teeth of the auxiliary part, the teeth of the fan-shaped part are meshed with the teeth of the auxiliary part, and a clamping block is fixedly installed on the other end of the rotating column; A pallet is installed inside the loading box, and multiple groups of aluminum ingots are placed inside the pallet. A material guide is installed at the feed inlet of the loading shell; A control member is fixedly mounted on the outer wall of the loading shell, and a start button is mounted on the outer wall of the control member; The inner rotation of the loading shell is connected with a rotating part, and the groove of the rotating part is consistent with the aluminum ingot. The inner wall of the rotating part is fixedly connected with a conveying column, and both ends of the conveying column are rotatably connected with the outer wall of the loading box. One end of the conveying column close to the operating part is fixedly connected with a first transmission part, and one end of the auxiliary part is fixedly connected with a second transmission part. A second transmission belt is transmission-connected between the outer walls of the first transmission part and the second transmission part, and a card plate is installed inside the loading box. Therefore, after the aluminum ingots are placed in the loading box, adjacent aluminum ingots will not contact each other and will not collide to cause wear or deformation. When the loading box is full of aluminum ingots, the motor is started under the control of the operating part, and the output shaft of the motor controls the auxiliary part to rotate. The auxiliary part is meshed with the auxiliary part to control the rotation of the auxiliary part, and the meshing of the fan-shaped part with the auxiliary part controls the rotation of the fan-shaped part. Because the fan-shaped part is fixedly connected to the loading box through the rotating column, At the same time, the output shaft of the hydraulic rod extends out, so the loading box will rotate against the outer wall of the material guide with one end of the support column as the center. When the opening of the loading box is tilted to the inside of the loading shell, the aluminum ingots inside the loading box will fall down, but because a card plate is installed inside it, the aluminum ingots inside the loading box will fall down in layers and batches. However, because a rotating part is installed at the entrance of the loading shell, and when the motor is started, its output shaft controls the second transmission belt through the second transmission part to drive the first transmission part to rotate, so the rotating part is controlled to rotate, and the card slot of the rotating part just matches the shape of the aluminum ingot. Therefore, each aluminum ingot falling from the loading box will fall into the card slot of the rotating part, and then due to the rotation of the rotating part, the aluminum ingot falls from the rotating part to the inside of the loading box. Through the cooperation of the loading box and the loading shell, the aluminum ingots are controlled and the physical damage of the device is reduced.

[0008] Preferably, the conveying assembly comprises a transmission frame, the output shaft of the transmission frame is fixedly mounted with a fixing frame, the outer wall of the fixing frame is provided with a transmission chain, the outer wall of the transmission frame is provided with a rotating member, the output shaft of the rotating member is fixedly connected with a driving wheel, and one end of the fixing frame is fixedly connected with a driven wheel; The conveying assembly further includes a loading plate, which is located inside the loading shell, and a first transmission belt is transmission-connected between the outer wall of the driving wheel and the outer wall of the driven wheel; The outer walls of the plurality of support members are symmetrically provided with slide rails, the interior of the slide rails is provided with moving rods, the outer walls of the moving rods are provided with conveying plates, and the conveying plates are inclined; The bottom of the outer walls of both sides of the loading shell are fixedly installed with a supporting base, the outer wall of the conveying assembly is fixedly connected to a supporting frame, the bottom of the supporting frame is fixedly installed with a fixing block, and the transfer frame is fixedly connected to the supporting frame. When the aluminum ingots fall into the loading shell in batches, the aluminum ingots will fall one by one on the conveying plate, and the conveying plate will be controlled to slide on the loading plate along the slide rail. Because the conveying plate is inclined and there is a block at its outermost end, the aluminum ingot will not slide during the rising process until it rises to the top of the loading plate and slides to another conveying plate due to the inclination of the conveying plate. On the other hand, another conveyor plate also sends the aluminum ingot to a higher layer through the same movement as above. When the aluminum ingot reaches the highest layer, it will slide onto the transmission chain. At this time, the rotating part is started to control the rotation of the driving wheel, and the driving wheel controls the rotation of the driven wheel through the first transmission belt. The driven wheel controls the transmission of the transmission chain. Therefore, the aluminum ingots on the transmission chain will be transmitted one by one to the other end of the transfer rack to prepare for the production of aluminum alloy. The support frame and the support bottom are used to increase the stability of the overall device. Through the operation of the conveying assembly, it plays an effect of controlling the timing and quantitative loading of the aluminum ingots.

[0009] The beneficial effects of the present invention are as follows: 1. The continuous feeding device for aluminum ingots produced by aluminum alloy described in the present invention controls the aluminum ingots and reduces physical damage to the device through the cooperation of the loading box and the feeding shell. The output shaft of the motor controls the rotation of the auxiliary part, the auxiliary part controls the rotation of the assisting part, the fan-shaped part rotates, the output shaft of the hydraulic rod extends, the loading box rotates, and the aluminum ingots inside fall in layers and batches. The rotating part rotates, and the slot of the rotating part just matches the shape of the aluminum ingot, so the aluminum ingot will fall into the slot of the rotating part, and then the aluminum ingot will fall from the rotating part to the inside of the loading box.

[0010] 2. The continuous feeding device for aluminum ingots for aluminum alloy production described in the present invention has the effect of controlling the timing and quantity of feeding of aluminum ingots through the operation of the conveying assembly. When the aluminum ingots fall into the feeding shell in batches, the aluminum ingots will fall one by one on the conveying plate, and the conveying plate will be controlled to slide on the feeding plate along the slide rail. Because the conveying plate is inclined and there is a block at its outermost end, the aluminum ingots will not slide during the rising process. Until they rise to the top of the feeding plate, they will slide onto another conveying plate due to the inclination of the conveying plate. The other conveying plate will also send the aluminum ingots to a higher layer through the same movement as above. When the aluminum ingots reach the highest layer, the aluminum ingots will slide onto the transmission chain. At this time, the starting rotating part controls the rotation of the driving wheel, and the driving wheel controls the rotation of the driven wheel through the first transmission belt, and the driven wheel controls the transmission of the transmission chain. Therefore, the aluminum ingots on the transmission chain will be transmitted one by one to the other end of the transfer rack to prepare for the production of aluminum alloy. The support frame and the support bottom are used to increase the stability of the overall device. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] The present invention will be further described below in conjunction with the accompanying drawings.

[0012] Figure 1 It is an overall diagram of the present invention; Figure 2 It is a schematic diagram of the overall structure on the left side of the present invention; Figure 3 It is a schematic diagram of the internal structure of the loading box of the present invention; Figure 4 It is a schematic diagram of the structure of the protection component of the present invention; Figure 5 It is a detailed structural diagram of the protection component of the present invention; Figure 6 It is a schematic diagram of the structure of the conveying assembly of the present invention; Figure 7 The present invention Figure 6 The enlarged structural diagram at A in the middle; Figure 8 It is a schematic diagram of the supporting member structure of the present invention.

[0013] In the figure: 100, loading box; 101, protection component; 102, limit block; 103, motor; 104, auxiliary part; 105, rotating column; 106, fan-shaped part; 107, assisting part; 108, block; 109, card plate; 200, loading shell; 202, supporting member; 203, supporting column; 204, hydraulic rod; 205, hinged part; 206, material guide; 207, supporting base; 208, supporting frame; 20 9. Fixed block; 300. Conveying assembly; 301. Transfer frame; 302. Fixed frame; 303. Transmission chain; 304. Rotating member; 305. Driving wheel; 306. Driven wheel; 307. First transmission belt; 308. Loading plate; 309. Rotating member; 310. Conveying column; 311. Control member; 312. First transmission member; 313. Second transmission member; 314. Second transmission belt; 315. Conveying plate; 316. Slide rail. DETAILED DESCRIPTION

[0014] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0015] like Figures 1 to 8 As shown, a continuous feeding device for aluminum ingots in aluminum alloy production according to an embodiment of the present invention comprises a loading box 100 for storing aluminum ingots, a feeding shell 200, and a conveying assembly 300 for conveying the aluminum ingots from the loading box 100 to the periphery; The loading box 100 is located outside the loading shell 200, the loading shell 200 contains a protection component 101, and the loading box 100 contains a support member 202; The conveying assembly 300 is located inside the loading shell 200; A support column 203 is fixedly installed on the outer wall of the loading shell 200, and a hydraulic rod 204 is fixedly installed on the outer wall of the loading shell 200. The output shafts of the support column 203 and the hydraulic rod 204 are fixedly connected with a hinge 205, and the outer wall of the hinge 205 is fixedly connected to the outer wall of the loading box 100; During operation, in the process of aluminum alloy production, to ensure production efficiency, it is necessary to ensure the loading speed of aluminum ingots. Therefore, before the production of aluminum alloy, the aluminum ingots are first placed in the loading box 100 in batches, and then the output shaft of the hydraulic rod 204 is controlled to extend. At this time, the loading box 100 rotates with one end of the support column 203 as the center to pour the internal aluminum ingots into the loading shell 200, and then the aluminum ingots are transported outward in a regular and quantitative manner through the conveying component 300 for the production of aluminum alloy. By controlling the conveying amount and conveying time of the aluminum ingots, the effect of ensuring the production efficiency of the aluminum alloy is achieved; at the same time, the aluminum ingots are transported in a dumping manner so that they no longer need to be clamped, thereby avoiding damage to the aluminum ingots caused by uneven clamping force.

[0016] like Figures 1 to 5 As shown, a limit block 102 is fixedly installed on the outer wall of the loading box 100, a motor 103 is fixedly installed on the inner wall of the limit block 102, an auxiliary part 104 is fixedly installed on the output shaft of the motor 103, a rotating column 105 is installed inside the loading shell 200, a fan-shaped part 106 is fixedly installed on the outer wall of the rotating column 105, an auxiliary part 107 is rotatably connected between the inner walls of the two hinged parts 205, the teeth of the auxiliary part 107 are meshed with the teeth of the auxiliary part 104, the teeth of the fan-shaped part 106 are meshed with the teeth of the auxiliary part 107, and a clamping block 108 is fixedly installed on the other end of the rotating column 105; A cardboard 109 is installed inside the loading box 100, and multiple groups of aluminum ingots are placed inside the cardboard 109. A material guide 206 is installed at the inlet of the loading shell 200; The outer wall of the loading shell 200 is fixedly mounted with a control member 311, and the outer wall of the control member 311 is mounted with a start button; The internal rotation of the loading shell 200 is connected with a rotating member 309, the slot of the rotating member 309 is matched with the aluminum ingot, the inner wall of the rotating member 309 is fixedly connected with a conveying column 310, both ends of the conveying column 310 are rotationally connected with the outer wall of the loading box 100, one end of the conveying column 310 close to the operating member 311 is fixedly connected with a first transmission member 312, one end of the assisting member 107 is fixedly connected with a second transmission member 313, and a second transmission belt 314 is transmission-connected between the outer walls of the first transmission member 312 and the second transmission member 313; During operation, a card plate 109 is installed inside the loading box 100. Therefore, after the aluminum ingots are placed in the loading box 100, adjacent aluminum ingots will not contact each other and will not collide to cause wear or deformation. When the loading box 100 is full of aluminum ingots, the motor 103 is started through the control of the operating member 311, and the output shaft of the motor 103 controls the auxiliary member 104 to rotate. The auxiliary member 104 is engaged with the auxiliary member 107 to control the rotation of the auxiliary member 107, and the engagement of the fan-shaped member 106 with the auxiliary member 107 controls the rotation of the fan-shaped member 106. Because the fan-shaped member 106 is fixedly connected to the loading box 100 through the rotating column 105, at the same time, the output shaft of the hydraulic rod 204 extends out. Therefore, the loading box 100 at this time will rotate against the outer wall of the guide member 206 with one end of the support column 203 as the center. When the opening of the loading box 100 is tilted to the loading shell 200 When the loading box 100 is in the interior, the aluminum ingots in the loading box 100 will fall downward, but because a card plate 109 is installed inside, the aluminum ingots in the loading box 100 will fall downward in layers and batches. However, because a rotating member 309 is installed at the entrance of the loading shell 200, and when the motor 103 is started, its output shaft controls the second transmission belt 314 through the second transmission member 313 to drive the first transmission member 312 to rotate, so the rotating member 309 is controlled to rotate, and the card slot of the rotating member 309 just matches the shape of the aluminum ingot. Therefore, each aluminum ingot falling from the loading box 100 will fall into the card slot of the rotating member 309, and then due to the rotation of the rotating member 309, the aluminum ingot falls from the rotating member 309 to the inside of the loading box 100. Through the cooperation between the loading box 100 and the loading shell 200, the aluminum ingots are controlled and the physical damage of the device is reduced.

[0017] like Figures 6 to 8 As shown, the conveying assembly 300 includes a transmission frame 301, the output shaft of the transmission frame 301 is fixedly installed with a fixed frame 302, the outer wall of the fixed frame 302 is provided with a transmission chain 303, the outer wall of the transmission frame 301 is installed with a rotating member 304, the output shaft of the rotating member 304 is fixedly connected with a driving wheel 305, and one end of the fixed frame 302 is fixedly connected with a driven wheel 306; The conveying assembly 300 further includes a loading plate 308, which is located inside the loading shell 200. A first transmission belt 307 is transmission-connected between the outer wall of the driving wheel 305 and the outer wall of the driven wheel 306. The outer walls of the plurality of support members 202 are symmetrically provided with slide rails 316, the interior of the slide rails 316 is provided with a moving rod, and the outer wall of the moving rod is provided with a conveying plate 315, and the conveying plate 315 is inclined; The bottom of the outer walls of both sides of the loading shell 200 are fixedly installed with a support base 207, the outer wall of the conveying assembly 300 is fixedly connected with a support frame 208, the bottom of the support frame 208 is fixedly installed with a fixing block 209, and the transfer frame 301 is fixedly connected to the support frame 208; During operation, when the aluminum ingots fall into the loading shell 200 in batches, the aluminum ingots will fall onto the conveying plate 315 one by one, and the conveying plate 315 will be controlled to slide on the loading plate 308 along the slide rail 316. Because the conveying plate 315 is inclined and has a block 108 at its outermost end, the aluminum ingots will not slide during the rising process until they rise to the top of the loading plate 308 and slide onto another conveying plate 315 due to the inclination of the conveying plate 315. The other conveying plate 315 also sends the aluminum ingots to a higher level through the same movement as above. When the aluminum ingot reaches When it reaches the highest layer, the aluminum ingot will slide onto the transmission chain 303. At this time, the rotating part 304 is started to control the rotation of the driving wheel 305. The driving wheel 305 controls the rotation of the driven wheel 306 through the first transmission belt 307. The driven wheel 306 controls the transmission of the transmission chain 303. Therefore, the aluminum ingots on the transmission chain 303 will be transmitted one by one to the other end of the transfer rack 301 to prepare for the production of aluminum alloy. The support frame 208 and the support bottom are used to increase the stability of the overall device. Through the operation of the conveying component 300, the effect of controlling the timing and quantitative loading of the aluminum ingots is achieved.

[0018] Working principle: In the process of aluminum alloy production, in order to ensure production efficiency, it is necessary to ensure the feeding speed of aluminum ingots. Therefore, before the production of aluminum alloy, the aluminum ingots are first placed in the loading box 100 in batches, and then the output shaft of the hydraulic rod 204 is controlled to extend. At this time, the loading box 100 rotates with one end of the support column 203 as the center to pour the internal aluminum ingots into the loading shell 200, and then the aluminum ingots are transported outward in a regular and quantitative manner through the conveying component 300 for the production of aluminum alloy. A pallet 109 is installed inside the loading box 100. Therefore, after the aluminum ingots are placed in the loading box 100, adjacent aluminum ingots will not contact or collide to cause wear or deformation. When the loading box 100 is full of aluminum ingots, the motor 103 is started under the control of the operating member 311. The output shaft of the motor 103 controls the auxiliary member 104 to rotate. The auxiliary member 104 is engaged with the auxiliary member 107 to control the rotation of the auxiliary member 107. The fan-shaped member 106 is engaged with the auxiliary member 107 to control the rotation of the fan-shaped member 106. Because the fan-shaped member 106 is fixedly connected to the loading box 100 through the rotating column 105, at the same time, the output shaft of the hydraulic rod 204 extends. Therefore, the loading box 100 at this time will rotate on the outer wall of the material guide member 206 with one end of the support column 203 as the center. When the opening of the loading box 100 is tilted to the inside of the loading shell 200, the aluminum ingots inside the loading box 100 will fall downward, but because the card plate 109 is installed inside, the aluminum ingots inside the loading box 100 will be layered and batched. However, because a rotating member 309 is installed at the entrance of the loading shell 200, and when the motor 103 is started, its output shaft controls the second transmission belt 314 through the second transmission member 313 to drive the first transmission member 312 to rotate, so the rotating member 309 is controlled to rotate, and the card slot of the rotating member 309 just matches the shape of the aluminum ingot, so each aluminum ingot falling from the loading box 100 will fall into the card slot of the rotating member 309, and then due to the rotation of the rotating member 309, the aluminum ingot falls from the rotating member 309 to the inside of the loading box 100. When the aluminum ingots fall into the inside of the loading shell 200 in batches, the aluminum ingots will fall one by one on the conveying plate 315, and the conveying plate 315 will be controlled on the loading plate 308 along the slide rail 316. The aluminum ingot slides upward because the conveying plate 315 is inclined and has a block 108 at its outermost end. Therefore, the aluminum ingot does not slide during the rising process until it rises to the top of the loading plate 308 and slides onto another conveying plate 315 due to the inclination of the conveying plate 315. The other conveying plate 315 also sends the aluminum ingot to a higher layer through the same movement as above. When the aluminum ingot reaches the highest layer, the aluminum ingot will slide onto the transmission chain 303. At this time, the rotating member 304 is started to control the rotation of the driving wheel 305. The driving wheel 305 controls the rotation of the driven wheel 306 through the first transmission belt 307. The driven wheel 306 controls the transmission of the transmission chain 303. Therefore, the aluminum ingots on the transmission chain 303 will be transmitted one by one to the other end of the transfer rack 301 to prepare for the production of aluminum alloy.The support frame 208 and the support bottom are used to increase the stability of the overall device.

[0019] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A continuous feeding device for aluminum ingots in aluminum alloy production, characterized in that: It comprises a loading box (100) for storing aluminum ingots, a loading shell (200), and a conveying assembly (300) for conveying the aluminum ingots from the loading box (100) to the periphery; The loading box (100) is located outside the loading shell (200), a protection component (101) is installed in the loading shell (200), and a support member (202) is installed in the loading box (100); The conveying assembly (300) is located inside the loading shell (200).

2. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 1 is characterized in that: A support column (203) is fixedly mounted on the outer wall of the loading shell (200), a hydraulic rod (204) is fixedly mounted on the outer wall of the loading shell (200), the output shafts of the support column (203) and the hydraulic rod (204) are both fixedly connected with a hinge (205), and the outer wall of the hinge (205) is fixedly connected to the outer wall of the loading box (100).

3. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 2 is characterized in that: A limit block (102) is fixedly mounted on the outer wall of the loading box (100), a motor (103) is fixedly mounted on the inner wall of the limit block (102), an auxiliary part (104) is fixedly mounted on the output shaft of the motor (103), a rotating column (105) is mounted inside the loading shell (200), a fan-shaped part (106) is fixedly mounted on the outer wall of the rotating column (105), an auxiliary part (107) is rotatably connected between the inner walls of the two hinged parts (205), the teeth of the auxiliary part (107) are meshed with the teeth of the auxiliary part (104), the teeth of the fan-shaped part (106) are meshed with the teeth of the auxiliary part (107), and a clamping block (108) is fixedly mounted on the other end of the rotating column (105).

4. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 3 is characterized in that: A clamping plate (109) is installed inside the loading box (100), and a plurality of groups of aluminum ingots are placed inside the clamping plate (109). A material guide (206) is installed at the material inlet of the loading shell (200).

5. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 4 is characterized in that: A control member (311) is fixedly mounted on the outer wall of the loading shell (200), and a start button is mounted on the outer wall of the control member (311).

6. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 5, characterized in that: The loading shell (200) is rotatably connected to a rotating member (309) inside, the slot of the rotating member (309) matches the aluminum ingot, the inner wall of the rotating member (309) is fixedly connected to a conveying column (310), both ends of the conveying column (310) are rotatably connected to the outer wall of the loading box (100), one end of the conveying column (310) close to the operating member (311) is fixedly connected to a first transmission member (312), one end of the assisting member (107) is fixedly connected to a second transmission member (313), and a second transmission belt (314) is transmission-connected between the outer walls of the first transmission member (312) and the second transmission member (313).

7. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 6, characterized in that: The conveying assembly (300) comprises a transmission frame (301), the output shaft of the transmission frame (301) is fixedly mounted with a fixed frame (302), the outer wall of the fixed frame (302) is provided with a transmission chain (303), the outer wall of the transmission frame (301) is mounted with a rotating member (304), the output shaft of the rotating member (304) is fixedly connected with a driving wheel (305), and one end of the fixed frame (302) is fixedly connected with a driven wheel (306).

8. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 7, characterized in that: The conveying assembly (300) further comprises a loading plate (308), wherein the loading plate (308) is located inside the loading shell (200), and a first transmission belt (307) is transmission-connected between the outer wall of the driving wheel (305) and the outer wall of the driven wheel (306).

9. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 8, characterized in that: The outer walls of the plurality of support members (202) are symmetrically provided with slide rails (316), a moving rod is provided inside the slide rail (316), and a conveying plate (315) is provided on the outer wall of the moving rod, and the conveying plate (315) is inclined.

10. The aluminum ingot continuous feeding device for aluminum alloy production according to claim 9, characterized in that: Support bases (207) are fixedly mounted on the bottom of the outer walls on both sides of the loading shell (200), a support frame (208) is fixedly connected to the outer wall of the conveying assembly (300), a fixing block (209) is fixedly mounted on the bottom of the support frame (208), and the transfer frame (301) is fixedly connected to the support frame (208).

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