Anode conductive device for aluminum electrolysis

Abstract

The aluminum electrolysis anode conductive device comprises a first aluminum guide rod, the section of the first aluminum guide rod is of a rectangular structure, a slotting reinforcing steel plate and a reinforcing steel plate are fixedly installed on the side wall faces of the opposite sides of the first aluminum guide rod respectively, a transverse steel beam is fixedly connected to the bottom face of the first aluminum guide rod, and flat steel is fixedly connected to the side wall faces of the two sides of the transverse steel beam respectively. And a plurality of shunting aluminum bars are uniformly and fixedly connected to the surface of the flat steel. A shunting aluminum plate is fixedly connected between the first aluminum guide rod and the shunting aluminum bars arranged on the two sides, and the shunting aluminum plate is located below the reinforcing steel plate. The utility model has the beneficial effects of reasonable structural design, novel conception, simplified manufacturing process, reduced manufacturing cost, easy processing and manufacturing, convenient operation, good welding quality, high strength, no stress between steel and aluminum connections, and prolonged service life of the whole device.

Description

Technical Field

[0001] This utility model relates to the technical field of aluminum electrolysis equipment, specifically to an aluminum electrolysis anode conductive device. Background Technology

[0002] The anode conductive device currently used in the electrolytic aluminum industry consists of an upper aluminum guide rod and a lower steel anode claw. Since steel and aluminum cannot be directly welded, they are connected by an explosive welding block. This explosive welding block uses explosive welding technology to weld the two different materials together. During the fabrication of the anode conductive device, the aluminum part of the explosive welding block is welded to the upper aluminum guide rod using argon arc welding, while the steel connector of the explosive welding block is welded to the lower anode claw beam flat steel using gas shielded welding.

[0003] The application, with application number 202422494046.5 and titled "An Aluminum Electrolysis Anode Conductive Device," includes an aluminum guide rod. A square steel bar is fixedly connected to the bottom surface of the guide rod. Multiple steel claws are uniformly fixedly connected to the bottom surface of the square steel bar. A first aluminum rod and a second aluminum rod are fixedly connected to the surface of the square steel bar. The first aluminum rod is fixedly connected to the side wall of the guide rod, and an aluminum strip is fixedly installed between the first and second aluminum rods. The aluminum strip has a V-shaped cross-section. The height of the first aluminum rod is greater than the height of the second aluminum rod. Steel plates are mounted on the surfaces of the first and second aluminum rods. The advantages of this invention are: a more rational structural design, simpler processing technology, reduced manufacturing costs, reduced shear force on the aluminum-steel weld surface, and increased service life of the aluminum-steel weld surface.

[0004] The application, with application number 202422616540.4 and titled "An Energy-Saving Aluminum Electrolysis Anode Conductive Device," includes an aluminum guide rod. A square steel bar is fixedly installed on the bottom surface of the guide rod. Two flat steel bars are fixedly connected to the side walls of the square steel bar, positioned opposite each other and symmetrically arranged along the center line of the guide rod. Multiple steel claws are fixedly installed on the bottom surface of the flat steel bars, evenly distributed. Multiple diverting aluminum rods are fixedly installed on the surface of the flat steel bars, evenly distributed. Steel claw diverting plates and triangular busbars are fixedly connected between the diverting aluminum rods. One side of the triangular busbar is fixedly installed to the side wall of a reinforcing aluminum rod, which is positioned on both sides of the guide rod and symmetrically arranged along it. The advantages of this invention include: reasonable structural design, low manufacturing cost, ease of manufacturing, convenient operation, good welding quality, high strength, improved service life of the entire device, and energy saving and environmental protection.

[0005] Both of the above patents are products that the applicant is processing and using, and are currently under examination. However, the applicant found in later use that the height of the double aluminum rods on both sides of the anode guide rod cannot be less than 130mm. The ambient temperature at the double aluminum rods reaches about 200 degrees Celsius. At this temperature, the strength of the aluminum rods decreases. In order to strengthen the strength of the aluminum rods and extend the service life of the entire device, the height of the aluminum rods must be guaranteed to be above 130mm. However, in some old cell types, this height will interfere with the horizontal gas collection hood, phosphorus iron and other equipment of the electrolytic cell.

[0006] Therefore, improvements are needed to address the aforementioned patents. Utility Model Content

[0007] The purpose of this utility model is to provide an aluminum electrolysis anode conductive device with reasonable structural design, novel concept, simplified manufacturing process, reduced manufacturing cost, easy processing and manufacturing, convenient operation, good welding quality, high strength, and no stress between steel and aluminum connections, thereby improving the service life of the entire device.

[0008] This utility model discloses an aluminum electrolysis anode conductive device, comprising a first aluminum guide rod with a rectangular cross-section. A slotted reinforcing steel plate and a reinforcing steel plate are fixedly installed on opposite side walls of the first aluminum guide rod. A horizontal steel beam is fixedly connected to the bottom surface of the first aluminum guide rod. Flat steel bars are fixedly connected to the two side walls of the horizontal steel beam. Multiple diverting aluminum rods are uniformly fixedly connected to the surface of the flat steel bars, and multiple steel bars are uniformly fixedly connected to the bottom surface of the flat steel bars.

[0009] A diversion aluminum plate is fixedly connected between the first aluminum guide rod and the diversion aluminum rods on both sides, and triangular ribs are fixedly connected to the side walls of the horizontal steel beam.

[0010] The number of slotted reinforcing steel plates and reinforcing steel plates is two. The two slotted reinforcing steel plates are respectively fixedly connected to the opposite side wall of the first aluminum guide rod; the two reinforcing steel plates are respectively fixedly installed on the opposite side wall of the first aluminum guide rod.

[0011] The slotted reinforcing steel plate is fixedly installed on the side wall of the first aluminum guide rod by a screw passing through the first aluminum guide rod and a nut.

[0012] The number of the diverting aluminum rods and steel rods is eight.

[0013] The first aluminum guide rod has slotted reinforcing steel plates and reinforcing steel plates fixedly installed on its opposite side walls, which can improve the tensile strength of the first aluminum guide rod. The first aluminum guide rod is directly welded to the flat steel on the bottom surface to fully bear the weight of the anode steel claw and anode carbon block, as well as the pull-out force of replacing the old anode. This not only improves the strength of the first aluminum guide rod and the flat steel, but also extends the life of the aluminum steel, thereby extending the life of the entire device. The manufacturing process is simplified and manufacturing costs are saved. The steel structure bears the load, and the flat steel, steel bar and the first aluminum guide rod are welded into the conductive part. This design can save nearly 100 kWh of electricity per ton of aluminum while ensuring the load-bearing capacity of the first aluminum guide rod. The triangular ribs can increase the weight of the cross steel beam, increase stability, and protect the cross steel beam to prevent the first aluminum guide rod from being damaged due to careless operation.

[0014] The installed shunt aluminum rods serve a conductive function but do not bear load, thus extending the lifespan of the welded surfaces of the first aluminum guide rod and the cross steel beam. When the shunt aluminum rods and plates only conduct electricity and do not bear weight, the height of the conductive columns and the thickness of the aluminum conductive blocks can be reduced according to the existing operating conditions of the electrolytic cell and equipment, down to a minimum of approximately 50 mm. This saves energy, is environmentally friendly, simplifies the processing technology and structure, reduces processing costs, and improves enterprise efficiency. The aluminum-steel friction weld between the first aluminum guide rod and the flat steel contact surface is affected by the different thermal expansion coefficients between the two metals and the growth of aluminum-iron metal compounds generated during welding, which impacts service life. Reducing the aluminum-steel friction weld surface decreases the probability of aluminum-steel friction welds. The installed shunt aluminum plates balance the current distributed to each shunt aluminum rod, optimizing the electrolytic aluminum process.

[0015] Another structure of an aluminum electrolysis anode conductive device includes a second aluminum guide rod with a rectangular cross-section. Reinforcing steel plate I and reinforcing steel plate II are fixedly installed on opposite side walls of the second aluminum guide rod. Flat steel is fixedly connected to the bottom surface of the second aluminum guide rod. Multiple aluminum rods are uniformly fixedly connected to the surface of the flat steel, and multiple round steels are uniformly fixedly connected to the bottom surface of the flat steel.

[0016] The number of the reinforcing steel plate I and the reinforcing steel plate II is two. The two reinforcing steel plates I are respectively fixedly connected to the opposite side wall of the second aluminum guide rod; the two reinforcing steel plates II are respectively fixedly installed on the opposite side wall of the second aluminum guide rod. The reinforcing steel plates II are fixedly installed on the side wall of the second aluminum guide rod by passing through the second screw and cooperating with the second nut.

[0017] The reinforcing steel plate I extends to both sides of the second aluminum guide rod. A boss is fixedly connected to the inner side of the reinforcing steel plate I. A groove is provided on the side of the second aluminum guide rod, and the boss can be fitted into the groove.

[0018] The number of aluminum rods and round steel bars is four. Two of the aluminum rods are placed on both sides of the second aluminum guide rod, and two of the aluminum rods are fixedly connected to the far end of the second aluminum guide rod. An aluminum flexible strip is fixedly connected between two adjacent aluminum rods.

[0019] The aluminum strip is made of stacked aluminum sheets arranged in layers, and the cross-section of the aluminum strip is V-shaped.

[0020] The second aluminum guide rod is fixedly mounted with reinforcing steel plates I and II on its opposite side walls. This not only improves the strength of the second aluminum guide rod and the flat steel, but also extends the lifespan of the aluminum and steel, thereby extending the lifespan of the entire device. The direct welding of the second aluminum guide rod to the flat steel on the bottom surface fully bears the weight of the anode steel claw and the anode carbon block, as well as the pull-out force when replacing the old anode, simplifying the processing technology and structure and reducing processing costs. The inner side wall of the reinforcing steel plate I is fixedly connected with a boss, and the side wall of the second aluminum guide rod is provided with a groove. The boss can be fitted into the groove, which can improve the tensile strength of the second aluminum guide rod and the flat steel.

[0021] The number of aluminum rods and round steel bars is four. Two of the aluminum rods are placed on both sides of the second aluminum guide rod, and two of the aluminum rods are fixedly connected to the far end of the second aluminum guide rod. An aluminum flexible strip is fixedly connected between two adjacent aluminum rods.

[0022] The aluminum strip is made of stacked aluminum sheets arranged in layers, and the cross-section of the aluminum strip is V-shaped.

[0023] The aluminum flexible strip can be formed by stacking multiple aluminum sheets. The manufacturing process of the aluminum flexible strip is simple, which can reduce the manufacturing cost and can bear the gravity load of the conductive device. Setting the cross-section of the aluminum flexible strip as a V-shaped structure can eliminate the expansion force when the aluminum flexible strip expands, reduce the shear force borne by the aluminum-steel weld surface, extend the life of the aluminum-steel weld surface, further extend the service life of the entire conductive device, and save costs.

[0024] The beneficial effects of this utility model are:

[0025] 1) The first aluminum guide rod is fixedly installed with slotted reinforcing steel plates and reinforcing steel plates on its opposite side walls, which can improve the tensile strength of the first aluminum guide rod. The first aluminum guide rod is directly welded to the flat steel on the bottom surface to fully bear the weight of the anode steel claw and anode carbon block, as well as the pull-out force of the old anode. This not only improves the strength of the first aluminum guide rod and the flat steel, but also extends the life of the aluminum steel, thereby extending the life of the entire device. The manufacturing process is simplified and manufacturing costs are saved. The steel structure bears the load, and the flat steel, steel bar and the first aluminum guide rod are welded into the conductive part. This design can save nearly 100 kWh of electricity per ton of aluminum while ensuring the load-bearing capacity of the first aluminum guide rod. The triangular ribs can increase the weight of the horizontal steel beam, increase stability, and protect the horizontal steel beam to prevent the first aluminum guide rod from being damaged due to careless operation.

[0026] 2) The installed aluminum guide rods serve a conductive function but do not bear load, thus extending the lifespan of the welded surfaces of the first aluminum guide rod and the cross steel beam. The installed shunt aluminum rods and plates, which only conduct electricity and do not bear weight, allow for adjustments to the height of the conductive columns and the thickness of the aluminum conductive blocks, based on the existing operating conditions of the electrolytic cell and equipment. This can be reduced to a minimum of approximately 50mm, resulting in energy savings, environmental protection, simplified processing technology and structure, lower processing costs, and improved enterprise efficiency. The aluminum-steel friction weld between the first aluminum guide rod and the flat steel contact surface is affected by the different thermal expansion coefficients of the two metals and the growth of aluminum-iron metal compounds generated during welding, impacting service life. Reducing the aluminum-steel friction weld surface decreases the probability of aluminum-steel friction welds. The installed shunt aluminum plates balance the current distributed to each shunt aluminum rod, optimizing the electrolytic aluminum process.

[0027] 3) The second aluminum guide rod is fixedly mounted with reinforcing steel plates I and II on its opposite side walls, which not only improves the strength of the second aluminum guide rod and the flat steel, but also extends the life of the aluminum steel and thus the life of the entire device. The welding of the second aluminum guide rod directly to the flat steel on the bottom surface fully bears the weight of the anode steel claw, the anode carbon block, and the pull-out force of the old anode, which simplifies the processing technology and structure and reduces the processing cost. The inner side wall of the reinforcing steel plate I is fixedly connected with a boss, and the side wall of the second aluminum guide rod is provided with a groove. The boss can be fitted into the groove, which can improve the tensile strength of the second aluminum guide rod and the flat steel.

[0028] 4) The aluminum flexible strip can be formed by stacking multiple aluminum sheets. The manufacturing process of the aluminum flexible strip is simple, which can reduce the manufacturing cost and can bear the gravity load of the conductive device. Setting the cross-section of the aluminum flexible strip to a V-shaped structure can eliminate the expansion force when the aluminum flexible strip expands, reduce the shear force borne by the aluminum-steel welding surface, extend the life of the aluminum-steel welding surface, further extend the service life of the entire conductive device, and save costs.

[0029] 5) The device has a reasonable structural design, novel concept, simplified manufacturing process, reduced manufacturing cost, easy processing and manufacturing, convenient operation, good welding quality, high strength, and no stress between steel and aluminum connections, which improves the service life of the entire device. It has been put into use and the effect is good, and it is worth promoting and applying it on a large scale. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the structure of the first embodiment of the present utility model;

[0031] Figure 2 for Figure 1 Side view;

[0032] Figure 3 for Figure 2 A cross-sectional view of GG;

[0033] Figure 4 for Figure 3 Enlarged structural diagram;

[0034] Figure 5 for Figure 1 Top view in the middle;

[0035] Figure 6 Figure 5 A magnified structural diagram of the structure;

[0036] Figure 7 This is a schematic diagram of the structure of the second embodiment of the present invention;

[0037] Figure 8 for Figure 7 Side view;

[0038] Figure 9 for Figure 8 A cross-sectional view of GG;

[0039] Figure 10 for Figure 1 A cross-sectional view of HH;

[0040] Figure 11 for Figure 10 NN cross-sectional view in the middle;

[0041] Figure 12 for Figure 1 Top view;

[0042] Figure 13 for Figure 12 A magnified structural diagram.

[0043] In the diagram: 1. First aluminum guide rod; 2. Grooved reinforcing steel plate; 3. Diverting aluminum plate; 4. Diverting aluminum rod; 5. Flat steel; 6. Diverting aluminum plate; 7. Horizontal steel beam; 701. Triangular rib; 8. Reinforcing steel plate; 901. First screw; 902. First nut; 10. Second aluminum guide rod; 11. Aluminum flexible strip; 12. Aluminum rod; 13. Flat steel; 14. Round steel; 15. Reinforcing steel plate I; 16. Boss; 17. Reinforcing steel plate II; 18. Second screw; 19. Second nut; 20. Groove; 1A. Steel-to-steel manual welding; 1B. Aluminum-to-aluminum manual welding; 1C. Aluminum-to-steel full-section friction welding; 1D. Steel-to-steel full-section friction welding; 1E. Aluminum-to-aluminum manual welding; 1F. Aluminum-to-aluminum large-section manual welding; 3H. Aluminum-to-steel full-section friction welding; 1I. Steel-to-steel full-section friction welding; 2J. Steel-to-steel manual fillet weld; 1K. Steel-to-steel manual fillet weld. Detailed Implementation

[0044] Example 1.

[0045] This utility model includes a first aluminum guide rod 1, a slotted reinforcing steel plate 2, a diverting aluminum plate 3, a diverting aluminum rod 4, a flat steel 5, a diverting aluminum plate 6, a horizontal steel beam 7, a reinforcing steel plate 8, a first screw 901, a first nut 902, and steel-to-steel manual welding IA, aluminum-to-aluminum manual welding IB, aluminum-to-steel full-section friction welding C, steel-to-steel full-section friction welding ID, steel-to-steel manual welding IIE, and aluminum-to-aluminum manual welding IIF. The specific structure includes the first aluminum guide rod 1, which has a rectangular cross-section. The slotted reinforcing steel plate 2 and the reinforcing steel plate 8 are fixedly installed on opposite side walls of the first aluminum guide rod 1. The bottom surface of the first aluminum guide rod 1 is fixedly connected to the horizontal steel beam 7. The two side walls of the horizontal steel beam 7 are fixedly connected to the flat steel 5. Multiple diverting aluminum rods 4 are uniformly fixedly connected to the surface of the flat steel 5, and multiple steel rods 6 are uniformly fixedly connected to the bottom surface of the flat steel 5.

[0046] A diversion aluminum plate 3 is fixedly connected between the first aluminum guide rod 1 and the diversion aluminum rods 6 set on both sides, and triangular ribs 701 are fixedly connected to the side walls of the horizontal steel beam 7 respectively.

[0047] The number of slotted reinforcing steel plates 2 and reinforcing steel plates 8 is two. The two slotted reinforcing steel plates 2 are respectively fixedly connected to the opposite side wall of the first aluminum guide rod 1; the two reinforcing steel plates 8 are respectively fixedly installed on the opposite side wall of the first aluminum guide rod 1.

[0048] The slotted reinforcing steel plate 2 is fixedly installed on the side wall of the first aluminum guide rod 1 by the first screw 901 passing through the first aluminum guide rod 1 and cooperating with the first nut 902; the length of the slotted reinforcing steel plate is greater than the length of the reinforcing steel plate 8.

[0049] The number of the diverting aluminum rods 4 and steel rods 6 is eight.

[0050] Usage method: Weld the first aluminum guide rod 1 to the surface of the bottom horizontal steel beam 7. Weld the reinforcing steel plate I2 to the side wall of the horizontal steel beam 7 by steel-to-steel manual welding IA. Weld the diverting aluminum rod 4 to the surface of the flat steel 5 by aluminum-to-steel full-section friction welding IC. Weld the diverting aluminum plate 3 to the two side walls of the first aluminum guide rod 1 and the diverting aluminum rod 7 by aluminum-to-aluminum manual welding IB. Weld the steel rod 6 to the bottom surface of the flat steel 5 by steel-to-steel full-section friction welding ID. Weld the slotted reinforcing steel plate 2 and the reinforcing steel plate 8 to each other by steel-to-steel manual welding IIE. The slotted reinforcing steel plate 2 is fixedly installed on the opposite side of the first aluminum guide rod 1 by the first screw 901 through the first aluminum guide rod 1 and the first nut 902. Triangular ribs 701 are fixedly connected to the two side walls of the horizontal steel beam 7 respectively.

[0051] Example 2.

[0052] This utility model includes a second aluminum guide rod 10, an aluminum flexible strip 11, an aluminum rod 12, a flat steel 13, a round steel 14, a reinforcing steel plate I 15, a steel plate 16, a reinforcing steel plate II 17, a second screw 18, a second nut 19, a groove 20, aluminum-aluminum large cross-section manual welding G, aluminum-aluminum manual welding IIIH, aluminum-steel full cross-section friction welding I, steel-steel full cross-section friction welding IIJ, steel-steel manual fillet weld IK, and steel-steel manual fillet weld IIL. Specifically, the structure includes the second aluminum guide rod 10, which has a rectangular cross-section. Reinforcing steel plate I 15 and reinforcing steel plate II 17 are fixedly installed on opposite side walls of the second aluminum guide rod 10. A flat steel 13 is fixedly connected to the bottom surface of the second aluminum guide rod 10. Multiple aluminum rods 12 are uniformly fixedly connected to the surface of the flat steel 13, and multiple round steels 14 are uniformly fixedly connected to the bottom surface of the flat steel 13.

[0053] The number of the reinforcing steel plate I 15 and the reinforcing steel plate II 17 is two. The two reinforcing steel plates I 15 are fixedly connected to the opposite side wall of the second aluminum guide rod 10. The two reinforcing steel plates II 17 are fixedly installed on the opposite side wall of the second aluminum guide rod 10. The reinforcing steel plate II 17 is fixedly installed on the side wall of the second aluminum guide rod 10 through the second screw 18 and cooperates with the second nut 19. The length of the reinforcing steel plate I 15 is greater than the length of the reinforcing steel plate II 17.

[0054] The reinforcing steel plate I15 extends to the two side walls of the second aluminum guide rod 10. A boss 16 is fixedly connected to the inner side wall of the reinforcing steel plate I15. A groove 20 is provided on the side wall of the second aluminum guide rod 10, and the boss 16 can be fitted into the groove 20.

[0055] The number of aluminum rods 12 and round steel bars 14 is four. Two of the aluminum rods 12 are placed on both sides of the second aluminum guide rod 10, and the two aluminum rods 12 are fixedly connected to the far end of the second aluminum guide rod 10. An aluminum flexible strip 11 is fixedly connected between two adjacent aluminum rods 12.

[0056] The aluminum flexible strip 11 is made of stacked aluminum sheets arranged in layers, and the cross-section of the aluminum flexible strip 11 is V-shaped.

[0057] The number of aluminum rods 12 and round steel bars 14 is four. The four aluminum rods 12 are arranged in pairs on both sides of the second aluminum guide rod 10. The two aluminum rods 12 are fixedly connected to the far end of the second aluminum guide rod 10 respectively. An aluminum flexible strip 11 is fixedly connected between two adjacent aluminum rods 12.

[0058] The aluminum flexible strip 11 is made of stacked aluminum sheets arranged in layers, and the cross-section of the aluminum flexible strip 11 is V-shaped.

[0059] Instructions for use: Weld the second aluminum guide rod 10 to the surface of the flat steel 13. Weld the reinforcing steel plate I 15 to the side wall of the flat steel 13 by steel-to-steel manual welding. Weld aluminum rods 12 to both sides of the second aluminum guide rod 10 by aluminum-to-aluminum large-section manual welding G. Weld the bottom of the aluminum rods 12 to the surface of the flat steel 13 by aluminum-to-steel full-section friction welding II I. Weld round steel 14 to the bottom of the flat steel 13 by steel-to-steel full-section friction welding II J. Weld aluminum strip 11 between adjacent aluminum rods 12 by aluminum-to-aluminum manual welding III H. Fix two reinforcing steel plates II 17 to the opposite side wall of the second aluminum guide rod 10. Fix the reinforcing steel plate II 17 to the side wall of the second aluminum guide rod 10 by the second screw 18 through the second aluminum guide rod 10 and the second nut 19. Fix the boss 16 to the inner side wall of the reinforcing steel plate I 15. The side wall of the second aluminum guide rod 10 is provided with a groove 20, and the boss 16 can be fitted into the groove 20.

Claims

1. An aluminium electrolytic anode conducting device, characterised in that: The utility model provides a kind of aluminum guide pole, including first aluminum guide pole (1), first aluminum guide pole (1) section is rectangular structure, first aluminum guide pole (1) opposite side wall surface is respectively fixedly installed with slotted reinforcing steel plate (2) and reinforcing steel plate (8), the bottom of first aluminum guide pole (1) is fixedly connected with horizontal steel beam (7), the two sides of horizontal steel beam (7) side wall surface is respectively fixedly connected with flat steel (5), the surface of flat steel (5) is uniformly fixedly connected with multiple shunt aluminum stick (4), the bottom of flat steel (5) is uniformly fixedly connected with multiple steel bar (6).

2. An aluminium electrolytic anode conducting device as claimed in claim 1, characterised in that: The first aluminum guide pole (1) and the shunt aluminum stick (4) arranged on the two sides are fixedly connected with the shunt aluminum plate (3);The two sides of horizontal steel beam (7) side wall surface is respectively fixedly connected with triangular rib (701).

3. An aluminium electrolytic anode conducting device as claimed in claim 2, characterised in that: The number of the slotted reinforcing steel plate (2) and the reinforcing steel plate (8) is two, and the two slotted reinforcing steel plates (2) are fixedly connected to the opposite side walls of the first aluminum guide pole (1) respectively;Two reinforcing steel plates (8) are fixedly installed on the opposite side walls of the first aluminum guide pole (1).

4. An aluminium electrolytic anode conducting device as claimed in claim 3, characterised in that: The slotted reinforcing steel plate (2) is fixedly installed on the side wall of the first aluminum guide pole (1) by penetrating the first aluminum guide pole (1) with the screw rod (901) and cooperating with the nut (902).

5. An aluminium electrolytic anode conducting device as claimed in claim 4, characterised in that: The number of the shunt aluminum stick (4) and the steel bar (6) is eight.

6. An aluminum electrolytic anode conducting device characterized by: Including second aluminum guide pole (10), second aluminum guide pole (10) section is rectangular structure, second aluminum guide pole (10) opposite side wall surface is respectively fixedly installed with reinforcing steel plate I (15) and reinforcing steel plate II (17), the bottom of second aluminum guide pole (10) is fixedly connected with flat steel (13), the surface of flat steel (13) is uniformly fixedly connected with multiple aluminum stick (12), the bottom of flat steel (13) is uniformly fixedly connected with multiple round steel (14).

7. An aluminium electrolytic anode conducting device as claimed in claim 6, characterised in that: The number of the reinforcing steel plate I (15) and the reinforcing steel plate II (17) is two, and the two reinforcing steel plate I (15) are fixedly connected to the opposite side walls of the second aluminum guide pole (10) respectively;Two reinforcing steel plate II (17) are fixedly installed on the opposite side walls of the second aluminum guide pole (10), and the reinforcing steel plate II (17) is fixedly installed on the side wall of the second aluminum guide pole (10) by penetrating the second aluminum guide pole (10) with the second screw rod (18) and cooperating with the nut (19);The length of the reinforcing steel plate I (15) is greater than the length of the reinforcing steel plate II (17).

8. An aluminium electrolytic anode conducting device as claimed in claim 7, characterised in that: The reinforcing steel plate I (15) extends to the two side walls of the second aluminum guide pole (10), and the inner side wall of the reinforcing steel plate I (15) is fixedly connected with the boss (16), and the side wall of the second aluminum guide pole (10) is provided with the groove (20), and the boss (16) can be embedded in the groove (20).

9. An aluminium electrolytic anode conducting device as claimed in claim 8, characterised in that: The number of the aluminum stick (12) and the round steel (14) is four, and the four aluminum sticks (12) are arranged on the two sides of the second aluminum guide pole (10) respectively, and the two aluminum sticks (12) are fixedly connected to the distal ends of the second aluminum guide pole (10) respectively, and the adjacent two aluminum sticks (12) are fixedly connected with the aluminum soft belt (11).

10. An aluminium electrolytic anode conducting device as claimed in claim 9, characterised in that: The aluminum soft belt (11) is made of layered aluminum sheets, and the cross section of the aluminum soft belt (11) is V-shaped.

Images