Carbon block warehouse area partition transfer equipment

Abstract

The utility model discloses a carbon block warehouse area partition transfer device which comprises an embedded square pipe, a lifting lug used for lifting is arranged in the center of the upper end face of an outer sleeve square pipe, a bearing flat plate is fixedly arranged on one side of the lower end of the outer sleeve square pipe, and the upper end face of the bearing flat plate is perpendicular to the side wall of the adjacent outer sleeve square pipe. An outer sleeve round pipe is fixedly arranged in the center of the lower end face of the bearing flat plate, the axis of the outer sleeve round pipe is parallel to the lower end face of the bearing flat plate, the outer sleeve square pipe, the bearing flat plate and the outer sleeve round pipe form a carbon block edge bearing structure, and a connecting transverse rod is arranged between the two opposite carbon block edge bearing structures. The carbon block edge bearing structures can be folded relative to the corresponding connecting cross rods to form carbon block bearing joints. The carbon blocks are automatically buckled into the carbon block bearing sections after being pressed by the dead weight of the carbon blocks, loading of the carbon blocks into the transfer support is completed, the positions of the carbon blocks do not need to be adjusted after loading, cushion blocks do not need to be added, and operation efficiency is effectively improved.

Description

Technical Field

[0001] This utility model belongs to the technical field of charcoal block transfer equipment, and particularly relates to a charcoal block warehouse zone transfer equipment. Background Technology

[0002] Whether it's the carbon blocks used in the electrolytic aluminum industry or the carbon block processing process, the carbon blocks are generally stored in a carbon block warehouse. When the carbon blocks are transferred in sections within the warehouse, the opening of the transfer rack is fixed and is larger than the width of the carbon blocks. After loading the carbon blocks, it is necessary to adjust their position, for example, by adding some pads, to ensure that the carbon blocks can be placed stably on the transfer rack. This undoubtedly increases the workload. How to load the carbon blocks into the transfer rack more efficiently is a problem worth solving. Summary of the Invention

[0003] To overcome the technical problems described in the background section, this utility model provides a sectional transfer device for a charcoal block storage area. It includes a charcoal block support structure capable of supporting multiple charcoal blocks. Each charcoal block support structure has a corresponding charcoal block support section. Each charcoal block support section includes a connecting crossbar and charcoal block edge support structures supporting the lower edges of the left and right sides of the charcoal block. The charcoal block edge support structures are formed by a bottom outer cylindrical tube that allows for easy rotation, a support plate supporting the edge of the charcoal block, and an outer square tube. The charcoal blocks are placed into the charcoal block support... After the support section is completed, the carbon block edge support structures on both sides snap onto the lower left and right edges of the carbon block under the pressure of the carbon block's own weight, until the outer square tube in the carbon block edge support structure is against the side wall of the carbon block, thus completing the snapping of the carbon block. In this way, each carbon block is snapped together by its corresponding carbon block support section. Finally, the embedded square tube is inserted through multiple outer square tubes on the same side in sequence and limited by the square tube pin, completing the loading of the carbon block into the transfer bracket. After loading, there is no need to adjust the position of the carbon block or add pads, which effectively improves the operating efficiency.

[0004] The technical solution of this utility model is as follows: a charcoal block storage area transfer device, including an embedded square tube, an outer square tube, an embedded round tube, a support plate, an outer round tube, a connecting crossbar, and a lifting lug. The outer square tube has a square tubular structure and a lifting lug for lifting is provided in the center of the upper end face. A support plate is fixedly provided on one side of the lower end of the outer square tube. The upper end face of the support plate is perpendicular to the side wall of the adjacent outer square tube. An outer round tube is fixedly provided in the center of the lower end face of the support plate. The outer square tube, the support plate, and the outer round tube form a charcoal block edge support structure. A connecting crossbar is provided between two opposite charcoal block edge support structures. The charcoal block edge support structure can be folded relative to the corresponding connecting crossbar to form a charcoal block support section.

[0005] Furthermore, multiple carbon block support sections are arranged in sequence to form a carbon block group support structure. Within the same carbon block group support structure, the outer circular tubes on the same side are sequentially penetrated by the embedded circular tubes, and the outer square tubes on the same side of the same carbon block group support structure are sequentially penetrated by the embedded square tubes.

[0006] Furthermore, the ends of the embedded round tube and the embedded square tube are respectively embedded with round tube pins and square tube pins. The round tube pin is used to prevent the outer round tube from detaching from the embedded round tube, and the square tube pin is used to prevent the outer square tube from detaching from the embedded square tube.

[0007] Furthermore, the end of the connecting crossbar is bolted to the swing plate on the side wall of the outer cylindrical tube, allowing the carbon block edge support structure to flip relative to the end of the connecting crossbar.

[0008] Furthermore, the circumferential sidewall of the outer cylindrical tube is tangent to the lower end face of the supporting plate.

[0009] The beneficial effects of this utility model due to the adoption of the above-mentioned technology are as follows.

[0010] 1. This utility model provides a carbon block support structure capable of supporting multiple carbon blocks. Each carbon block in the support structure has a corresponding carbon block support section. Each carbon block support section includes a connecting crossbar and a carbon block edge support structure supporting the lower edges of the left and right sides of the carbon block. The carbon block edge support structure is formed by a bottom-rotating outer cylindrical tube, a support plate supporting the carbon block edge, and an outer square tube. After the carbon block is placed into the carbon block support section, the left and right side carbon block edge support structures snap onto the lower left and right edges of the carbon block under the pressure of the carbon block's own weight, until the outer square tube in the carbon block edge support structure is against the side wall of the carbon block, completing the snapping. Thus, each carbon block is individually snapped by its corresponding carbon block support section. Finally, the embedded square tube passes through multiple outer square tubes on the same side in sequence and is limited by a square tube pin, completing the loading of the carbon block into the transfer bracket. After loading, there is no need to adjust the carbon block position or add pads, effectively improving operational efficiency.

[0011] 2. This utility model can set multiple carbon block support sections as needed to form a carbon block support structure that can adapt to different numbers of carbon blocks, and can better meet the zoning requirements of different numbers of carbon blocks. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of this utility model.

[0013] Figure 2 This is a structural schematic diagram of the present invention from a certain top-down perspective.

[0014] Figure 3 This is the front view of this utility model.

[0015] Figure 4This is a schematic diagram of the structure of this utility model after the carbon block is removed and the embedded square tube and square tube pin are removed.

[0016] Figure 5 yes Figure 4 The front view of the structure shown.

[0017] Figure 6 yes Figure 5 A magnified view of a portion of point A in the middle.

[0018] In the diagram: 1. Embedded square tube, 2. Outer square tube, 3. Reinforcing rib, 4. Embedded round tube, 5. Outer round tube, 6. Connecting crossbar, 7. Carbon block, 8. Lifting lug, 9. Square tube pin, 10. Round tube pin, 11. Support plate, 12. Swinging connecting plate. Detailed Implementation

[0019] Example 1: As Figure 1 As shown, this utility model provides a zoning and transfer device for a charcoal block storage area, including an embedded square tube 1, an outer square tube 2, an embedded round tube 4, a supporting plate 11, an outer round tube 5, a connecting crossbar 6, and a lifting lug 8. The outer square tube 2 has a square tubular structure and a lifting lug 8 for lifting is provided in the center of its upper end face. A supporting plate 11 is welded to one side of the lower end of the outer square tube 2. The circumferential sidewall of the outer round tube 5 is tangent to the lower end face of the supporting plate 11. The upper end face of the supporting plate 11 is perpendicular to the sidewall of the adjacent outer square tube 2. The lower end face of the supporting plate 11... A cylindrical outer tube 5 is welded to the center of the end face. The cylindrical outer tube 5 has a circular tubular structure and its axis is parallel to the lower end face of the supporting plate 11. Multiple reinforcing ribs 3 are welded between the side walls of the square outer tube 2 and the cylindrical outer tube 5 for strengthening the connection. The square outer tube 2, the supporting plate 11 and the cylindrical outer tube 5 form a carbon block edge support structure. A connecting crossbar 6 is provided between two opposite carbon block edge support structures. The carbon block edge support structure can be folded relative to the corresponding connecting crossbar 6 to form a carbon block support section that can be used to hoist a carbon block 7.

[0020] To accommodate the flexible combination and hoisting of multiple carbon blocks 7, multiple carbon block support sections are arranged sequentially to form a carbon block group support structure. Within the same carbon block group support structure, the outer cylindrical tube 5 on the same side is sequentially penetrated by the embedded cylindrical tube 4, and the outer square tube 2 on the same side is sequentially penetrated by the embedded square tube 1. Thus, a carbon block support section is set for each carbon block 7 in the carbon block group support structure. The carbon block support section includes a connecting crossbar 6 and a carbon block edge support structure supporting the lower edges of the left and right sides of the carbon block 7. The carbon block edge support structure consists of an outer cylindrical tube 5 at the bottom that allows for easy rotation, and a support structure for the lower edges of the carbon block 7. The support plate 11 and the outer square tube 2 are formed along the edge. After the carbon block 7 is placed into the carbon block support section, the carbon block edge support structure on the left and right sides snaps against the lower left and right edges of the carbon block 7 under the pressure of the carbon block 7's own weight, until the outer square tube 2 in the carbon block edge support structure is against the side wall of the carbon block 7, thus completing the snapping of the carbon block 7. In this way, each carbon block 7 is snapped by the corresponding carbon block support section. Finally, the embedded square tube 1 is inserted through multiple outer square tubes 2 on the same side in sequence and limited by the square tube pin 9, completing the loading of the carbon block 7 into the transfer bracket. After loading, there is no need to adjust the position of the carbon block 7 or add pads, which effectively improves the operating efficiency.

[0021] The ends of the embedded round tube 4 and the embedded square tube 1 are respectively embedded with round tube pin 10 and square tube pin 9. Round tube pin 10 is used to prevent the outer round tube 5 from disengaging from the embedded round tube 4, and square tube pin 9 is used to prevent the outer square tube 2 from disengaging from the embedded square tube 1.

[0022] The end of the connecting crossbar 6 is connected to the swing connecting plate 12 on the side wall of the outer cylindrical tube 5 by bolts, so that the carbon block edge support structure can flip relative to the end of the connecting crossbar 6.

[0023] Once a carbon block support structure is formed that can accommodate a specific number of carbon blocks, the lifting cable can be used to lift and load the carbon block by passing through the lifting lugs 8 on the end of each carbon block support section.

Claims

1. A zoning and transfer device for a charcoal block warehouse, characterized in that: The system includes an embedded square tube (1), an outer square tube (2), an embedded round tube (4), a supporting plate (11), an outer round tube (5), a connecting crossbar (6), and a lifting lug (8). The outer square tube (2) has a square tubular structure and a lifting lug (8) for lifting is provided at the center of its upper end. The supporting plate (11) is fixedly installed on one side of the lower end of the outer square tube (2). The upper end of the supporting plate (11) is perpendicular to the side wall of the adjacent outer square tube (2). The outer cylindrical tube (5) is fixedly installed in the center of the lower end face. The outer cylindrical tube (5) has a circular tubular structure and its axis is parallel to the lower end face of the supporting plate (11). The outer square tube (2), the supporting plate (11) and the outer cylindrical tube (5) form a carbon block edge support structure. The connecting crossbar (6) is provided between two opposite carbon block edge support structures. The carbon block edge support structure can be folded relative to the corresponding connecting crossbar (6) to form a carbon block support section.

2. The zoning and transfer equipment for a charcoal block storage area according to claim 1, characterized in that: Multiple carbon block support sections are arranged in sequence to form a carbon block group support structure. The outer round tube (5) on the same side of the same carbon block group support structure is passed through the embedded round tube (4) in sequence. The outer square tube (2) on the same side of the same carbon block group support structure is passed through the embedded square tube (1) in sequence.

3. The zoning and transfer equipment for a charcoal block storage area according to claim 2, characterized in that: The ends of the embedded round tube (4) and the embedded square tube (1) are respectively embedded with round tube pins (10) and square tube pins (9). The round tube pins (10) are used to prevent the outer round tube (5) from detaching from the embedded round tube (4), and the square tube pins (9) are used to prevent the outer square tube (2) from detaching from the embedded square tube (1).

4. The zoning and transfer equipment for a charcoal block storage area according to claim 3, characterized in that: The end of the connecting crossbar (6) is bolted to the swing connecting plate (12) on the side wall of the outer sleeve tube (5), so that the carbon block edge support structure can flip relative to the end of the connecting crossbar (6).

5. A zoning and transfer device for a charcoal block storage area according to claim 4, characterized in that: The circumferential sidewall of the outer tube (5) is tangent to the lower end face of the supporting plate (11).

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