A stone warehouse shed partition gap plugging structure

Abstract

The utility model relates to stone material warehouse shed technical field, specifically disclose a kind of stone material warehouse shed partition board gap plugging structure, including warehouse shed, the middle part of warehouse shed is provided with connecting wall, the middle part of connecting wall is provided with connecting rod, the side of connecting rod is connected with corrugated baffle, the bottom of corrugated baffle is provided with connecting block, and the one end of connecting block is provided with inlay block, and the one end of inlay block is connected with plugging assembly, and plugging assembly is extruded along inlay block displacement by corrugated baffle. By the abutting block of the device can be spliced when installing in corrugated baffle, extruded along inlay block displacement, to cooperate the gap between every two corrugated baffles and carry out plugging, avoid stone from the gap leakage. Solve the isolation board in stone material warehouse shed when building, stone is easy to slide from the gap between isolation board, and accumulation will extrude to the inner wall of warehouse shed, lead to the inner wall of warehouse shed extrusion deformation.

Description

Technical Field

[0001] This utility model relates to the field of stone silo technology, and more specifically, to a structure for sealing gaps in the partition of a stone silo. Background Technology

[0002] Stone storage sheds are temporary structures used to store stones and prevent rainwater and other factors from affecting them.

[0003] Meanwhile, stone sheds use partitions to divide the internal space and store different types of stone. Existing partitions are constructed by splicing together panels for ease of installation. However, during the construction process, there are gaps between the panels to facilitate installation. These gaps can easily allow stones to slip through. If the stones are at the far sides of the shed, the accumulation of stones can put pressure on the inner walls of the shed, which can easily cause the inner walls to deform under pressure. Utility Model Content

[0004] The purpose of this utility model is to provide a structure for sealing the gaps in the partitions of a stone silo, which solves the problem that when the partitions in a stone silo are built, stones can easily slip through the gaps between the partitions and accumulate, squeezing the inner wall of the silo and causing it to deform under pressure.

[0005] This utility model is achieved through the following technical solution: This utility model provides a structure for sealing gaps in the partition of a stone shed, including a shed, a connecting wall in the middle of the shed, a connecting rod in the middle of the connecting wall, a corrugated partition plate connected to one side of the connecting rod, a connecting block at the bottom of the corrugated partition plate, a fitting block at one end of the connecting block, and a sealing component connected to one end of the fitting block. The sealing component is displaced along the fitting block by the pressure of the corrugated partition plate.

[0006] Preferably, several corrugated isolation plates are connected to both sides of the middle section of the connecting wall via connecting rods.

[0007] Preferably, the connecting block is a plate material with an arc-shaped bend set at the bottom of the corrugated isolation, and the fitting block is a plate material with a square protrusion at the bottom of the connecting block.

[0008] Preferably, the sealing component includes a stop block, a fitting groove, a pressing protrusion, a deflection groove, and an anti-slip block. The stop block is connected to one end of the fitting block, the fitting groove is located in the middle of the stop block, the pressing protrusion is located at the top of one end of the stop block, the deflection groove is located on one side of the pressing protrusion, and the anti-slip block is connected in the deflection groove.

[0009] Preferably, the abutment block is connected to the fitting block through a fitting groove, and one end of the fitting groove is connected to the fitting block through a spring.

[0010] Preferably, the extrusion bump is an arc-shaped protrusion at the top of the end of the abutment block away from the interlocking block.

[0011] Preferably, the anti-slip block is a square block hinged to the middle of the deflection groove, and the anti-slip block is a triangular block with an inclined arrangement.

[0012] Preferably, the anti-slip block hinge shaft is provided with torsion springs at both ends.

[0013] The technical solution of this utility model has at least the following advantages and beneficial effects: 1. The abutment block in the device can be displaced under pressure along the interlocking block when the corrugated isolation plate is spliced ​​and installed, thereby sealing the gap between each pair of corrugated isolation plates and preventing the stone from leaking out of the gap.

[0014] 2. The device is also equipped with anti-slip blocks. The anti-slip blocks ensure a more stable and secure connection between the corrugated isolation plate and the abutment block, preventing them from easily separating. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of this utility model.

[0016] Figure 2 This is a side view sectional structural diagram of the connecting wall of this utility model.

[0017] Figure 3 This utility model Figure 2 A magnified structural diagram of point A in the middle.

[0018] Figure 4 This is a partial cross-sectional structural diagram of the abutment block of this utility model.

[0019] Reference numerals: 1-shed, 2-connecting wall, 201-connecting rod, 3-corrugated isolation plate, 301-connecting block, 302-fitting block, 303-abutting block, 3031-fitting groove, 3032-extrusion protrusion, 3033-deflection groove, 3034-anti-slip block. Detailed Implementation

[0020] The following is combined Figures 1 to 4 This utility model will be described in detail.

[0021] A gap sealing structure for a stone storage shed partition includes a storage shed 1, a connecting wall 2 in the middle of the storage shed 1, a connecting rod 201 in the middle of the connecting wall 2, a corrugated partition plate 3 connected to one side of the connecting rod 201, a connecting block 301 at the bottom of the corrugated partition plate 3, a fitting block 302 at one end of the connecting block 301, a sealing component at one end of the fitting block 302, and the sealing component is displaced along the fitting block 302 by the pressure of the corrugated partition plate 3. Several corrugated partition plates 3 are connected to both sides of the middle of the connecting wall 2 by the connecting rod 201.

[0022] First, several connecting walls 2 with a certain distance between them are built in the warehouse 1. Then, several corrugated isolation plates 3 are connected by connecting rods 201 in the connecting walls 2 to form a closed wall, thereby dividing the warehouse 1 into several spaces for the classified storage of stones.

[0023] Furthermore, the connecting block 301 is a plate material with an arc-shaped bend at the bottom of the corrugated isolation plate 3, and the fitting block 302 is a square protrusion at the bottom of the connecting block 301. The sealing assembly includes an abutment block 303, a fitting groove 3031, a pressing protrusion 3032, a deflection groove 3033, and an anti-slip block 3034. The abutment block 303 is connected to one end of the fitting block 302, the fitting groove 3031 is located in the middle of the abutment block 303, and the pressing protrusion 303... 2 is set at the top of one end of the abutment block 303, the deflection groove 3033 is set on one side of the extrusion protrusion 3032, the anti-sliding block 3034 is connected in the deflection groove 3033, the abutment block 303 is connected to the fitting block 302 through the fitting groove 3031, and one end of the middle part of the fitting groove 3031 is connected to the fitting block 302 through a spring, and the extrusion protrusion 3032 is an arc-shaped protrusion at the top of the abutment block 303 away from the fitting block 302.

[0024] When several corrugated partition plates 3 are arranged close together, when one of the corrugated partition plates 3 is installed near the bottom of another corrugated partition plate 3, the corrugated partition plate 3 will first contact and abut against the abutment block 303 connected to the connecting block 301 by the fitting block 302. Through the inclined surface of the pressing protrusion 3032 at one end of the abutment block 303, the corrugated partition plate 3 will be pressed against the top of the pressing protrusion 3032 during the abutment installation process, thereby driving the abutment block 303 to move along the fitting block 302. This displacement of the abutment block 303 will match the gap between the corrugated partition plates 3, thereby sealing the gap between each pair of upper and lower corrugated partition plates 3. This prevents the stone from entering the connecting wall 2 through the gap between the upper and lower corrugated partition plates 3 and finally being pressed against the inner walls of both sides of the warehouse 1, causing deformation and damage to the inner walls of the warehouse 1. At the same time, the connecting block 301 can be set at the top or bottom of the corrugated partition plate 3.

[0025] Furthermore, the anti-slip block 3034 is a square block hinged to the middle of the deflection groove 3033, and the anti-slip block 3034 is an inclined triangle, with torsion springs at both ends of the hinge shaft of the anti-slip block 3034.

[0026] Finally, when the corrugated isolation plate 3 squeezes the extrusion protrusion 3032, it will simultaneously squeeze the anti-slip block 3034 in the deflection groove 3033, causing the anti-slip block 3034 to deflect to a certain extent. This allows the corrugated isolation plate 3 to squeeze through the extrusion protrusion 3032. Then, the anti-slip block 3034 will be reset and adhere to the corrugated isolation plate 3 through the torsion spring of the hinge shaft. The bent end of the anti-slip block 3034 abuts against the corrugated isolation plate 3 to form frictional resistance, making the contact connection between the corrugated isolation plate 3 and the abutment block 303 more stable.

[0027] The following is a detailed implementation process of this utility model: First, several connecting walls 2 with a certain distance between them are built in the warehouse 1. Then, several corrugated isolation plates 3 are connected by connecting rods 201 in the connecting walls 2 to form a closed wall, thereby dividing the warehouse 1 into several spaces for the classified storage of stones. When the corrugated isolation plates 3 are arranged close together, when the corrugated isolation plate 3 is installed near the bottom of another corrugated isolation plate 3, the corrugated isolation plate 3 will first contact and abut against the abutment block 303 connected to the connecting block 301 by the fitting block 302. The inclined surface of the pressing protrusion 3032 at one end of the abutment block 303 will cause the corrugated isolation plate 3 to press against the top of the pressing protrusion 3032 during the abutment installation process, thereby causing the abutment block 303 to move along the fitting block 302, so that the abutment block 303 will move to cooperate with the corrugated isolation plate. The gaps between the upper and lower corrugated partition plates 3 are sealed to prevent the stone from entering the connecting wall 2 through the gaps between the upper and lower corrugated partition plates 3 and being squeezed onto the inner walls of the warehouse 1, causing deformation and damage to the inner walls of the warehouse 1. The connecting block 301 can be set at the top or bottom of the corrugated partition plate 3. When the corrugated partition plate 3 squeezes the extrusion protrusion 3032, it will simultaneously squeeze the anti-sliding block 3034 in the deflection groove 3033, causing the anti-sliding block 3034 to deflect to a certain extent. The corrugated partition plate 3 squeezes through the extrusion protrusion 3032, and then the anti-sliding block 3034 will be reset and attached to the corrugated partition plate 3 by the torsion spring of the hinge shaft. The bent end of the anti-sliding block 3034 abuts against the corrugated partition plate 3 to form frictional resistance, making the contact connection between the corrugated partition plate 3 and the abutment block 303 more stable.

Claims

1. A structure for sealing gaps in a stone storage shed partition, comprising a storage shed (1), wherein a connecting wall (2) is provided in the middle of the storage shed (1), a connecting rod (201) is provided in the middle of the connecting wall (2), and a corrugated isolation plate (3) is connected to one side of the connecting rod (201), characterized in that, The bottom of the corrugated isolation plate (3) is provided with a connecting block (301), and one end of the connecting block (301) is provided with a fitting block (302). One end of the fitting block (302) is connected to a sealing component, and the sealing component is displaced along the fitting block (302) by the pressure of the corrugated isolation plate (3).

2. The stone silo partition gap sealing structure according to claim 1, characterized in that, The connecting wall (2) has several corrugated isolation plates (3) connected to both sides of the middle section by connecting rods (201).

3. The structure for sealing gaps in the partition of a stone silo as described in claim 1, characterized in that, The connecting block (301) is a plate material that is curved in an arc and set at the bottom of the corrugated isolation plate (3), and the fitting block (302) is a plate material with a square protrusion at the bottom of the connecting block (301).

4. The structure for sealing gaps in the partition of a stone silo as described in claim 1, characterized in that, The sealing assembly includes an abutment block (303), a fitting groove (3031), a pressing protrusion (3032), a deflection groove (3033), and an anti-slip block (3034). The abutment block (303) is connected to one end of the fitting block (302). The fitting groove (3031) is located in the middle of the abutment block (303). The pressing protrusion (3032) is located at the top of one end of the abutment block (303). The deflection groove (3033) is located on one side of the pressing protrusion (3032). The anti-slip block (3034) is connected in the deflection groove (3033).

5. The gap-sealing structure for the partition of a stone silo as described in claim 4, characterized in that, The abutment block (303) is connected to the fitting block (302) through the fitting groove (3031), and one end of the fitting groove (3031) is connected to the fitting block (302) through a spring.

6. The stone silo partition gap sealing structure according to claim 4, characterized in that, The extrusion protrusion (3032) is an arc-shaped protrusion at the top of the end of the abutment block (303) away from the interlocking block (302).

7. The stone silo partition gap sealing structure according to claim 4, characterized in that, The anti-blocking block (3034) is a block hinged to the middle of the deflection groove (3033), and the anti-blocking block (3034) is a triangle with an inclined arrangement.

8. The gap-sealing structure for the partition of a stone silo as described in claim 4, characterized in that, The anti-slip block (3034) has torsion springs at both ends of its hinge shaft.

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