Wall anti-seepage structure

Abstract

The utility model discloses a wall anti-leakage structure, and belongs to the technical field of wall construction. Comprising a base layer bottom plate, a first wall body and a second wall body, the base layer bottom plate is horizontally arranged, the first wall body is vertically embedded in the surface of the base layer bottom plate, the second wall body is vertically embedded in the surface of the base layer bottom plate, and the vertical end face of the second wall body is connected with the vertical end face of the first wall body in an embedded mode; the base layer bottom plate, the first wall body and the second wall body form a combined wall body, and a repairing groove is formed in the joint. The gap at the joint of the base layer bottom plate and the second wall body is shielded, water is prevented from entering the interior of the combined wall body through the gap, so that external water can enter the interior, and when water is accumulated inside, the side mounting blocks and the sealing layer can also prevent the water from entering the gap filling groove, so that the service life of the combined wall body is prolonged. Therefore, water is prevented from seeping to the outer side of the wall body through the gaps, and the anti-seepage capacity of the corner of the combined wall body is improved to the maximum extent.

Description

Technical Field

[0001] The utility model relates to a wall anti-leakage structure and belongs to the technical field of wall construction. Background Art

[0002] During the construction process, vertical walls and floor slabs are often not cast in one go. The secondary casting of the wall will cause a certain gap between the wall concrete and the floor slab concrete. At this time, water will leak through the gap. Therefore, a waterproof layer is usually applied on the wall surface to improve the wall's anti-leakage effect.

[0003] However, when applying the waterproof layer, the gaps at the corners formed by the two vertical walls and the floor slab cannot be fully coated, so some small gaps will appear, allowing water to pass through and cause leakage. Therefore, most walls with waterproof layers will still have leakage problems at their corners. Utility Model Content

[0004] The technical problem to be solved by the utility model is to provide a wall anti-leakage structure, which solves the problem that when the waterproof layer is applied in the prior art, the gaps at the corners formed by the two vertical walls and the floor slab cannot be painted more comprehensively, so some small gaps will be generated for water to pass through and cause leakage. Therefore, most walls with waterproof layers applied will still have leakage at their corners.

[0005] The technical problem to be solved by the utility model is achieved by adopting the following technical scheme: a wall anti-leakage structure, including a base floor, a first wall and a second wall, the base floor is horizontally arranged, the first wall is vertically embedded on the surface of the base floor, the second wall is vertically embedded in the surface of the base floor and the vertical end face is embedded and connected with the vertical end face of the first wall, the base floor, the first wall and the second wall form a combined wall and a repair groove is opened at the connection, and also includes a main mounting block, a side mounting block, a sealing layer and a splicing structure, the main mounting block is a vertically extending rectangular block arrangement, two side mounting blocks are provided and are respectively located on adjacent vertical outer sides of the main mounting block, the splicing structure is arranged between the side mounting block and the main mounting block to clamp the side mounting block and the main mounting block, the side mounting block is L-shaped and the vertical part is clamped with the main mounting block through the splicing structure, the L-shaped horizontal parts of the two side mounting blocks are respectively opened with gap filling grooves facing one side of the first wall and the second wall, and the sealing layer is fixedly arranged on the outer side of the side mounting block where the gap filling groove opening is set.

[0006] By adopting the above technical scheme, a repair groove is excavated at the contact angle of the combined wall, and then the main installation block and two side installation blocks are placed in the repair groove in sequence to fill the repair groove. At this time, the sealing layer on the side installation block is tightly fitted with the contact surface of the base floor plate and the second wall, thereby shielding the gap at the connection between the base floor plate and the second wall, preventing moisture from entering the interior of the combined wall through the gap, thereby facilitating external moisture to enter the interior, and when water accumulates inside, the side installation block and the sealing layer can also prevent water from entering the gap filling groove, thereby preventing water from seeping through the gap to the outside of the wall, thereby maximizing the anti-leakage ability of the corners of the combined wall.

[0007] The utility model is further configured as follows: the splicing structure includes a splicing groove, a splicing block, a storage cavity and an elastic member, the splicing groove is arranged on a side surface where the main mounting block contacts the side mounting block, the storage cavity is arranged on a side surface where the side mounting block contacts the main mounting block, the storage cavity is aligned with the opening of the splicing groove, the splicing block is slidably arranged in the storage cavity, the elastic member is fixedly arranged in the storage cavity and is located at one end of the splicing block away from the main mounting block, one end of the elastic member is fixedly connected to the splicing block, and one end of the splicing block away from the elastic member extends to the outside of the storage cavity and can extend into the splicing groove to connect the main mounting block and the side mounting block.

[0008] By adopting the above technical solution, the splicing block can compress the elastic part and recover it into the storage cavity after being subjected to pressure. When the main installation block is installed and the side installation block needs to be installed, the end of the splicing block is abutted against the outer side of the main installation block and the side installation block is pressed. At this time, the splicing block is pressed into the storage cavity. As the side installation block is pushed into the repair groove, the openings of the storage cavity and the splicing groove are gradually aligned. When the openings of the storage cavity and the splicing groove are aligned, the splicing block is pressed into the splicing groove under the elastic action of the elastic part, thereby completing the connection between the side installation block and the main installation block. The operation is convenient and the relative position of the side installation block and the main installation block can be kept fixed after installation.

[0009] The utility model is further configured as follows: a guide block is fixedly installed on a side of the gap filling groove away from the opening, the guide block extends in the horizontal direction of the horizontal part of the side mounting block, a collecting chamber is provided in the guide block, a plurality of guide holes are provided on the side of the guide block away from the side mounting block, which are connected with the collecting chamber and penetrate the guide block, the opening of the guide hole away from the side mounting block abuts against the connection between the base bottom plate and the second wall, an intermediate channel and a feed channel are provided in the side mounting block, one end of the intermediate channel is connected with the collecting chamber, the other end of the intermediate channel is connected with the feed channel, and the end of the feed channel away from the intermediate channel extends toward the direction of the side mounting block away from the guide block and penetrates the side mounting block.

[0010] By adopting the above technical scheme, after the main mounting block and the side mounting block are installed, waterproof material or concrete mortar is poured into the middle channel and the collecting cavity through the feed channel, and the slurry enters the collecting cavity through the feed channel and the middle channel in turn. The slurry gathered in the collecting cavity flows out through the opening of the guide hole. Since one end of the guide block with the guide hole abuts against the connection between the base bottom plate and the second wall, the slurry can be drained to the connection between the base bottom plate and the second wall, so that the slurry penetrates into the gap at the connection, thereby repairing the wall gap and improving the anti-leakage ability of the wall.

[0011] The utility model is further configured as follows: a side surface of the guide block having the guide holes is provided with a connecting groove which penetrates the guide block in a vertical direction and is located between adjacent guide holes.

[0012] By adopting the above technical solution, since the gap at the connection between the base bottom plate and the second wall is small, part of the slurry discharged from the diversion hole falls toward the base bottom plate under the action of gravity and enters the gap filling groove for storage, and accumulates and fills in the gap filling groove. As the filling height increases, the slurry gradually submerges the diversion block. At this time, the slurry can move through the connecting groove to the part of the gap filling groove away from the base bottom plate, thereby facilitating the entire gap filling groove to be immersed and filled with slurry, thereby increasing the coverage area of ​​the slurry and further ensuring the anti-leakage of the wall.

[0013] The utility model is further configured as follows: a plurality of exhaust holes communicated with the collecting chamber are provided on the end surface of the guide block located away from the base bottom plate.

[0014] By adopting the above technical solution, the exhaust hole is opened on the collecting chamber so that when the slurry is filled in the collecting chamber, the gas in the collecting chamber can be discharged through the exhaust hole, thereby avoiding the accumulation of gas in the collecting chamber to form a cavity.

[0015] The utility model is further configured as follows: a docking channel is provided at the connection between the middle channel and the feed channel, the docking channel extends at one end away from the middle channel toward the main mounting block and penetrates the side mounting block, a first filling channel is provided in the main mounting block, one end of the first filling channel is connected to the splicing groove, and the other end opening of the first filling channel is aligned with the opening of the docking channel.

[0016] By adopting the above technical solution, the slurry entering through the feed channel can be introduced into the first filling channel through the docking channel, and enter the splicing groove through the first filling channel, so that the gap between the splicing block and the splicing groove is also filled with the slurry, further improving the sealing level of the connection after the main mounting block and the side mounting block are combined, thereby preventing water from penetrating through the gap between the main mounting block and the side mounting block, and further improving the anti-leakage level of the wall.

[0017] The utility model is further configured as follows: a collecting groove is provided on the end face of the main mounting block away from the base bottom plate, an overflow groove is provided on the side of the contact surface between the main mounting block and the side mounting block away from the base bottom plate, and an inflow groove is provided between the overflow groove and the collecting groove.

[0018] The utility model is further configured as follows: an edge filling groove is provided at one side edge of the main installation block toward the first wall and the connection between the first wall in a vertical direction, and an outflow groove is provided between the edge filling groove and the collecting groove.

[0019] By adopting the above technical scheme, the slurry filled in the splicing groove is discharged through the overflow groove as the liquid level rises, and a part of the slurry discharged from the overflow groove flows into the collecting groove through the inflow groove, thereby filling the gap between the side of the main mounting block away from the base bottom plate and the inner wall of the repair groove, and part of the slurry in the collecting groove flows into the edge filling groove through the outflow groove, so that the slurry in the edge filling groove can flow into the gap between the first wall and the second wall, thereby achieving the purpose of fully filling the slurry to the edge and corner of the repair groove, which is beneficial to improve the anti-leakage performance of the wall.

[0020] The beneficial effect of the utility model is as follows: by digging a repair groove at the contact angle of the combined wall, and then sequentially placing the main installation block and the two side installation blocks into the repair groove to fill the repair groove, at this time, the sealing layer on the side installation block is tightly fitted with the contact surface of the base floor plate and the second wall, thereby shielding the gap at the connection between the base floor plate and the second wall, preventing moisture from entering the interior of the combined wall through the gap, thereby facilitating external moisture to enter the interior, and when water accumulates inside, the side installation block and the sealing layer can also prevent water from entering the gap filling groove, thereby preventing water from seeping through the gap to the outside of the wall, thereby maximizing the anti-leakage ability at the corner of the combined wall. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the structure of the utility model;

[0022] Figure 2 It is the structural explosion diagram of the utility model;

[0023] Figure 3 It is a structural cross-sectional view of the vertical plane where the feeding channel in the utility model is located;

[0024] Figure 4 It is a structural schematic diagram of the splicing structure in the utility model;

[0025] Figure 5 It is a structural schematic diagram of the main installation block and the side installation block in the utility model after installation and the combined wall;

[0026] Figure 6 The utility model is a schematic diagram of the structure of the composite wall with a repair groove.

[0027] In the figure: 10, main mounting block; 11, collecting trough; 12, overflow trough; 13, inflow trough; 14, outflow trough; 15, edge filling trough; 16, splicing trough; 17, first filling channel; 20, side mounting block; 21, gap filling trough; 22, sealing layer; 23, guide block; 24, guide hole; 25, connecting trough; 26, exhaust hole; 27, collecting chamber; 28, splicing block; 30, feeding channel; 31, middle channel; 32, docking channel; 40, storage chamber; 41, elastic member; 50, base floor; 51, first wall; 52, second wall; 53, repair trough. DETAILED DESCRIPTION

[0028] In order to make the technical means, creative features, objectives and effects of the utility model easier to understand, the following is a brief introduction Figure 1-6 Shown, the utility model is further described.

[0029] like Figure 1-4As shown, a wall anti-leakage structure includes a base bottom plate 50, a first wall 51 and a second wall 52. The base bottom plate 50 is horizontally arranged, the first wall 51 is vertically embedded in the surface of the base bottom plate 50, the second wall 52 is vertically embedded in the surface of the base bottom plate 50 and the vertical end face is embedded and connected with the vertical end face of the first wall 51. The base bottom plate 50, the first wall 51 and the second wall 52 form a combined wall and a repair groove 53 is opened at the connection, and the repair groove 53 is formed by excavation later. The inner wall of the repair groove 53 includes a base bottom plate 50, a first wall 51, and a second wall 52 after excavation and the gaps connected to each other. The wall anti-leakage structure includes a main mounting block 10, a side mounting block 20, a sealing layer 22 and a splicing structure. The main mounting block 10 is a vertically extending rectangular block. Two side mounting blocks 20 are provided and are respectively located on adjacent vertical outer sides of the main mounting block 10. The splicing structure is arranged between the side mounting block 20 and the main mounting block 10 to clamp the side mounting block 20 and the main mounting block 10. The side mounting block 20 is arranged in an L shape and the vertical part is clamped with the main mounting block 10 through the splicing structure. The L-shaped horizontal parts of the two side mounting blocks 20 are respectively opened with gap filling grooves 21 facing one side of the first wall 51 and the second wall 52. The sealing layer 22 is fixedly arranged on the outer side of the opening of the gap filling groove 21 of the side mounting block 20. The splicing structure includes a splicing groove 16, a splicing block 28, a storage cavity 40 and an elastic member 41. The splicing groove 16 is opened on a side where the main mounting block 10 contacts the side mounting block 20. The storage cavity 40 is opened on a side where the side mounting block 20 contacts the main mounting block 10. The storage cavity 40 is aligned with the opening of the splicing groove 16. The splicing block 28 is slidably arranged in the storage cavity 40. The elastic member 41 is fixedly arranged in the storage cavity 40 and is located at one end of the splicing block 28 away from the main mounting block 10. One end of the elastic member 41 is fixedly connected to the splicing block 28. One end of the splicing block 28 away from the elastic member 41 extends to the outside of the storage cavity 40 and can extend into the splicing groove 16 to connect the main mounting block 10 and the side mounting block 20.

[0030] like Figure 2-3As shown, a guide block 23 is fixedly installed on the side of the gap filling slot 21 away from the opening, and the guide block 23 extends in the horizontal direction of the horizontal part of the side mounting block 20. A collection chamber 27 is provided in the guide block 23, and a plurality of guide holes 24 are provided on the side of the guide block 23 away from the side mounting block 20, which are connected to the collection chamber 27 and penetrate the guide block 23. The opening of the guide hole 24 away from the side mounting block 20 abuts against the connection between the base bottom plate 50 and the second wall 52. An intermediate channel 31 and a feed channel 30 are provided in the side mounting block 20, one end of the intermediate channel 31 is connected to the collection chamber 27, and the other end of the intermediate channel 31 is connected to the feed channel 30. The end of the feed channel 30 away from the intermediate channel 31 extends toward the direction of the side mounting block 20 away from the guide block 23 and penetrates the side mounting block 20. A connecting groove 25 is provided on the side of the guide block 23 where the guide holes 24 are provided, which is located between adjacent guide holes 24 and penetrates the guide block 23 in the vertical direction. The end surface of the guide block 23 located away from the base bottom plate 50 is provided with a plurality of exhaust holes 26 connected to the collection chamber 27. The exhaust holes 26 are provided on the collection chamber 27 so that when the slurry is filled in the collection chamber 27, the gas in the collection chamber 27 is discharged through the exhaust holes 26, thereby preventing the gas from accumulating in the collection chamber 27 to form a cavity.

[0031] like Figure 1 and Figure 3 As shown, a docking channel 32 is provided at the connection between the middle channel 31 and the feed channel 30. The end of the docking channel 32 away from the middle channel 31 extends toward the main mounting block 10 and penetrates the side mounting block 20. A first filling channel 17 is provided in the main mounting block 10. One end of the first filling channel 17 is connected to the splicing groove 16. The other end opening of the first filling channel 17 is aligned with the opening of the docking channel 32. A collecting groove 11 is provided on the end surface of the main mounting block 10 away from the base bottom plate 50. An overflow groove 12 is provided on the side of the contact surface between the main mounting block 10 and the side mounting block 20 away from the base bottom plate 50. An inflow groove 13 is provided between the overflow groove 12 and the collecting groove 11. An edge filling groove 15 is provided at one side edge of the main mounting block 10 facing the connection between the first wall 51 and the first wall 51 in the vertical direction. An outflow groove 14 is provided between the edge filling groove 15 and the collecting groove 11.

[0032] When installing the main mounting block 10 and the side mounting block 20, the vertical and horizontal dimensions of the opening of the repair groove 53 should be slightly larger than the dimensions of the main mounting block 10 and the side mounting block 20, so that the main mounting block 10 and the side mounting block 20 can insert one end into the repair groove 53 in a tilted state, and then the other end can be placed inside the repair groove 53. When installing the main mounting block 10 and the side mounting block 20, first insert one end into the repair groove 53, so that the main mounting block 10 and the side mounting block 20 are in a tilted state and the other end is pushed in to complete the installation. The gaps where the main mounting block 10 and the side mounting block 20 are installed are backfilled with cement to fill the repair groove 53 space. After the repair groove 53 is filled, a waterproof layer is brushed on the surface. After the main mounting block 10 is installed, when installing the side mounting block 20, one end of the side mounting block 20 needs to be inserted into the repair groove 53, and then the splicing block 28 is pressed into the storage cavity 40. When the end of the splicing block 28 abuts against the surface of the main mounting block 10, the pressing can be released. At this time, the surface of the main mounting block 10 restricts the movement of the splicing block 28. After the other end of the side mounting block 20 is pushed into the repair groove 53, the sealing layer 22 is pushed to abut against the wall. At this time, the opening of the storage cavity 40 is aligned with the splicing block 28. The openings of the grooves 16 are aligned, and the end of the splicing block 28 is inserted into the splicing groove 16 to complete the connection between the main mounting block 10 and the side mounting block 20. When backfilling with cement, the main mounting block 10 and the side mounting block 20 need to be pressed relative to each other, and then fillers are placed in the hollow between the side mounting block 20 and the inner wall of the repair groove 53. The fillers can limit the movement of the main mounting block 10 and the side mounting block 20 away from each other, thereby greatly reducing the gap between the main mounting block 10 and the side mounting block 20.

[0033] A repair groove 53 is excavated at the contact angle of the combined wall, and then the main mounting block 10 and two side mounting blocks 20 are placed into the repair groove 53 in sequence to fill the repair groove 53. At this time, the sealing layer 22 on the side mounting block 20 is tightly fitted with the contact surface of the base bottom plate 50 and the second wall 52, thereby shielding the gap at the connection between the base bottom plate 50 and the second wall 52, preventing moisture from entering the interior of the combined wall through the gap, thereby facilitating external moisture to enter the interior, and when water accumulates inside, the side mounting block 20 and the sealing layer 22 can also prevent water from entering the gap filling groove 21, thereby preventing water from penetrating through the gap to the outside of the wall, thereby maximizing the anti-leakage ability at the corner of the combined wall.

[0034] After being subjected to pressure, the splicing block 28 can compress the elastic member 41 and recover it into the storage cavity 40. When the main mounting block 10 is installed and the side mounting block 20 needs to be installed, the end of the splicing block 28 is abutted against the outer side surface of the main mounting block 10 and the side mounting block 20 is pressed. At this time, the splicing block 28 is pressed into the storage cavity 40. As the side mounting block 20 is pushed into the repair groove 53, the openings of the storage cavity 40 and the splicing groove 16 are gradually aligned. When the openings of the storage cavity 40 and the splicing groove 16 are aligned, the splicing block 28 is pressed into the splicing groove 16 under the elastic action of the elastic member 41, thereby completing the connection between the side mounting block 20 and the main mounting block 10. The operation is convenient and the relative position of the side mounting block 20 and the main mounting block 10 can be kept fixed after installation.

[0035] After the main mounting block 10 and the side mounting block 20 are installed, waterproof material or concrete mortar is poured into the middle channel 31 and the collecting chamber 27 through the feed channel 30, and the slurry enters the collecting chamber 27 through the feed channel 30 and the middle channel 31 in turn. The slurry gathered in the collecting chamber 27 flows out through the opening of the guide hole 24. Since one end of the guide block 23 with the guide hole 24 abuts against the connection between the base bottom plate 50 and the second wall 52, the slurry can be drained to the connection between the base bottom plate 50 and the second wall 52, so that the slurry penetrates into the gap at the connection, thereby repairing the wall gap and improving the anti-leakage ability of the wall.

[0036] Since the gap at the connection between the base bottom plate 50 and the second wall 52 is small, part of the slurry discharged from the guide hole 24 falls toward the base bottom plate 50 under the action of gravity and is stored in the gap filling groove 21, and is accumulated and filled in the gap filling groove 21. As the filling height increases, the slurry gradually submerges the guide block 23. At this time, the slurry can move through the connecting groove 25 to the part of the gap filling groove 21 away from the base bottom plate 50, thereby facilitating the entire gap filling groove 21 to be immersed and filled with slurry, thereby increasing the coverage area of ​​the slurry and further ensuring the anti-leakage of the wall.

[0037] The slurry entering through the feed channel 30 can be introduced into the first filling channel 17 through the docking channel 32, and enter the splicing groove 16 through the first filling channel 17, so that the gap between the splicing block 28 and the splicing groove 16 is also filled with the slurry, further improving the sealing level of the connection between the main mounting block 10 and the side mounting block 20 after combination, thereby preventing water from penetrating through the gap between the main mounting block 10 and the side mounting block 20, and further improving the anti-leakage level of the wall.

[0038] The slurry filled in the splicing groove 16 is discharged through the overflow groove 12 as the liquid level rises, and a part of the slurry discharged from the overflow groove 12 flows into the collecting groove 11 through the inflow groove 13, thereby filling the gap between the side of the main mounting block 10 away from the base bottom plate 50 and the inner wall of the repair groove 53, and part of the slurry in the collecting groove 11 flows into the edge filling groove 15 through the outflow groove 14, so that the slurry in the edge filling groove 15 can flow into the gap between the first wall 51 and the second wall 52, thereby achieving the purpose of fully filling the slurry to the edge and corner of the repair groove 53, which is beneficial to improve the anti-leakage performance of the wall.

[0039] The above shows and describes the basic principles, main features and advantages of the utility model. Those skilled in the art should understand that the utility model is not limited to the above embodiments. Without departing from the spirit and scope of the utility model, the utility model may have various changes and improvements, which fall within the scope of protection claimed by the utility model. The scope of protection claimed by the utility model is defined by the attached claims and their equivalents.

Claims

1. A wall anti-leakage structure, comprising a base floor (50), a first wall (51) and a second wall (52), wherein the base floor (50) is arranged horizontally, the first wall (51) is vertically embedded on the surface of the base floor (50), the second wall (52) is vertically embedded on the surface of the base floor (50) and the vertical end surface is embedded and connected with the vertical end surface of the first wall (51), the base floor (50), the first wall (51) and the second wall (52) form a combined wall and a repair groove (53) is provided at the connection, characterized in that: The invention also comprises a main mounting block (10), a side mounting block (20), a sealing layer (22) and a splicing structure. The main mounting block (10) is arranged in a vertically extending rectangular block shape. The side mounting blocks (20) are provided with two and are respectively located on adjacent vertical outer sides of the main mounting block (10). The splicing structure is arranged between the side mounting block (20) and the main mounting block (10) to clamp the side mounting block (20) and the main mounting block (10). The side mounting block (20) is arranged in an L shape and the vertical part is clamped with the main mounting block (10) through the splicing structure. The L-shaped horizontal parts of the two side mounting blocks (20) are respectively provided with gap filling grooves (21) facing one side of the first wall (51) and the second wall (52). The sealing layer (22) is fixedly arranged on the outer side of the side mounting block (20) where the gap filling grooves (21) are opened.

2. A wall anti-leakage structure according to claim 1, characterized in that: The splicing structure comprises a splicing groove (16), a splicing block (28), a storage cavity (40) and an elastic member (41); the splicing groove (16) is arranged on a side surface of the main mounting block (10) in contact with the side mounting block (20); the storage cavity (40) is arranged on a side surface of the side mounting block (20) in contact with the main mounting block (10); the storage cavity (40) is aligned with an opening of the splicing groove (16); the splicing block (28) is slidably arranged in the storage cavity (40); the elastic member (41) is fixedly arranged in the storage cavity (40) and is located at an end of the splicing block (28) away from the main mounting block (10); one end of the elastic member (41) is fixedly connected to the splicing block (28); the end of the splicing block (28) away from the elastic member (41) extends to the outside of the storage cavity (40) and can extend into the splicing groove (16) to connect the main mounting block (10) and the side mounting block (20).

3. The wall anti-leakage structure according to claim 1, characterized in that: A guide block (23) is fixedly mounted on a side of the gap filling groove (21) away from the opening. The guide block (23) extends in the horizontal direction of the horizontal part of the side mounting block (20). A collecting chamber (27) is provided in the guide block (23). The guide block (23) is provided with a plurality of guide holes (24) which are connected to the collecting chamber (27) and penetrate the guide block (23) on the side away from the side mounting block (20). The opening of the guide hole (24) away from the side mounting block (20) is in contact with the base. The connection between the bottom plate (50) and the second wall (52) is abutted, and an intermediate channel (31) and a feed channel (30) are provided in the side mounting block (20), one end of the intermediate channel (31) is communicated with the collecting chamber (27), and the other end of the intermediate channel (31) is communicated with the feed channel (30), and one end of the feed channel (30) away from the intermediate channel (31) extends toward the direction of the side mounting block (20) away from the guide block (23) and penetrates the side mounting block (20).

4. A wall anti-leakage structure according to claim 3, characterized in that: A side surface of the guide block (23) on which the guide holes (24) are provided is provided with a connecting groove (25) between adjacent guide holes (24) and passes through the guide block (23) in a vertical direction.

5. The wall anti-leakage structure according to claim 3, characterized in that: A plurality of exhaust holes (26) communicating with the collecting chamber (27) are provided on the end surface of the guide block (23) located away from the base bottom plate (50).

6. A wall anti-leakage structure according to claim 3, characterized in that: A docking channel (32) is provided at the connection between the middle channel (31) and the feed channel (30), one end of the docking channel (32) away from the middle channel (31) extends in the direction of the main mounting block (10) and penetrates the side mounting block (20), a first filling channel (17) is provided in the main mounting block (10), one end of the first filling channel (17) is communicated with the splicing groove (16), and the other end opening of the first filling channel (17) is aligned with the opening of the docking channel (32).

7. The wall anti-leakage structure according to claim 1, characterized in that: A collecting groove (11) is provided on the end surface of the main mounting block (10) away from the base bottom plate (50), an overflow groove (12) is provided on the side of the contact surface between the main mounting block (10) and the side mounting block (20) away from the base bottom plate (50), and an inflow groove (13) is provided between the overflow groove (12) and the collecting groove (11).

8. The wall anti-leakage structure according to claim 7, characterized in that: An edge filling groove (15) is provided at one side edge of the main installation block (10) facing the first wall (51) and at the connection point of the first wall (51) in a vertical direction, and an outflow groove (14) is provided between the edge filling groove (15) and the collecting groove (11).

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