Water separation pipeline water transfer facility comprising water separation device

Abstract

The invention provides a water separation pipeline water transfer facility comprising a water separation device. The water separation pipeline water transfer facility is sequentially stacked with a bottom plate partition block on the ground of a sewer and the upper portion of the bottom plate partition block. According to various embodiments related to the vehicle collecting pipeline water transfer facility, the vehicle collecting pipeline water transfer facility uses partition blocks on the wall surfaces on the two sides of a sewer to partition gaps generated on the ground of the sewer and the wall surfaces on the two sides, and according to the embodiments, the vehicle collecting facility comprising the vehicle collecting pipeline comprises: 1, 2, a water facility supporting piece; the third supporting piece is located between one side of the first supporting piece and one side of the third supporting piece and between the other side of the second supporting piece and the other side of the third supporting piece, and the first foundation partition block and the second foundation partition block are opposite to the sewer ground in shape and are used for isolating gaps generated on the sewer ground. And the first shielding block and the second shielding block are sequentially stacked at the upper parts of the first basic partition block and the second basic partition block and are opposite to the two side wall surfaces of the inner side of the sewer pipeline in order to isolate gaps generated on the two side wall surfaces of the sewer pipeline.

Description

Technical Field

[0001] This invention relates to a water transfer facility that includes a water collection pipeline with a water pumping device. Background Technology

[0002] Generally, to treat wastewater discharged from households or businesses, sewage pipes or rainwater pipes are buried underground; sewage pipes and rainwater pipes are collectively referred to as sewer pipes. These sewage pipes are connected to multiple sewage pipes for use to divert rainwater or sewage to sewage treatment plants or rivers.

[0003] These sewage pipes are equipped with wastewater treatment plant-guided collection pipes that can purify the incoming sewage.

[0004] The aforementioned collection pipelines are primarily made of concrete, with cross-sections mostly circular, rectangular, or elliptical. If leaks occur in underground collection pipelines due to aging over time, impact cracks, or the construction of new connections, the leaking areas will be excavated and repaired directly in the area where the collection pipelines are buried.

[0005] However, the former method increases construction time and costs, and also has problems such as foundation settlement caused by excavation. Therefore, in order to solve this problem, dry maintenance is carried out without excavating the ground or removing the damaged vehicle collection pipeline.

[0006] Because of the large size of these differential collection pipelines, it is very dangerous for people to carry out maintenance work after simply using a baffle to keep a certain section of the differential collection pipeline in a dry state. Moreover, even assuming that the baffle can fully withstand the water pressure brought by a large amount of sewage inflow, the baffle is expected to be damaged due to the severe stress concentration at the location of the differential collection pipeline where the baffle is installed. Therefore, before maintaining these differential collection pipelines, a method for handling stable differential collection pipelines should be developed as soon as possible.

[0007] Traditional water collection systems use a water-blocking plate installed on the sewer to block the flow of sewage along the sewer.

[0008] However, a problem with conventional water-carrying devices in sewer systems is that if a water-carrying plate is installed on the sewer pipe, it cannot create a direct, face-to-face gap with the sewer floor and side walls. Through these gaps, large amounts of sewage flow through the water-carrying plate. In other words, with large volumes of sewage flowing into the high-velocity sewage pipes, workers need to perform connection work for extended periods, raising concerns about the potential for accidents due to the inability to cut off sewage passing through the gaps.

[0009] Therefore, in order to cut off the gap, a blocking block corresponding to the shape of the sewer floor and the walls on both sides is needed.

[0010] The prior art related to this invention is Korean Patent Registration No. 10-0886787 (publication date: March 4, 2009), which introduced the technology of "sewage culvert water pumping process and device". Summary of the Invention

[0011] The problem that the invention aims to solve

[0012] In various embodiments of the present invention, a bottom plate intercepting block facing the sewer floor and a top of the bottom plate intercepting block are stacked in sequence, while a water collection pipeline water diversion facility including a water diversion device that intercepts gaps in the sewer floor and the two walls is provided.

[0013] In various embodiments of the present invention, between the first and third support members and between the second and third support members, while pressing and fixing the first and second basic blocking blocks and the first and second blocking blocks, the first and second basic blocking blocks and the first and second blocking blocks are arranged in sequence to form the fourth and fifth support members in a support layer arrangement state. These fourth and fifth support members can serve as a water pipe device for a vehicle including the first and second basic blocks and the first and second blocking blocks.

[0014] In various embodiments of the present invention, the sixth and seventh supports are arranged perpendicular to the walls on both sides of the sewer and connected to the ground and above the walls on both sides of the sewer, thus forming fixed sixth and seventh supports. These sixth and seventh supports are used to provide water transfer facilities for the collection pipeline, including a water transfer device that shields the gaps between the walls on both sides of the sewer.

[0015] means for solving problems

[0016] Various embodiments of the present invention may include a differential water collection pipeline water transfer facility, including a differential water device, wherein the first and second supports are arranged perpendicularly to the ground of the sewage pipeline on both sides of the sewage pipeline; a third support is arranged perpendicularly between the first and second supports, connected to and fixed to the sewer floor and upper surface; a first and second basic partition blocks are located between one side of the first support and the third support and between the second support and the third support, facing the shape of the sewer floor to isolate gaps generated by the sewer floor; and a first and second shielding blocks are stacked sequentially on top of the first and second basic partition blocks to isolate gaps generated by the side walls of the sewer pipeline, facing the inner side walls of the sewer pipeline.

[0017] Various embodiments of the present invention may include a fixing member that fixes the first and second support members to the two inner walls of the sewer; and a face-to-face member that is bent at one end of the fixing member to face the sides of the first and second base partition blocks and the sides of the first and second partition blocks, and supports their sequential stacking.

[0018] Various embodiments of the present invention may include: a third support member facing the sewer floor, coupled to the first and second foundation partition blocks and one end of the first and second partition blocks, and a pillar member that sequentially supports the stacked partition blocks; a fixing part disposed on the upper part of the pillar member and facing the upper part of the sewer; and a pressure member disposed between the pillar member and the fixing part, pressurizing the pillar member and the fixing part to keep the third support member in a vertically arranged state.

[0019] According to various embodiments of the present invention, the column component may face the sides of the first and second foundation partition blocks and the sides of the first and second partition blocks to form the first and second foundation partition blocks and the support surface component supporting the first and second partition blocks.

[0020] According to various embodiments of the present invention, one end of the column and the fixing member may be configured with first and second mounting members facing the ground and the top of the drain pipe, and the other end of the column and the fixing member may be configured with first and second facing panels facing the pressure plates arranged at both ends of the pressure member.

[0021] According to various embodiments of the present invention, one end of the first and second shielding blocks forms a connecting member that engages with the connecting grooves formed on both sides of the column member, and the ends of the first and second shielding blocks can face the two walls of the sewer and form a shielding plate on the fixing plate to isolate the gaps formed on both sides of the sewer.

[0022] According to various embodiments of the present invention, a fourth support member may be included, which is perpendicular to the first support member and the third support member, faces the upper surface of the first shielding block and the upper surface of the sewer, presses down and fixes the first shielding block, and supports the first shielding blocks in a stacked state; and a fifth support member is arranged perpendicular to the second support member and the third support member, faces the upper surface of the second shielding block and the upper surface of the sewer, presses the second shielding block against it, and supports the second shielding blocks in a stacked state.

[0023] According to various embodiments of the present invention, one end of the fourth and fifth support members can be embedded in the first and second shielding blocks for connection, forming a connection fixing member to prevent the fourth and fifth support members from detaching from the first and second shielding blocks.

[0024] Various embodiments of the present invention may include: a sixth support member arranged perpendicular to one side wall of the sewer, connected and fixed to the ground and upper surface of the side wall of the sewer to isolate gaps created by the side wall of the sewer, combined with the first basic partition block and the first partition block, and supporting the partition blocks stacked sequentially; and a seventh support member arranged perpendicular to the other wall of the sewer pipe, connected and fixed to the ground and upper surface of the other wall of the sewer pipe to isolate gaps created by the other wall of the sewer pipe, combined with the first basic partition block and the first partition block, and supporting the partition blocks stacked sequentially.

[0025] According to various embodiments of the present invention, a water differential method for a water differential pipeline transfer facility, including a water differential device, may include: (a) a process of vertically arranging first and second support members on both sides of the sewage pipeline via the water differential pipeline; (b) a process of vertically placing a third support member between the first and second support members; (c) a process of arranging a first base partition block facing the shape of the sewer floor between one side of the first support member and the third support member, and arranging a second base partition block facing the shape of the sewer floor between the tiled sides of the second and third support members, thereby isolating the gaps generated in the sewer floor; and (d) a process of sequentially stacking the first and second partition blocks on top of the first and second base partition blocks, thereby isolating the gaps generated in the sewer floor between the first and second base partition blocks and ...;

[0026] Invention Effects

[0027] According to various embodiments of the present invention, first and second basic partition blocks corresponding to the shape of the sewer floor are arranged between the first, second and third support members, and are stacked sequentially on the upper part of the first and second basic partition blocks, thus forming first and second partition blocks corresponding to the side walls of the sewer. These first and second basic partition blocks and the first and second partition blocks can not only improve the gap between the sewer pipes and the ground, but also improve the maintenance of the sewer, thereby further increasing the number of vehicles and the number of vehicle operations in the collection pipeline.

[0028] In addition, the first and second basic partition blocks and the first and second partition blocks are pressed and fixed between the first and third support members and between the second and third support members, and at the same time form the fourth and fifth support members that support the first and second basic partition blocks and the first and second partition blocks in a stacked state. These fourth and fifth support members can not only further improve the fixation and support of the first and second basic partition blocks and the first and second partition blocks, but also further improve the maintenance of the sewer pipes.

[0029] Furthermore, by vertically arranging the sixth and seventh support components on both sides of the sewer and connecting them to the ground and above the walls on both sides of the sewer, these sixth and seventh support components not only further improve the shielding of gaps in the walls on both sides of the sewer, but also further improve the support of the first and second base blocks and the first and second blocks stacked on the third support component, thereby further improving the maintenance of the sewer and thus improving the shielding of the sewer. Attached Figure Description

[0030] Figure 1 This is a cross-sectional view of a vehicle-to-water transfer facility, including a differential water device, according to various embodiments of the present invention.

[0031] Figure 2 This is a perspective view of a water transfer facility, including a differential water device, installed on a vehicle-to-water pipeline according to various embodiments of the present invention.

[0032] Figure 3 This is an exploded schematic diagram illustrating the composition of a vehicle-to-water pipeline system, including a differential device, according to various embodiments of the present invention.

[0033] Figure 4 yes Figure 3 An enlarged exploded oblique view of part A.

[0034] Figure 5 It is a perspective view reflecting the usage status of the vehicle-to-water system, including the differential device, according to various embodiments of the present invention.

[0035] Figure 6 This is a front view reflecting the usage status of a vehicle-to-water system, including a differential device, according to various embodiments of the present invention.

[0036] Figure 7 It is a plan view reflecting the usage status of the vehicle-to-water pipeline system, including the differential device, according to various embodiments of the present invention.

[0037] Figure 8 This is an exploded schematic diagram of the composition of a difference pipeline water transfer facility, including a difference device, according to various other embodiments of the present invention.

[0038] Figure 9 It is a perspective view reflecting the combined state of the difference pipeline water transfer facility, including the difference device according to other various embodiments of the present invention.

[0039] Figure 10 This is a front view reflecting the usage status of a vehicle-to-water system, including a differential device, according to various other embodiments of the present invention.

[0040] Figure 11 It is a perspective view that reflects the combined state of the differential water transfer system, including the differential water device of another different embodiment of the present invention.

[0041] Figure 12 This is a front view reflecting the usage status of a vehicle-to-water system including a differential device, according to another different embodiment of the present invention.

[0042] Explanation of reference numerals in the attached figures

[0043] 100: Waterproofing device for Tea House Road;

[0044] 110, 120: First and second support components;

[0045] 130: Third support component;

[0046] 200, 210: Fourth and fifth support components;

[0047] 300, 310: Sixth and seventh support components;

[0048] 140, 150: First and second basic shielding blocks;

[0049] 160, 170: First and second shielding blocks;

[0050] 111, 121: Fasteners;

[0051] 112, 122: Face-to-face components;

[0052] 131: Column component;

[0053] 132: Fastener;

[0054] 133: Pressure component;

[0055] 131a, 132a: First and second installation components;

[0056] 131b, 132b: First and second face panels;

[0057] 161, 171: Connecting parts;

[0058] 162, 172; shielding plate on the board;

[0059] 1: Sewer. Detailed Implementation

[0060] This invention can be modified in many ways and has many embodiments, some of which are described in detail with reference to the drawings. However, this is not intended to limit the invention to a specific implementation, but should be understood to include all modifications, equivalents, or substitutions within the scope of the inventive concept and technology.

[0061] Ordinal terms, such as "first," "second," etc., may be used to describe various components, but the components are not limited by the terms. The terms are used only to distinguish one component from another. For example, without departing from the scope of this invention, the first component may be named the second component, and similarly, the second component may be named the first component. The term "and / or" includes a combination of or any one of a plurality of related descriptions.

[0062] Furthermore, relative terms describing information based on what is shown in the graphics, such as "before," "after," "up," and "down," can be replaced by ordinal numbers such as "first" and "second." The order of ordinal numbers such as "first" and "second" can be either the order mentioned or arbitrarily determined and can be changed as needed.

[0063] The terminology used in this invention is for illustrative purposes only and is not intended to limit the invention. Singular expressions include plural expressions unless the context clearly distinguishes them. In this invention, terms such as “comprising” or “owning” should be understood to specify the presence of the features, numbers, steps, actions, components, parts, or combinations thereof listed in the list, without excluding the possibility of the presence or addition of one or more other features or numbers, steps, actions, components, parts, or combinations thereof.

[0064] Unless otherwise defined, all terms used herein, including technical or scientific terms, shall have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. Terms as defined in commonly used dictionaries shall be interpreted as having the same meaning in the context of the relevant art and shall not be construed as having an ideal or overly formal meaning unless explicitly defined herein.

[0065] The system includes differential pipe water transfer facilities according to various embodiments of the present invention, which are sequentially stacked on top of first and second basic partition blocks 140 and 150 corresponding to the shape of the ground 1a of the sewer 1, and first and second partition blocks 170 corresponding to the side walls 1c of the sewer 1, forming the partition 1 between the side partitions 1 of the sewer pipe 1 and the gap 1 between the partitions 1 of the sewer 1. It can be one or more combinations of various devices to further improve the sewer's interception capacity.

[0066] Figure 1 This is a side cross-sectional view of a water transfer facility, including a differential water device, installed on a vehicle-to-water pipeline according to various embodiments of the present invention. Figure 2 This is a perspective view of a water transfer facility, including a differential water device, installed on a vehicle-to-water pipeline according to various embodiments of the present invention. Figure 3This is an exploded perspective view of the composition of a water collection pipeline system including a differential water supply device, according to various embodiments of the present invention. Figure 4 3 is a perspective view of part A according to the present invention, and 5 is a case of a differential water treatment facility used in a different embodiment of the present invention, and a differential water treatment device used. Figure 6 This is a front view reflecting the usage status of a vehicle-to-water system, including a differential device, according to various embodiments of the present invention. Figure 7 This is a plan view reflecting the operational status of the vehicle-to-water system, including the differential water supply device, according to different embodiments of the present invention. Figure 8 This is an exploded schematic diagram illustrating the composition of a vehicle-to-water system, including a differential water system, according to other different embodiments of the present invention. Figure 9 This is a perspective view illustrating other different embodiments of the present invention, including the combined state of the vehicle-to-water system, including the differential water supply device. Figure 10 The different embodiments and implementations of the present invention, using different manifold water transfer facilities, refer to different implementation situations. This is a perspective view showing the combined state of the manifold water transfer facilities, including the differential water device in the example. Figure 12 This is a front view reflecting the usage status of a vehicle-to-water system, including a differential water supply device, according to another different embodiment of the present invention.

[0067] like Figures 1 to 7 As shown, for the maintenance work of the vehicle collection pipeline in one embodiment of the present invention, the vehicle collection pipeline water transfer facility through the above terrain is as follows: Figure 1 As shown, a water supply device 100 is installed in a portion of the manifold to block the flow of sewer water, and a distance is maintained between the water supply device 100 and the manifold, providing a non-flowing section of sewer water in the manifold. The manifold 82 is inserted into an upstream bypass pipe 82, above the section 100. After insertion, the bypass pipe 82 is configured to bypass the non-flowing section of sewer water, and a pump 81 installed on the bypass pipe 82 is driven to bypass the ground and supply sewer water to the upstream manifold in the area where the water supply device 100 is installed.

[0068] Among them, the detour pipe 82 arranged above ground is arranged adjacent to multiple detour pipes 82. Multiple detour pipes 82 are connected to the Hopper component 83 installed in the manhole. When connecting the connecting pipe component 89 of the Hopper component 83 and the detour pipe 82, the fixed part 132 material 84 is installed to constrain the detour pipe 82 made of synthetic resin to the connecting pipe component 89 made of metal.

[0069] As mentioned above, Figures 2 to 4As shown, the water collection device 100 for the vehicle-mounted pipeline may include first and second support members 110 and 120, a third support member 110 and 120, first and second base partition blocks 140 and 150, and first and second partition blocks 160 and 170. For example, the first support member 110 may be arranged perpendicular to the floor 1a of the sewer 1 on one side wall 1c inside the sewer 1, and the second support member 120 may be arranged perpendicular to the floor 1a of the sewer 1 on the other side wall 1c opposite the inner side of the sewer 1.

[0070] The first and second support members 110 and 120 may include fixing members 111 and 121 and face-to-face members 112 and 122. The fixing members 111 and 121 can be fixed face-to-face with the inner double wall surface 1c of the sewer 1. At this time, the fixing members 111 and 121 can be fixed to the inner double wall surface 1c of the sewer 1 by multiple fixing plugs (not shown).

[0071] The face-to-face components 112 and 122 can be bent at one end of the fixing components 111 and 121. For example, the face-to-face components 112 and 122 can support simultaneous and sequential stacking of the sides of the first and second basic shielding blocks 140 and 150 and the sides of the first and second shielding blocks 160 and 170, facing each other. That is, the face-to-face components 112 and 122 can face each other with the sides of the first and second basic shielding blocks 140 and 150 along their length. In this state, the first and second partition blocks 160 and 170 are sequentially stacked on top of the first and second basic partition blocks 140 and 150, while the sides of the first and second partition blocks 160 and 170 face the face-to-face components 112 and 122 along their length, thus providing simultaneous support.

[0072] The third support member 130 can be placed vertically between the first and second support members 110 and 120. For example, the third support member 130 can be connected to the ground 1a and the top 1b of the sewer 1, and fixed to support the first and second basic partition blocks 140 and 150 and the first and second partition blocks 160 and 170.

[0073] The first basic partition block 140 can be placed between one side of the first support member 110 and the third support member 130. For example, the first basic partition block 140 can face the shape of the floor 1a of the sewer 1 to block the gaps created on the floor 1a of the sewer 1.

[0074] The second basic partition block 150 can be placed between the second support member 120 and the third support member 130. For example, the second basic partition block 150 can be face-to-face with the shape of the floor 1a of the sewer 1 to block gaps created on the floor 1a of the sewer 1.

[0075] For example, the shapes of the first and second basic shielding blocks 140 and 150 can correspond to the shape of the ground 1a of the sewer 1. That is, if the ground 1a of the sewer 1 is curved, then the shapes of the first and second basic intercepting blocks 140 and 150 can also be curved. The curved shapes of the first and second basic shielding blocks 140 and 150 can face each other with the curved ground 1a of the sewer 1. Therefore, these curved first and second basic intercepting blocks 140 and 150 can intercept sewage flowing through the gaps created on the ground 1a of the sewage pipe 1.

[0076] The geometry of the first and second basic blocks 140 and 150 is illustrated using only curved geometry as an example, but is not limited to this. That is to say, if the shape of the first and second basic partition blocks 140 and 150 corresponds to the shape of the ground 1a of the sewer 1, various shapes can be applied.

[0077] As previously described, the third support member 130 may include a column member 131, a fixing member 132, and a pressure member 133, such as Figure 5 As shown. For example, the column component 131 faces the ground 1a of the sewer 1 and is connected to one end of the first and second foundation partition blocks 140, 150 and the first and second foundation partition blocks 160, 170, and can support the stacking of the first and second foundation partition blocks 140, 150 and the first and second foundation partition blocks 160, 170 in sequence.

[0078] For example, the column component 131 can face the sides of the first and second foundation partition blocks 140 and 150, as well as the sides of the first and second foundation partition blocks 160 and 170, forming a support surface component 190 that supports the first and second foundation partition blocks 140 and 150 and the first and second foundation partition blocks 160 and 170. For example, the support surface component 190 can face the sides of the first and second foundation partition blocks 140 and 150, as well as the sides of the first and second foundation partition blocks 160 and 170, while also supporting layered arrangement.

[0079] The fixing member 132 can be placed on the upper part of the column member 131 and face the upper surface 1b of the sewer 1 to support the pneumatic member.

[0080] For example, one end of the column component 131 can be placed on the ground 1a of the sewer 1 and a first mounting component 131a can be placed thereat the same time, and one end of the column component 131 can be placed on a first facing panel 131b opposite to the pressure plate placed at one end of the pressure component 133.

[0081] At one end of the fixing member 132, a second mounting member 132a can be placed on the upper surface 1b of the sewer 1 and simultaneously installed. At one end of the fixing member 132, a second facing panel 132b can be placed opposite the pressure plate installed at the striking end of the pressure member.

[0082] The pressure-applying member 133 can be arranged between the column member 131 and the fixing member 132. For example, the pressure-applying member can apply pressure to the column member 131 and the fixing member 132 to keep the third support member 130 in a vertical arrangement.

[0083] For example, the pressure member 133 may be composed of a screw jack, which may correspond to the first facing panel 131b placed at the striking end of the support member 131, the first facing panel 133a placed at the striking end of the fixing part 132, and the second facing panel 133b placed at the corresponding fixing part 132b. It may also correspond to the first facing panel, the second facing panel 133b, and the second nut member 133b, and be installed in the first direction in opposite directions. The first, third ...

[0084] In this state, if the operator rotates the bolt component 133c, the gap between the first and second nut components 133a and 133b will increase, as will the gap between the base plate and the pressure plate. Simultaneously, the base plate and the pressure plate can press down on the first and second facing panels 131b and 132b. The pressurized first facing panel 131b can pressurize and fix the column component 131 to the ground 1a of the sewer 1, and the pressurized second facing panel 132b can pressurize and fix the fastener 132 to the upper surface 1b of the sewer 1. Therefore, these support components 131 and the fasteners 132 can maintain the vertical arrangement of the third support component 130.

[0085] As mentioned above Figure 6 and Figure 7As shown, the first and second shielding blocks 160 and 170 are stacked sequentially on top of the first and second basic shielding blocks 140 and 150 to shield the gaps generated on the two inner walls 1c of the sewer 1. For example, the first isolation block 160 is stacked sequentially on top of the first isolation block 140, and can face one inner wall 1c of the sewer 1. The second isolation block 170 is stacked sequentially on top of the second isolation block 150, and can also face the other inner wall 1c of the sewer 1.

[0086] For example, at one end of the first and second shielding blocks 160 and 170, connecting parts 161 and 171 can be formed that fit into the connecting grooves 180 formed on both sides of the pillar 131. For example, the connecting parts 161 and 171 formed at one end of the first shielding block can be clamped into the connecting groove 180 formed on one side of the pillar 131 for connection, and the connecting parts 161 and 171 formed at one end of the second shielding block can be clamped into the other connecting groove 180 formed on both sides of the pillar 131 for connection.

[0087] In order to shield the gaps generated on the side walls 1c of the sewer 1 at the striking ends of the first and second shielding blocks 160 and 170, shielding plates 162 and 172 on the shielding plate may be formed when facing the side walls 1c of the sewer 1.

[0088] For example, the first and second shielding blocks 160 and 170 are stacked on top of the first and second shielding blocks 140 and 150 in sequence. The shielding plates 162 and 172 on the plates formed by the striking ends of the first and second shielding blocks 160 and 170 face the double wall surface 1c of the sewer 1 and can block the gap at the same time.

[0089] Therefore, the partitions 162 and 172 on the plate can prevent sewage from flowing in through the gap.

[0090] According to various embodiments of the present invention, a differential method using the differential device 100 for a differential pipeline is observed as follows.

[0091] First, on the inner two walls 1c of the sewer 1, the first and second support members 110 and 120 can be arranged perpendicular to the ground 1a of the sewer 1.

[0092] In this state, a third support member 130 can be placed vertically between the first and second support members 110 and 120.

[0093] Secondly, between one side of the first support member 110 and the third support member 130, the first basic partition block 140 can be arranged face-to-face with the shape of the ground 1a of the sewer 1, and between the tile side of the second support member 120 and the third support member 130, the second basic partition block 150 can be arranged face-to-face with the shape of the ground 1a of the sewer 1.

[0094] Therefore, the first and second basic partition blocks 140 and 150 arranged in this way can block the gaps generated by the ground 1a of the sewer 1.

[0095] First partition blocks 160 are stacked sequentially on top of the first basic partition block 140. At the same time, partition plates 162 and 172 formed on the plate by the striking end of the first partition block 160 can be placed face to face with the inner side wall 1c of the sewer 1.

[0096] The second partition block 170 is stacked on top of the second basic partition block 150, and the partition plates 162 and 172 formed on the plate by the striking end of the second partition block 170 can be placed face to face with the wall 1c on the other side of the sewer 1.

[0097] Therefore, when the first and second shielding blocks 160 and 170 are stacked in sequence, they can not only shield the sewage pipe, but also shield the gaps generated on the two side walls 1c of the sewage pipe 1.

[0098] Similarly, the first and second basic partition blocks 140 and 150 and the first and second partition blocks 160 and 170 can isolate the gaps formed between the ground 1a of the sewer 1 and the side walls 1c of the sewer 1, thereby further improving the isolation of the sewer 1.

[0099] Reference Figures 8 to 10 According to other embodiments of the present invention, the water collection pipeline water transfer facility may include first and second support members 110 and 120, third support member 130, first and second basic partition blocks 140 and 150, first and second partition blocks 160 and 170, and fourth and fifth support members 200 and 210.

[0100] Among them, the first and second support members 110 and 120, the third support member 130, the first and second basic shielding blocks 140 and 150, and the first and second shielding blocks 160 and 170 will be connected through the... Figures 1 to 7 Specific details are omitted.

[0101] The fourth support member 200 can be placed vertically between the first support member 110 and the third support member 130. For example, the fourth support member 200 can face the upper surface of the first shielding block 160 and the upper surface 1b of the sewer 1, press down on the first shielding block 160 to fix it, and at the same time support the first shielding blocks 160 stacked in sequence.

[0102] One end of the fourth support member 200 can be embedded in the first shielding block 160 for connection, and at the same time, it can form a connecting fastener 200a to prevent the fourth support member 200 from detaching from the first shielding block 160.

[0103] The fourth support member 200 may include a column member 201, a fixing member 202, and a pressure member 203. For example, since one end of the column member 201 forms a connecting fixing member 200a, the connecting fixing member 200a can be embedded in the first shielding block 160 for connection, while preventing the fourth support member 200 from detaching from the first shielding block 160. In addition, the connecting fixing member 200a can support the fourth support member 200 in the state of being connected to the first shielding block 160.

[0104] The fixing member 202 can be placed on the upper part of the column member 201. For example, the fixing member 202 can face the upper surface 1b of the sewer 1 to support the motorized component 201.

[0105] For example, one end of the column member 201 can form the connecting fastener 200a connected to the first shielding block 160, and one end of the column member 201 can face the panel 201a corresponding to the pressure plate at one end of the pressure member 203.

[0106] At one end of the fixing member 202, a second mounting member 202a can be placed on the upper surface 1b of the sewer 1 and simultaneously installed. At one end of the fixing member 202, a facing panel 202b opposite to the pressure plate of the pressure member's striking end can be placed.

[0107] The pressure-applying member 203 can be arranged between the column member 201 and the fixing member 202. For example, the pressure-applying member 203 can apply pressure to the column member 201 and the fixing member 202 to keep the fourth support member 200 in a vertical arrangement.

[0108] For example, the pressure member 203 may be composed of a screw jack, which may be composed of a bolt member 203c that adjusts the gap between nut members and the facing panel 201a placed on the striking end of the column member 201.

[0109] In this state, if the operator rotates the bolt component 203c in a specific direction, the gap between the first and second nut components 203a and 203b will increase, and the gap between the base plate and the pressure plate will widen. Simultaneously, the base plate and the pressure plate can apply pressure to the respective panel 201a and 202b. The panel facing 201a of the pressure column component can pressurize and fix the first stop block 160, and the panel facing 202b of the pressure fixing part (202) can pressurize and fix the fixing part 202 to the upper part 1b of the sewer 1. Therefore, these support components 201 and the fixing parts 202 can maintain the vertical arrangement of the fourth support component 200.

[0110] The fifth support member 210 can be placed vertically between the second support member 120 and the third support member 130. For example, the fifth support member 210 can face the upper surface of the second shielding block 170 and the upper surface 1b of the sewer 1, press down on the second shielding block 170 to fix it, and at the same time support the second shielding blocks 170 stacked in sequence.

[0111] One end of the fifth support member 210 can be embedded into the second shielding block 170 for connection, and at the same time form a connecting fastener 210a to prevent it from detaching from the second shielding block 170.

[0112] The fifth support member 210 may include a column member 211, a fixing member 212, and a pressure member 213. For example, one end of the column member 211 forms a connecting fixing portion 210a, so that the connecting fixing portion 210a can be embedded into the second shielding block 170 for connection, while preventing it from detaching from the second shielding block 170. In addition, the connecting fixing portion 210a can support the state in which the fifth support member 210 is connected to the second shielding block 170.

[0113] The fixing member 212 can be placed on the upper part of the column member 211 and face the upper surface 1b of the sewer 1 to support the pneumatic member 211.

[0114] For example, one end of the column 211 can form the connecting fastener 210a that is clamped onto the second shielding block 170, and one end of the column 211 can be placed with a facing panel 211a corresponding to the pressure plate placed at one end of the pressure member 213.

[0115] At one end of the fixing member 212, a second mounting member 212a can be placed on the upper surface 1b of the sewer 1 and simultaneously mounted thereon. At one end of the fixing member 212, a facing panel 212b opposite to the pressure plate mounted on the striking end of the pressure member can be placed.

[0116] The pressure-applying member 213 may be arranged between the column member 211 and the fixing member 212. For example, the pressure-applying member 213 may apply pressure to the column member 211 and the fixing member 212 to keep the fifth support member 210 in a vertical arrangement.

[0117] For example, the pressure member 213 may be composed of a screw jack, which may correspond to the facing panel 211a placed on the striking end of the column member 211, to the first nut member 213a placed on the striking end of the fixing member 212, and to the second nut member 213b placed on the corresponding fixing member 212. The screw jack may also correspond to the bolt and the second nut 213b, and be installed in opposite directions to the bolt and the second nut 213b. It may also be composed of a bolt member 213c that adjusts the gap between the first and second nut members.

[0118] In this state, if the operator rotates the bolt component 213c in a specific direction, the gap between the first and second nut components 213a and 213b will increase, and the gap between the base plate and the pressure plate will widen. Simultaneously, the base plate and the pressure plate can apply pressure to their respective facing panels 211a and 212b. The facing panel 211a of the pressure column component 211 can pressurize and fix the second shielding block 170, and the facing panel 212b of the pressure fixing part 212 can pressurize and fix the fixing part 212 to the upper part 1b of the sewer 1. Therefore, these support components 211 and fixing parts 212 can maintain the vertical arrangement of the fifth support component 210.

[0119] Similarly, between the first and third support members 110 and 130 and between the second and third support members 120 and 130, the first and second shielding blocks 160 and 170 are pressed down and fixed, while forming the fourth and fifth support members 200 and 210 to support the first and second shielding blocks 160 and 170 in a stacked state. These fourth and fifth support members 200 and 210 can further improve the fixation and secureness of the first, second, and third support blocks 160 and 170.

[0120] Reference Figures 11 to 12 According to another embodiment of the present invention, the water collection pipeline water transfer facility may include a third support 130, first and second foundation partition blocks 140 and 150, first and second partition blocks 160 and 170, fourth and fifth support members 200 and 210, and sixth and seventh support members 300 and 310.

[0121] Among them, the third support member 130, the first and second basic partition blocks 140 and 150, the first and second partition blocks 160 and 170, and the fourth and fifth support members 200 and 210 will be connected by the aforementioned Figures 1 to 10 Specific details are omitted.

[0122] The sixth support member 300 can be placed perpendicular to the inner side wall 1c of the sewer 1 and the ground 1a of the sewer 1. For example, the sixth support member 300 can be connected to and fixed to the ground 1a and the upper 1b of the inner side wall of the sewer 1.

[0123] For example, the sixth support member 300 can be combined with the first basic partition block 140 and the first partition block 160 to support the partition blocks in sequence, so as to block the gap on one side wall of the drain pipe.

[0124] The seventh support member 310 can be arranged perpendicularly to the ground 1a of the sewer 1 on the opposite wall 1c on the inner side of the sewer 1. For example, the seventh support member 310 can be fixed simultaneously with the ground 1a and the top 1b of the other wall of the sewer 1.

[0125] For example, the seventh support member 310 can be combined with the second basic partition block 150 and the second partition block 170 to support the partition blocks in sequence, thereby blocking the gap on the outer wall of the drain pipe 1.

[0126] The 6th and 7th support members 300 and 310 may include column members 301 and 311, fixing members 302 and 312, and pressure members 303 and 313. For example, the column members 301 and 311 face the ground 1a of the walls on both sides of the sewer 1, and are connected to one end of the first and second basic partition blocks 140 and 150 and the first and second partition blocks 160 and 170, and can support the first and second basic partition blocks 140 and 150 and the first and second partition blocks 160 and 170 in sequence.

[0127] For example, one end of the first and second basic partition blocks 140, 150 and the first and second basic partition blocks 160, 170 are stacked sequentially while being combined with the sixth and seventh support members 300, 310. The striking ends of the first and second basic partition blocks 140, 150 and the first and second partition blocks 160, 170 can also be stacked sequentially while being combined with both ends of the third support member 130.

[0128] The fixing members 302 and 312 can be placed on the upper part of the column members 301 and 311 and face each other with the upper surfaces 1b on both sides of the sewer 1 to support the pneumatic members 301 and 311.

[0129] For example, one end of the column components 301 and 311 can be placed with the first installation components 301a and 311a, which are placed face to face with the ground 1a on both sides of the sewer 1. One end of the column components 301 and 311 can be placed with one end of the pressurizing components 303 and 311b facing the panel 301b and 311b.

[0130] One end of the fixing member 302, 312 can be placed on the upper surface 1b on both sides of the sewer 1. At the same time, the second fixing member 302, 312 is placed on the fixing member 302a, 312a. The striking end of the fixing member 302, 312 can be placed on the facing panel 302b, 312b opposite to the pressure plate on the striking end of the pressure member.

[0131] The pressure-applying components 303 and 313 can be arranged between the column components 301 and 311 and the fixing components 302 and 312. For example, the pressure-applying components 303 and 313 can apply pressure to the column components 301 and 311 and the fixing components 302 and 312 to keep the 6th and 7th support components 300 and 310 in a vertical arrangement.

[0132] The pressure components 303 and 313 can be composed of screw jacks. The screw jacks can be connected to the first nut components 303a and 313a placed on the face-to-face panels 301b and 311b of the support components 301 and 311, and the second nut component, third nut component, third nut component, 303b, and 313b placed on the face-to-face panels 302, 303b, 3031, 313, and 303a of the fixing parts 302 and 312. The screw jacks are composed of bolt components 302c and 312c. The screw jacks can be installed as lever components, rotated in the opposite direction, and adjusted to adjust the gap between the first and second nut components.

[0133] The specific details of the operation of the pressurizing components 303 and 313 will be omitted here, as they are described in detail through the pressurizing component 133 of the third support component 130 and the pressurizing components 203 and 213 of the fourth and fifth support components 200 and 210.

[0134] In this way, by combining the sixth and seventh support members 300 and 310, which are formed by the face-to-face interaction between the two side walls of the sewer 1 and one end of the first and second foundation partition blocks, the isolation of the gaps created on both side walls of the sewer 1 can be further improved. Furthermore, the arrangement of the second and second foundation partition blocks, which are sequentially arranged on the third foundation, can be further improved, thereby enhancing the arrangement of the second foundation partition blocks. For furnace maintenance, the cutting off of the sewer pipes can be further improved.

[0135] The vehicle-to-water transfer system, including the differential device of various embodiments of the present invention, described above is not limited to the foregoing embodiments and drawings. Various substitutions, modifications and alterations can be made within the technical scope of the present invention, which will be obvious to those skilled in the art to which the present invention pertains.

Claims

1. A water transfer facility for a water-proof pipeline including a water-proof device, wherein, The water-transfer pipeline system including the water-sealing device includes: A first support member and a second support member are arranged perpendicularly to the ground of the sewer on both sides of the sewer wall. A third support member is arranged perpendicularly between the first and second support members, connected to and fixed to the ground and upper surface of the sewer. Located between one side of the first support member and the third support member, and between the other side of the second support member and the third support member, to isolate the gap created by the sewer floor, a first base partition block and a second base partition block facing the shape of the sewer floor; and To isolate the gaps created on both sides of the sewage pipe, the first shielding block and the second shielding block are stacked on top of the first base partition block and the second base partition block, facing each other to the inner sides of the sewage pipe.

2. The water-transfer pipeline including a water-sealing device as described in claim 1, wherein, The water-transfer pipeline system including the water-sealing device includes: The first and second support members face the two inner walls of the sewer and are fixed in place; and One end of the fixing member is bent to face the side of the first base partition block and the second base partition block, and the side of the first partition block and the second partition block, and supports the face-to-face members stacked in sequence.

3. The water-transfer pipeline including a water-sealing device as described in claim 1, wherein, The third support component includes: The support structure is positioned facing the sewer floor, connected to one end of the first base partition block, the second base partition block, and the first and second partition blocks, and sequentially supports the stacked partition blocks. A fixing part arranged on the upper part of the column, facing the upper part of the sewer; and A pressure member is arranged between the column and the fixing member to pressurize the column and the fixing member, thereby keeping the third support member in a vertical arrangement.

4. The water-transfer pipeline including a water-sealing device as described in claim 3, wherein, The column component is formed facing the sides of the first base partition block and the second base partition block, and the sides of the first partition block and the second partition block, to form a support surface component that supports the first base partition block, the second base partition block, and the first partition block and the second partition block.

5. The water-transfer pipeline including a water-sealing device according to claim 3, wherein, One end of the column and the fixing member will face the ground and upper surface of the sewer, and the first and second mounting members will be placed thereon. The tower end of the column component and the fixing member includes first and second face-to-face plates arranged face-to-face with the pressure plates arranged at both ends of the pressure component.

6. The water-transfer pipeline including a water-sealing device according to claim 3, wherein, One end of the first shielding block and the second shielding block forms a connecting member that engages with the connecting grooves formed on both sides of the column member. At the tower ends of the first and second shielding blocks, in order to isolate the gaps generated by the two walls of the sewer, shielding plates will be formed on the fixed plates facing the two walls of the sewer.

7. The water-transfer pipeline including a water-sealing device according to claim 1, wherein, The water-transfer pipeline system including the water-sealing device includes: A fourth support member, perpendicular to the first and third support members, facing the upper surface of the first shielding block and the upper surface of the drain pipe, presses down and fixes the first shielding block, and supports the first shielding blocks in a stacked state; and A fifth support is arranged perpendicularly between the second and third support members, pressing the second shielding block face-to-face with the upper surface of the second shielding block and the upper surface of the drain pipe, and supporting the second shielding blocks in a stacked state.

8. The water-transfer pipeline including a water-sealing device according to claim 1, wherein, A portion of the fourth and fifth support members are sandwiched between the first and second shielding blocks and combined to form a fixing part that prevents the fourth and fifth support members from detaching from the first and second shielding blocks.

9. The water-transfer pipeline including a water-sealing device according to claim 1, wherein, The water-transfer pipeline system including the water-sealing device includes: Arranged perpendicular to one side wall of the drain pipe, to isolate gaps created by the drain pipe's side wall, it connects to and is fixed to the ground and upper surfaces of the drain pipe's side wall, combines with the first base partition block and the first partition block, and sequentially supports the stacked partition blocks as a sixth support member; and Arranged perpendicular to the other wall of the drain pipe, in order to isolate the gaps created by the other wall of the drain pipe, it is connected and fixed to the ground and the top of the other wall of the drain pipe, combined with the first basic partition block and the first partition block, and sequentially supports the stacked partition blocks as a seventh support member.

10. A method for isolating a water-transferring pipeline system including an isolating device, wherein, The water-proofing method includes: (a) The process of vertically arranging the first support and the second support on both sides of the sewer via a differential pipe; (b) The process of vertically placing a third support between the first support and the second support; (c) The process of arranging a first base partition block facing the shape of the sewer floor between one side of the first support member and the third support member, and arranging a second base partition block facing the shape of the sewer floor between the tiled sides of the second support member and the third support member, thereby blocking the gap created in the sewer floor; and (d) The process of stacking the first partition block and the second partition block on top of the first basic partition block and the second basic partition block, and isolating the gaps generated by the two sides of the sewer from each other.

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