Fabricated embankment structure
Through the prefabricated embankment design of reinforced concrete frame structure, the use of symmetrical prefabricated block splicing and transverse steel pipe connections, the problems of low construction efficiency and poor flush resistance of traditional embankment are solved, and an efficient and stable embankment structure is achieved.
Patent Information
- Application Number
- CN202422024668.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-08-21
- Publication Date
- 2025-07-18
- Estimated Expiration
- 2034-08-21
AI Technical Summary
Traditional embankments have low construction efficiency and are susceptible to water flow to cause structural instability and poor anti-brushing properties.
The bottom upright prefabricated blocks and the upper wavy prefabricated blocks of the reinforced concrete frame structure are used to splice the wavy curved surfaces through the symmetrical prefabricated block leading edge surfaces, combining the cog grooves and tooth walls of the prefabricated structure to increase stability, and strengthen integrity by connecting steel pipes in transverse directions.
It improves the construction efficiency and overall stability of the embankment, enhances the anti-shrink capacity, and improves the aesthetics and safety of the embankment.
Smart Images

Figure CN223118984U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of dikes and revetments in hydraulic structures, and particularly relates to an assembled dike and revetment structure. Background Technique
[0002] There are numerous rivers in our country. Dikes are an important part of the river flood control system in our country. When constructing traditional dikes, it is necessary to build toe protection, and then compact in layers. After compaction to the elevation of the dike top, slope repair is carried out. The procedures are numerous and the efficiency is not high. In addition, most of the dike toe protections are built with mortar rubble masonry, and most of the dike revetments are earth-rock slope protections. It is easy for the upper earth-rock to be scoured and the dike toe to be hollowed out under the water flow scouring, and it is easy to collapse. Therefore, the demand for a highly reliable dike and revetment structure is extremely urgent. Therefore, the anti-scouring and stability safety of the dike and revetment are extremely important.
[0003] The assembled dike and revetment structure is assembled on-site through precast components. In recent years, it has been widely used because it does not require the construction of toe protection and the trimming of the dike slope, and can greatly improve the construction efficiency of the dike. How to improve the overall stability and anti-scouring property of the dike and revetment is still a new problem that needs to be considered in the assembled dike and revetment structure. In view of this, this case is generated. Content of the Utility Model
[0004] The purpose of the utility model is to solve at least one of the technical problems existing in the prior art, and provide an assembled dike and revetment structure. By splicing the front edge surfaces of symmetric precast blocks, an upper-layer wavy curved surface can be constructed, which can increase the ornamental value of the dike and revetment. Through the rear tooth grooves and tooth walls of the precast structure, the stability of the upper and lower precast structures can be increased. Through the lateral connecting steel pipes on the side surfaces of the precast structure, the integrity of the left and right precast structures can be increased.
[0005] The utility model also provides an assembled dike and revetment structure with the above features, including a bottom-layer vertical precast block, a walkway, an upper-layer wavy precast block, a dike-top leisure platform, and a berm retaining wall. Among them, both the bottom-layer vertical precast block and the upper-layer wavy precast block are reinforced concrete frame structures. The upper-layer wavy precast block is divided into a No. 1 precast block and a No. 2 precast block, and the two are symmetrical. By splicing the front edge surfaces of the symmetric precast blocks, an upper-layer wavy curved surface can be constructed, which can increase the ornamental value of the dike and revetment.
[0006] According to the assembled dike and revetment structure described above, the bottom-layer vertical precast block generally has a daily-shaped precast cavity structure, including a vertical front edge surface, a first vertical rear edge surface, a reinforcement plate, a first tooth groove on the upper side of the rear part, a first tooth wall on the lower side of the rear part, and a first transverse steel pipe hole on the side surface. The reinforced concrete precast structure has good anti-scouring characteristics.
[0007] According to the described assembled bank structure, the bottom layer of vertical precast blocks has a total length of 3.5 m, a width of 2.5 m, and a height of 1.2 m. The wall thickness of the cavity structure is 20 cm. The reinforcement plate is located at the bottom between the front and rear edge surfaces of the precast structure and has a height of 0.6 m. The bottom and top elevations of the rear part of the cavity are staggered from those of the front part, with a staggering width of 1.0 m. The first tooth groove on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the first tooth wall on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The first transverse steel pipe hole on the side is located in the middle of the rear part of the cavity and has a diameter of 0.1 m. By means of the tooth grooves and tooth walls at the rear of the bottom layer of vertical precast blocks, the stability of the upper and lower bottom layer precast structures can be increased.
[0008] According to the described assembled bank structure, the upper layer of corrugated precast blocks is also a precast cavity structure, including a corrugated front edge surface, a second vertical rear edge surface, a second tooth groove on the upper side of the rear part, a second tooth wall on the lower side of the rear part, and a second transverse steel pipe hole on the side. The reinforced concrete precast structure has good anti-scouring characteristics.
[0009] According to the described assembled bank structure, one side of the upper layer of corrugated precast blocks is 2.5 m long, the other side is 1.5 m long, the width is 2.5 m, and the height is 1.2 m. The wall thickness of the cavity structure is 20 cm. The bottom and top elevations of the rear part of the cavity are also staggered from those of the front part, with a staggering width of 1.0 m. The second tooth groove on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the second tooth wall on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The second transverse steel pipe hole on the side is located in the middle of the rear part of the cavity and has a diameter of 0.1 m. By means of the tooth grooves and tooth walls at the rear of the upper layer of corrugated precast blocks, the stability of the upper layer of corrugated precast structures can be increased.
[0010] According to the described assembled bank structure, the transverse reinforcement steel pipe passes through the first transverse steel pipe hole on the side of the bottom layer of vertical precast blocks and the second transverse steel pipe hole on the side of the upper layer of corrugated precast blocks, and has a diameter of 9 cm. By means of the transverse connecting steel pipe on the side of the precast structure, the integrity of the left and right precast structures can be increased.
[0011] According to the described assembled bank structure, the aisle is located on the bottom layer of vertical precast blocks and beside the upper layer of corrugated precast blocks. The riverside side is straight, and the revetment side is curved. The width of the aisle changes with the corrugation and is 1 - 2 m.
[0012] The additional aspects and advantages of the present utility model will be partly given in the following description, partly will become obvious from the following description, or will be understood through the practice of the present utility model. BRIEF DESCRIPTION OF THE DRAWINGS
[0013] The present utility model will be further described below in conjunction with the drawings and embodiments;
[0014] Figure 1 It is the overall structure diagram of an assembled bank structure of the present utility model;
[0015] Figure 2 This is an exploded view of a partial structure of an assembled bank structure of the present utility model;
[0016] Figure 3 This is a schematic diagram of the bottom upright precast block structure of an assembled bank structure of the present utility model;
[0017] Figure 4 This is a schematic diagram of the upper corrugated precast block structure of an assembled bank structure of the present utility model.
[0018] Legend description:
[0019] 1. Bottom upright precast block; 11. Upright front edge surface; 12. First upright rear edge surface; 13. Reinforcement plate; 14. First tooth groove; 15. First tooth wall; 16. First transverse steel pipe hole; 2. Aisle; 3. Upper corrugated precast block; 31. No. 1 precast block; 311. Corrugated front edge surface; 312. Second upright rear edge surface; 313. Second tooth groove; 314. Second tooth wall; 315. Second transverse steel pipe hole; 32. No. 2 precast block; 4. Bank top leisure platform; 5. Berm retaining wall; 6. Transverse reinforcement steel pipe. Detailed implementation manners
[0020] This part will describe in detail the specific embodiments of the present utility model. The preferred embodiments of the present utility model are shown in the drawings. The role of the drawings is to supplement the description in the text part of the specification, enabling people to intuitively and vividly understand each technical feature and the overall technical solution of the present utility model, but it cannot be construed as a limitation on the protection scope of the present utility model.
[0021] Refer to Figures 1-4, in an embodiment of the utility model, an assembled bank structure includes a bottom-layer vertical precast block 1 and a bottom-layer vertical precast block 1, which is generally in a precast cavity structure in the shape of a "ri" character, including a vertical front edge surface 11, a first vertical rear edge surface 12, a reinforcing plate 13, a first tooth groove 14 on the upper side of the rear part, a first tooth wall 15 on the lower side of the rear part, and a first transverse steel pipe hole 16 on the side surface. The bottom-layer vertical precast block 1 has a total length of 3.5 m, a width of 2.5 m, and a height of 1.2 m. The wall thickness of the cavity structure is 20 cm. The reinforcing plate 13 is located at the bottom between the front and rear edge surfaces of the precast structure, with a height of 0.6 m. The bottom and top elevations of the rear part of the cavity are staggered from those of the front part, with a staggering width of 1.0 m. The first tooth groove 14 on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the first tooth wall 15 on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The first transverse steel pipe hole 16 on the side surface is located in the middle of the rear part of the cavity, with a diameter of 0.1 m. Corridors 2 and corridors 2 are located on the bottom-layer vertical precast block 1, beside the upper-layer wavy precast block 3 and the upper-layer wavy precast block 3. The upper-layer wavy precast block 3 is also a precast cavity structure, including a wavy front edge surface 311, a second vertical rear edge surface 312, a second tooth groove 313 on the upper side of the rear part, a second tooth wall 314 on the lower side of the rear part, and a second transverse steel pipe hole 315 on the side surface. One side of the upper-layer wavy precast block 3 is 2.5 m long, the other side is 1.5 m long, the width is 2.5 m, and the height is 1.2 m. The wall thickness of the cavity structure is 20 cm. The bottom and top elevations of the rear part of the cavity are also staggered from those of the front part, with a staggering width of 1.0 m. The second tooth groove 313 on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the second tooth wall 314 on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The second transverse steel pipe hole 315 on the side surface is located in the middle of the rear part of the cavity, with a diameter of 0.1 m. A bank-top leisure platform 4, a berm retaining wall 5, and a transverse reinforcing steel pipe 6. The transverse reinforcing steel pipe 6 passes through the first transverse steel pipe hole 16 on the side surface of the bottom-layer vertical precast block 1 and the second transverse steel pipe hole 315 on the side surface of the upper-layer wavy precast block 3, with a diameter of 9 cm. Both the bottom-layer vertical precast block 1 and the upper-layer wavy precast block 3 are reinforced concrete frame structures. The upper-layer wavy precast block is divided into a No. 1 precast block 31 and a No. 2 precast block 32, which are symmetrical. The riverside side is straight, and the revetment side is curved. The width of the corridor 2 changes with the wavy shape, ranging from 1 to 2 m.
[0022] Working principle: By splicing the wavy front edge surfaces 311 of the No. 1 precast block 31 and the No. 2 precast block 32, an upper-layer wavy curved surface can be constructed, which can increase the ornamental value of the bank. Through the tooth grooves and tooth walls at the rear part of the precast structure, the stability of the upper and lower precast structures can be increased. Through the transverse connecting steel pipes 6 on the side surfaces of the precast structures, the integrity of the left and right precast structures can be increased.
[0023] The above has described the embodiments of the utility model in detail with reference to the accompanying drawings. However, the utility model is not limited to the above embodiments. Within the scope of knowledge possessed by those of ordinary skill in the art in the technical field, various changes can be made without departing from the purpose of the utility model.
Claims
1. An assembled bank structure, characterized in that, It includes a bottom vertical precast block (1), a walkway (2), an upper corrugated precast block (3), a top leisure platform (4), a berm retaining wall (5) and a transverse strengthening steel pipe (6). The bottom vertical precast block (1) and the upper corrugated precast block (3) are both reinforced concrete frame structures. The upper corrugated precast block is divided into a No. 1 precast block (31) and a No. 2 precast block (32), and the two are symmetrical.
2. The prefabricated bank structure according to claim 1, characterized in that, The bottom vertical precast block (1) generally has a precast cavity structure in the shape of a Chinese character 'Ri', including a vertical front edge surface (11), a first vertical rear edge surface (12), a strengthening plate (13), a first tooth groove (14) on the upper side of the rear part, a first tooth wall (15) on the lower side of the rear part, and a first transverse steel pipe hole (16) on the side.
3. The prefabricated bank structure according to claim 1, characterized in that, The bottom vertical precast block (1) is 3.5 m in total length, 2.5 m in width and 1.2 m in height. The wall thickness of the cavity structure is 20 cm. The strengthening plate (13) is located at the bottom between the front and rear edge surfaces of the precast structure, with a height of 0.6 m. The bottom and top elevations of the rear part and the front part of the cavity are staggered, and the staggering width is 1.0 m. The first tooth groove (14) on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the first tooth wall (15) on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The first transverse steel pipe hole (16) on the side is located in the middle of the rear part of the cavity, with a diameter of 0.1 m.
4. The prefabricated bank structure according to claim 1, characterized in that, The upper corrugated precast block (3) is also a precast cavity structure, including a corrugated front edge surface (311), a second vertical rear edge surface (312), a second tooth groove (313) on the upper side of the rear part, a second tooth wall (314) on the lower side of the rear part, and a second transverse steel pipe hole (315) on the side.
5. The prefabricated bank structure according to claim 1, characterized in that, One side of the upper corrugated precast block (3) is 2.5 m long, the other side is 1.5 m long, the width is 2.5 m, and the height is 1.2 m. The wall thickness of the cavity structure is 20 cm. The bottom and top elevations of the rear part and the front part of the cavity are also staggered, and the staggering width is 1.0 m. The second tooth groove (313) on the upper side of the rear part is 0.4 m lower than the top elevation of the front part, and the second tooth wall (314) on the lower side of the rear part is 0.4 m lower than the bottom elevation of the front part. The second transverse steel pipe hole (315) on the side is in the middle of the rear part of the cavity, with a diameter of 0.1 m.
6. The prefabricated bank structure according to claim 1, characterized in that, The transverse strengthening steel pipe (6) passes through the first transverse steel pipe hole (16) on the side of the bottom vertical precast block (1) and the second transverse steel pipe hole (315) on the side of the upper corrugated precast block (3), and has a diameter of 9 cm.
7. A prefabricated bank structure according to claim 1, characterized in that, The walkway (2) is located on the bottom vertical precast block (1) and beside the upper corrugated precast block (3). The riverside side is straight, and the revetment side is curved. The width of the walkway (2) changes with the corrugation and is 1 - 2 m.