Reservoir model splicing structure

Abstract

The utility model discloses a reservoir model splicing structure, and relates to the technical field of reservoir simulation models. The device comprises two cement bases, bottom plates are fixedly connected to the opposite faces of the two cement bases, side plates are fixedly connected to one sides of the two cement bases, two gate piers are symmetrically installed on the bottom plates, metal rods are rotationally arranged between the side plates and the gate piers, and metal rods are also rotationally arranged between the two gate piers. The side plates, the gate piers, the gates and the sliding blocks are arranged, firstly, the splicing blocks and the splicing grooves at the bottoms of the two gate piers are spliced, so that the multiple gate piers are rapidly spliced to the bottom plate, then the multiple sliding blocks are taken out to be inserted into the multiple sliding grooves, and the multiple gates are installed in the multiple gate openings through clamping connection of the L-shaped blocks and the L-shaped grooves; the whole reservoir simulation site is rapidly formed through the design of the model, the operation difficulty is greatly reduced, the structural strength of the splicing position is guaranteed, meanwhile, the model can be rapidly disassembled and repeatedly used, and the flexibility and economical efficiency of an experiment are improved.

Description

Technical Field

[0001] The present application relates to the technical field of reservoir simulation models, and in particular to a reservoir model splicing structure. Background Art

[0002] Reservoir hydraulic simulation experiments are an important engineering practice. They simulate the operating environment of reservoirs to study hydrological phenomena such as water flow, sediment, and water quality, as well as reservoir scheduling and operation management. This experiment is of great significance for optimizing reservoir design, improving water resource utilization efficiency, and ensuring the safe operation of reservoirs. Through simulation experiments, engineers can predict and evaluate the behavior of reservoirs under different working conditions, providing a scientific basis for actual reservoir construction.

[0003] When conducting reservoir hydraulic simulation experiments, it is usually necessary to construct reservoir models to simulate the actual reservoir environment. These models need to be able to accurately reproduce the geometric shape and hydrological characteristics of the reservoir. Since a single model is often difficult to fully simulate the complexity of a large reservoir, multiple reservoir models need to be spliced ​​together to form a complete simulation system.

[0004] However, in the existing reservoir model splicing process, the splicing work relies on traditional methods such as welding or cement pouring. These methods are not only cumbersome, time-consuming and labor-intensive, but also difficult to ensure the sealing and structural strength of the splicing. These methods are not easy to disassemble and reuse the model, which limits the flexibility and economy of the experiment. For this reason, the present application provides a reservoir model splicing structure. Utility Model Content

[0005] The purpose of this application is to solve the problems of existing reservoir model splicing, which is cumbersome, time-consuming and labor-intensive, and difficult to ensure the sealing and structural strength of the splicing. This application provides a reservoir model splicing structure.

[0006] In order to achieve the above-mentioned purpose, this application specifically adopts the following technical solutions:

[0007] A reservoir model splicing structure includes two cement bases, the opposite surfaces of the two cement bases are fixedly connected to a bottom plate, one side of the two cement bases is fixedly connected to a side plate, two gate piers are symmetrically installed on the bottom plate, metal rods are rotatably set between the side plates and the gate piers, and a metal rod is also rotatably set between the two gate piers. Gates are fixedly connected to multiple metal rods, one side of the side plate is installed with a connecting plate 1, one side of the connecting plate 1 is installed with a connecting plate 2, and one side of the connecting plate 1 and the connecting plate 2 are both fixedly connected to the cement base.

[0008] By adopting the above technical solution, two gate piers are spliced ​​on the top of the bottom plate. The two installed gate piers can be used to divide multiple gates between the two cement bases, so as to facilitate subsequent simulation experiments. Subsequently, multiple gates are installed inside the multiple gates. By splicing the above structures, an entire reservoir simulation site can be quickly formed, which greatly reduces the difficulty of operation and ensures the structural strength of the splicing. At the same time, the model can also be quickly disassembled and reused, which improves the flexibility and economy of the experiment.

[0009] Furthermore, a slide groove is provided on one side of the side plate and on both sides of the gate pier, a slider is slidably connected inside the slide groove, a rotating shaft is rotatably connected inside the slider, and both ends of the metal rod are fixedly connected to the rotating shaft.

[0010] By adopting the above technical solution, multiple sliders are taken out and inserted into the interior of multiple sliding grooves, so that multiple gates can be installed inside multiple gate openings.

[0011] Furthermore, sealing blocks are fixedly connected to both sides and the bottom of the slider, an L-shaped block is fixedly connected to one side of the slider, an L-shaped groove is opened on one side of the slide, and the L-shaped block can be snap-fitted with the L-shaped groove.

[0012] By adopting the above technical solution, the slider can be quickly spliced ​​inside the slide groove through the clamping of the L-shaped block and the L-shaped groove, so that multiple gates can be installed inside multiple gates.

[0013] Furthermore, one end of the connecting plate 1 and the connecting plate 2 is symmetrically fixedly connected with a clamping block 1, and one end of the side plate and the connecting plate 1 is symmetrically provided with a clamping groove 1, and the clamping block 1 can be slidably connected in the clamping groove 1.

[0014] By adopting the above technical solution, the card block 1 at one end of the connecting plate 1 and the connecting plate 2 is aligned with the card slot 1, and then the card block 1 is forcefully inserted into the interior of the card slot 1, thereby realizing rapid splicing between the side panel, the connecting plate 1 and the connecting plate 2.

[0015] Furthermore, a connecting groove is provided on one side of the connection between the side plate and the connecting plate 1, and a connecting groove is also provided on one side of the connection between the connecting plate 1 and the connecting plate 2. A connecting block is slidingly provided inside the connecting groove, and a plurality of clamping blocks 2 are symmetrically fixedly connected to one side of the connecting block. A plurality of clamping slots 2 are provided in the connecting groove, and a plurality of clamping blocks 2 can be clamped in a plurality of clamping slots 2.

[0016] By adopting the above technical solution, the connecting block is inserted into the interior of the connecting groove, so that the clamping block 2 is inserted into the clamping groove 2, thereby strengthening the connection stability between the side plate and the connecting plate 1 and the connecting plate 1 and the connecting plate 2 through the connecting block.

[0017] Furthermore, the bottoms of the two piers are symmetrically fixedly connected with two splicing blocks, and the top of the bottom plate is symmetrically provided with two splicing grooves, and the two splicing blocks can be snapped into the two splicing grooves.

[0018] By adopting the above technical solution, the two gate piers can be spliced ​​on the top of the bottom plate by aligning the splicing blocks at the bottom of the two gate piers with the splicing grooves on the top of the bottom plate and pressing down hard.

[0019] Furthermore, the tops of the side panels and the gate piers are clamped with stabilizing plates, the bottoms of the stabilizing plates are symmetrically fixedly connected with two clamping blocks three, the tops of the side panels and the gate piers are both provided with clamping slots three, and the clamping blocks three can be clamped in the clamping slots three.

[0020] By adopting the above technical solution, align the card block three with the card slot three, and then press the stabilizing plate hard to insert the card block three into the interior of the card slot three.

[0021] Furthermore, the bottom plate, side plates and gate piers are all made of acrylic plates, and the gate, connecting plate 1 and connecting plate 2 are also made of acrylic plates.

[0022] By adopting the above technical solution, acrylic has good transparency, light transmittance close to glass, and is not prone to light scattering, so the internal situation of the model can be seen intuitively.

[0023] In summary, this application has at least one of the following beneficial effects:

[0024] 1. This application is provided with side panels, gate piers, gates, and sliders. First, the splicing blocks at the bottom of the two gate piers are spliced ​​with the splicing grooves, so that multiple gate piers can be quickly spliced ​​on the bottom plate. Then, multiple sliders are taken out and inserted into the interior of multiple slide grooves. By snapping the L-shaped blocks with the L-shaped grooves, multiple gates are installed inside multiple gate openings to quickly form an entire reservoir simulation site, which greatly reduces the difficulty of operation and ensures the structural strength of the splicing. At the same time, the model can also be quickly disassembled and reused, which improves the flexibility and economy of the experiment.

[0025] 2. This application is provided with a card block 1, a card slot 1, a connecting slot, and a connecting block. The card block 1 at one end of the connecting plate 1 and the connecting plate 2 is inserted into the inside of the card slot 1 to achieve rapid splicing between the side plate, the connecting plate 1 and the connecting plate 2. Then the connecting block is inserted into the inside of the connecting slot. The connection stability between the side plate and the connecting plate 1 and the connecting plate 1 and the connecting plate 2 is reinforced by the connecting block, thereby reducing the possibility of loosening during the reservoir simulation process. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of the three-dimensional structure of the device body in this application.

[0027] Figure 2 It is a schematic diagram of the three-dimensional structure of the device body in this application.

[0028] Figure 3 It is a schematic diagram of the connection structure between the gate pier and the gate in this application.

[0029] Figure 4 It is a schematic diagram of the connection structure between the side panel and the connecting plate 1 in this application.

[0030] Figure 5 It is a schematic diagram of the connection structure between the gate pier and the base plate in this application.

[0031] Description of reference numerals:

[0032] 1. Cement base; 2. Bottom plate; 3. Side plate; 4. Gate pier; 5. Metal rod; 6. Gate; 7. Connecting plate 1; 8. Connecting plate 2; 9. Slide groove; 10. Slider; 11. Rotating shaft; 12. Sealing block; 13. L-shaped block; 14. L-shaped groove; 15. Block 1; 16. Slot 1; 17. Connecting groove; 18. Connecting block; 19. Block 2; 20. Slot 2; 21. Splicing block; 22. Splicing groove; 23. Stabilizing plate; 24. Block 3; 25. Slot 3. DETAILED DESCRIPTION

[0033] The following is combined with Figure 1 —5 provides further details of this application.

[0034] The embodiment of the present application discloses a reservoir model splicing structure.

[0035] Reference Figure 1 、 Figure 3 and Figure 5 A reservoir model splicing structure includes two cement bases 1, the opposite surfaces of the two cement bases 1 are fixedly connected with a bottom plate 2, one side of the two cement bases 1 is fixedly connected with a side plate 3, two gate piers 4 are symmetrically installed on the bottom plate 2, metal rods 5 are rotatably arranged between the side plates 3 and the gate piers 4, and a metal rod 5 is also rotatably arranged between the two gate piers 4. A gate 6 is fixedly connected to the multiple metal rods 5, a connecting plate 1 7 is installed on one side of the side plate 3, a connecting plate 2 8 is installed on one side of the connecting plate 1 7, and one side of the connecting plate 1 7 and the connecting plate 2 8 are fixedly connected to the cement base 1, the bottoms of the two gate piers 4 are symmetrically fixedly connected with two splicing blocks 21, and two splicing grooves 22 are symmetrically opened on the top of the bottom plate 2, and the two splicing blocks 21 can be snapped into the two splicing grooves 22;

[0036] Secondly, a slide groove 9 is provided on one side of the side plate 3 and on both sides of the gate pier 4. The inside of the slide groove 9 is slidably connected to a slider 10, and the inside of the slider 10 is rotatably connected to a rotating shaft 11. The two ends of the metal rod 5 are fixedly connected to the rotating shaft 11, and the two sides and the bottom of the slider 10 are fixedly connected to sealing blocks 12. One side of the slider 10 is fixedly connected to an L-shaped block 13. An L-shaped groove 14 is provided on one side of the slide groove 9, and the L-shaped block 13 can be snapped into the L-shaped groove 14.

[0037] When in use, first align the splicing blocks 21 at the bottom of the two gate piers 4 with the splicing grooves 22 at the top of the bottom plate 2, and press downward with force to splice the two gate piers 4 on the top of the bottom plate 2. The two installed gate piers 4 can be used to separate multiple gates between the two cement bases 1, so as to make it easier to carry out subsequent simulation experiments. After the two gate piers 4 are fixed, the two side panels 3 can be taken out and fitted with one side of the cement base 1 respectively, and then the multiple sliders 10 can be taken out to insert into the interior of the multiple chutes 9. At this time, the sliders 10 can be quickly spliced ​​into the interior of the chutes 9 through the clamping of the L-shaped blocks 13 and the L-shaped grooves 14, so that multiple gates 6 can be installed in multiple Inside the gate, an entire reservoir simulation site is quickly formed by splicing the above-mentioned structures, which greatly reduces the difficulty of operation and ensures the structural strength of the splicing. At the same time, the model can also be quickly disassembled and reused, which improves the flexibility and economy of the experiment. During the experiment, when it is necessary to open the gate to release the water from the reservoir, the gate 6 can be driven to rotate by the cooperation of the rotating shaft 11 and the metal rod 5, so that the gate 6 is gradually lifted, so that the water flow can flow normally. When it is necessary to stop opening the gate, the gate 6 can be lowered and moved between the side plate 3 and the gate pier 4, and the water flow can be blocked by the gate 6 to simulate various reservoir conditions.

[0038] Reference Figure 2 and Figure 4 One end of the connecting plate 1 7 and the connecting plate 2 8 are symmetrically fixedly connected with a card block 15, and one end of the side plate 3 and the connecting plate 1 7 are symmetrically provided with a card slot 16, and the card block 15 can be slidably connected in the card slot 16. A connecting groove 17 is provided on one side of the connection between the side plate 3 and the connecting plate 1 7, and a connecting groove 17 is also provided on one side of the connection between the connecting plate 1 7 and the connecting plate 2 8. A connecting block 18 is slidingly provided inside the connecting groove 17, and a plurality of card blocks 2 19 are symmetrically fixedly connected to one side of the connecting block 18. A plurality of card slots 20 are provided in the connecting groove 17, and a plurality of card blocks 2 19 can be snapped into a plurality of card slots 20.

[0039] In use, when the connection between the side plate 3 and the pier 4 is stable, the connecting plate one 7 and the connecting plate two 8 can be taken out, then the clamping block one 15 at one end of the connecting plate one 7 and the connecting plate two 8 is aligned with the clamping groove one 16, then the clamping block one 15 is inserted into the inside of the clamping groove one 16, so that the side plate 3, the connecting plate one 7 and the connecting plate two 8 are quickly spliced, then the connecting block 18 is inserted into the connecting groove 17, so that the clamping block two 19 is inserted into the clamping groove two 20, so that the connecting block 18 is used to reinforce the connection stability between the side plate 3 and the connecting plate one 7 and the connecting plate one 7 and the connecting plate two 8, and the possibility of loosening is reduced in the process of reservoir simulation.

[0040] With reference to Figure 1 and Figure 3 The top of the side plate 3 and the pier 4 is clamped with a stable plate 23, the bottom of the stable plate 23 is symmetrically and fixedly connected with two clamping block threes 24, the top of the side plate 3 and the pier 4 is provided with a clamping groove three 25, and the clamping block three 24 can be clamped in the clamping groove three 25.

[0041] In use, when the connection between the side plate 3 and the pier 4 is stable, the connecting plate one 7 and the connecting plate two 8 can be taken out, then the clamping block one 15 at one end of the connecting plate one 7 and the connecting plate two 8 is aligned with the clamping groove one 16, then the clamping block one 15 is inserted into the inside of the clamping groove one 16, so that the side plate 3, the connecting plate one 7 and the connecting plate two 8 are quickly spliced, then the connecting block 18 is inserted into the connecting groove 17, so that the clamping block two 19 is inserted into the clamping groove two 20, so that the connecting block 18 is used to reinforce the connection stability between the side plate 3 and the connecting plate one 7 and the connecting plate one 7 and the connecting plate two 8, and the possibility of loosening is reduced in the process of reservoir simulation.

[0042] With reference to Figure 1 and Figure 2 The bottom plate 2, the side plate 3 and the pier 4 are all made of acrylic plates, and the gate 6, the connecting plate one 7 and the connecting plate two 8 are also all made of acrylic plates.

[0043] In use, the reservoir model made of acrylic plates can greatly reduce the experimental cost, and the acrylic plate has good transparency, the light transmittance is close to glass, and light scattering is not easy to occur, which is very beneficial for observing the water flow dynamics and water quality changes in the reservoir simulation experiment, because the inside of the model can be directly observed.

[0044] The implementation principle of the splicing structure of a reservoir model in this embodiment is as follows: when in use, first align the splicing blocks 21 at the bottom of the two gate piers 4 with the splicing grooves 22 at the top of the bottom plate 2, and press downward with force to splice the two gate piers 4 on the top of the bottom plate 2. The installed two gate piers 4 can divide multiple gate openings between the two cement bases 1, so as to make it more convenient to carry out subsequent simulation experiments. When the two gate piers 4 are fixed, the two side panels 3 can be taken out and fitted with one side of the cement base 1 respectively, and then multiple sliders 10 are taken out to be inserted into the interior of the multiple chutes 9. At this time, the sliders 10 can be quickly spliced ​​into the interior of the chutes 9 through the clamping of the L-shaped blocks 13 and the L-shaped grooves 14, so that multiple gates 6 can be installed in the interior of multiple gate openings. When the connection between the side panels 3 and the gate piers 4 is stable, the stabilizing plate 23 can be taken out, and then the clamping block three 24 is aligned with the clamping groove three 25. Then, the stabilizing plate 23 is pressed hard, and the clamping block three 24 can be inserted into the clamping groove three 25. After the slab 18 is inserted into the slot 17, the second block 19 is inserted into the second slot 20, thereby strengthening the connection stability between the side plate 3 and the slab 17 and the second block 19. In this way, the connection stability between the side plate 3 and the slab 17 and the second block 19 is strengthened by the connection block 18. In the process of reservoir simulation, the possibility of loosening is reduced. By splicing the above structures together, an entire reservoir simulation site is quickly formed, which greatly reduces the difficulty of operation and ensures the structural strength of the splicing. At the same time, the model can be quickly disassembled and reused, thereby improving the flexibility and economy of the experiment.

[0045] Secondly, during the experiment, when it is necessary to open the gate to release the water from the reservoir, the gate 6 can be driven to rotate by the cooperation of the rotating shaft 11 and the metal rod 5, so that the gate 6 is gradually lifted, so that the water flow can flow normally. When it is necessary to stop opening the gate, the gate 6 can be lowered and moved between the side plate 3 and the gate pier 4, and the water flow can be blocked by the gate 6 to simulate various reservoir conditions. At the same time, when opening the gate to release water, the gate 6 can also be set up through the stabilizing plate 23 to prevent the gate 6 from automatically falling and rotating due to the influence of gravity, causing the valve mouth to close.

Claims

1. A reservoir model splicing structure, comprising two cement bases (1), characterized in that: The opposite surfaces of the two cement bases (1) are fixedly connected with a bottom plate (2), one side of the two cement bases (1) is fixedly connected with a side plate (3), two gate piers (4) are symmetrically installed on the bottom plate (2), a metal rod (5) is rotatably provided between the side plates (3) and the gate piers (4), a metal rod (5) is also rotatably provided between the two gate piers (4), a gate (6) is fixedly connected to the plurality of metal rods (5), a connecting plate 1 (7) is installed on one side of the side plate (3), a connecting plate 2 (8) is installed on one side of the connecting plate 1 (7), and one side of the connecting plate 1 (7) and the connecting plate 2 (8) are both fixedly connected to the cement base (1).

2. A reservoir model splicing structure according to claim 1, characterized in that: A chute (9) is provided on one side of the side plate (3) and on both sides of the gate pier (4). A slider (10) is slidably connected inside the chute (9). A rotating shaft (11) is rotatably connected inside the slider (10). Both ends of the metal rod (5) are fixedly connected to the rotating shaft (11).

3. A reservoir model splicing structure according to claim 2, characterized in that: Both sides and the bottom of the slider (10) are fixedly connected to sealing blocks (12), one side of the slider (10) is fixedly connected to an L-shaped block (13), one side of the slide groove (9) is provided with an L-shaped groove (14), and the L-shaped block (13) can be snap-fitted with the L-shaped groove (14).

4. The reservoir model splicing structure according to claim 1, characterized in that: One end of the connecting plate 1 (7) and the connecting plate 2 (8) are both symmetrically fixedly connected with a clamping block 1 (15), and one end of the side plate (3) and the connecting plate 1 (7) are both symmetrically provided with a clamping groove 1 (16), and the clamping block 1 (15) can be slidably connected in the clamping groove 1 (16).

5. The reservoir model splicing structure according to claim 1, characterized in that: A connection groove (17) is provided on one side of the connection between the side plate (3) and the connection plate 1 (7), and a connection groove (17) is also provided on one side of the connection between the connection plate 1 (7) and the connection plate 2 (8). A connection block (18) is slidably provided inside the connection groove (17), and a plurality of second card blocks (19) are symmetrically fixedly connected to one side of the connection block (18). A plurality of second card slots (20) are provided in each of the connection grooves (17), and a plurality of second card blocks (19) can be snapped into the plurality of second card slots (20).

6. The reservoir model splicing structure according to claim 1, characterized in that: The bottoms of the two gate piers (4) are symmetrically fixedly connected with two splicing blocks (21), and the top of the bottom plate (2) is symmetrically provided with two splicing grooves (22), and the two splicing blocks (21) can be snapped into the two splicing grooves (22).

7. The reservoir model splicing structure according to claim 1, characterized in that: The tops of the side panels (3) and the gate pier (4) are clamped with a stabilizing plate (23), and the bottom of the stabilizing plate (23) is symmetrically fixedly connected with two clamping blocks (24). The tops of the side panels (3) and the gate pier (4) are both provided with a clamping slot (25), and the clamping block (24) can be clamped in the clamping slot (25).

8. The reservoir model splicing structure according to claim 1, characterized in that: The bottom plate (2), side plate (3) and gate pier (4) are all made of acrylic plates, and the gate (6), connecting plate 1 (7) and connecting plate 2 (8) are also made of acrylic plates.

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