Simulation experiment device for stable seepage of incompressible fluid
By setting up multiple water outlets in the incompressible fluid stable seepage simulation experimental device, the problem of inability to adjust the water outlet is solved, the water level in the water tank is stable and the effective utilization of water resources is achieved, and the risks of equipment damage and environmental impact are reduced. .
Patent Information
- Application Number
- CN202420782051.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-16
- Publication Date
- 2024-12-27
- Estimated Expiration
- 2034-04-16
AI Technical Summary
The existing incompressible fluid stable seepage simulation experimental device cannot select different water effluent according to actual needs when adding water, which may cause overflow of the sink or excessive water level, resulting in equipment damage and disorder in the experimental environment, and the inability to select different water effluents may lead to Waste of water resources, increases costs and has unnecessary impact on the environment.
An experimental device including a water pumping tank, a water pipe, a sink and a workbench was designed, and three water outlets were set up, each of which had a different water outlet. By selecting a suitable water outlet, the water level in the sink can be adjusted to avoid Spillover or excessive water level reduces water waste and reduces costs and environmental impacts.
By choosing the right water outlet, the water tank overflow or water level can be effectively avoided, ensuring the water level in the tank is stable, reducing water resources waste, reducing costs, and reducing the impact on the environment, especially in frequent experiments or long-term operation In case.
Smart Images
Figure CN222259064U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of fluid mechanics, in particular to a stable seepage simulation experimental device for incompressible fluid. Background Art
[0002] The incompressible fluid stable seepage simulation experimental device is an experimental device used to simulate the behavior and properties of incompressible fluids during the seepage process. This device usually includes a water tank or a water tank for storing simulated fluids (usually water), as well as components such as pipes, seepage media and monitoring equipment. In the experiment, by controlling the water level and pressure in the water tank, water is allowed to penetrate into the seepage medium (such as soil samples) to simulate groundwater movement or other seepage phenomena. By monitoring the changes in parameters such as water level, flow rate, and pressure, the stability, permeability, flow laws, etc. of the incompressible fluid during the seepage process can be studied. When testing the fluid, water is usually added to the water tank and then tested. However, when adding water, different water outputs cannot be selected according to actual needs. If the water output cannot be controlled, the water tank may overflow or the water level may be too high, causing damage to the equipment or confusion in the experimental environment, which may affect the progress of the experiment or cause safety hazards. In addition, the inability to select different water outputs may lead to waste of water resources. In some cases where frequent experiments or long-term operations are required, excessive water loss may increase costs and cause unnecessary impacts on the environment. Utility Model Content
[0003] The purpose of this section is to summarize some aspects of the embodiments of the utility model and briefly introduce some preferred embodiments. Some simplifications or omissions may be made in this section and the specification abstract and utility model name of this application to avoid blurring the purpose of this section, specification abstract and utility model name, and such simplifications or omissions cannot be used to limit the scope of the utility model.
[0004] In view of the above-mentioned and / or existing problems in the existing incompressible fluid stable seepage simulation experimental device, the present utility model is proposed.
[0005] Therefore, the problem to be solved by the utility model is that when adding water, different water outputs cannot be selected according to actual needs. If the water output cannot be controlled, the water tank may overflow or the water level may be too high, thereby causing damage to the equipment or chaos in the experimental environment, which may affect the progress of the experiment or cause safety hazards. The inability to select different water outputs may lead to a waste of water resources. In some cases where frequent experiments or long-term operations are required, excessive water loss may increase costs and cause unnecessary impacts on the environment.
[0006] In order to solve the above technical problems, the utility model provides the following technical solutions: an incompressible fluid stable seepage simulation experimental device, which includes a main assembly, including a water pumping box, a water pipe, a water tank and a workbench, the water pipe is plugged into one side of the water pumping box, the water tank is located at one end of the water pipe, and the workbench is fixed to the bottom of the water tank;
[0007] The water discharge component is arranged on the workbench, and comprises a water discharge component, a driving component and a reset component. The water discharge component is arranged at one end of the water pipe, the driving component is located on the water discharge component, and the reset component is arranged on the driving component.
[0008] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, the water discharge component includes a water storage box and a water discharge head, the water storage box is fixed on the top of the water tank, the water pipe is plugged into one side of the water storage box, and the water discharge head is fixed on one side of the water storage box.
[0009] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, the water discharge component also includes a closed door and a support shaft, the closed door is arranged on one side of the water discharge head, the support shaft is inserted into one side of the closed door, and the support shaft and the closed door are movably connected.
[0010] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, the water discharge part also includes a pressure plate and a first spring, the pressure plate is fixed to one side of the closed door, one end of the first spring is fixed to the bottom of the pressure plate, and the other end is fixed to the inner wall of the water storage box.
[0011] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, the driving part includes a spherical block, a pressure rod and a baffle, the spherical block is inserted into the top of the pressure plate, the spherical block is movably connected to the pressure plate, the pressure rod is fixed to the top of the spherical block, and the baffle is fixed to the inner wall of the water storage box.
[0012] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, wherein: the driving member also includes a driving rod, a second spring and a pressing block, the driving rod is fixed to the top of the pressing rod, the second spring is sleeved on the outside of the driving rod, the pressing block is fixed to the top of the driving rod, the pressing block is inserted into the top of the water storage box, and the pressing block is movably connected to the water storage box.
[0013] As a preferred solution of the incompressible fluid stable seepage simulation experimental device of the utility model, the driving member also includes a first driving block and a first movable plate, the first driving block is fixed to one side of the pressing block, and the first movable plate is located on one side of the first driving block.
[0014] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, wherein: the reset part includes a moving bar, a support sleeve and a third spring, the moving bar is fixed to one side of the first movable plate, the support sleeve is arranged on the outside of the moving bar, the support sleeve and the moving bar are movably connected, one end of the third spring is fixed to one side of the moving bar, and the other end is fixed to the inner wall of the support sleeve.
[0015] As a preferred solution of the incompressible fluid stable seepage simulation experimental device of the utility model, the reset member also includes a second driving block and a second movable plate, the second movable plate is fixed to one side of the first movable plate, and the second driving block is located on one side of the second movable plate.
[0016] As a preferred solution of the incompressible fluid stable seepage simulation experimental device described in the utility model, the reset member also includes a reset block, a reset rod and a fourth spring, the reset block is fixed to one side of the second driving block, the reset rod is fixed to the bottom of the reset block, one end of the fourth spring is fixed to the bottom of the reset block, and the other end is fixed to the inner wall.
[0017] The beneficial effects of the utility model are as follows: three water outlets are arranged above the water tank, and the three water outlets have different water outputs. When different water outputs need to be injected into the water tank, the corresponding water outlets are opened to achieve different water outputs. By selecting a suitable water outlet, overflow of the water tank or excessive water level can be effectively avoided. By adjusting the water output as needed, the water level in the water tank can be ensured to be stable, and equipment damage or confusion in the experimental environment can be avoided. By selecting a suitable water outlet, the waste of water resources can be reduced. The water output is selected according to actual needs to avoid excessive water loss. Especially in the case where frequent experiments or long-term operation are required, costs can be reduced and the impact on the environment can be reduced. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] In order to more clearly illustrate the technical solutions of the embodiments of the present utility model, the following briefly introduces the drawings required for the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative labor. Among them:
[0019] Figure 1This is the overall structure diagram of the experimental device for simulating the steady seepage of incompressible fluid.
[0020] Figure 2 This is a cross-sectional structural diagram of the overall incompressible fluid steady seepage simulation experimental device from another perspective.
[0021] Figure 3 An experimental device for simulating steady seepage of incompressible fluid Figure 2 A partial enlarged structural diagram in the middle.
[0022] Figure 4 This is a cross-sectional structural diagram of the water storage box of the incompressible fluid steady seepage simulation experimental device.
[0023] Figure 5 An experimental device for simulating steady seepage of incompressible fluid Figure 4 A partial enlarged structural diagram of point B in the middle.
[0024] Figure 6 This is a cross-sectional structural diagram of the reset block of the incompressible fluid steady seepage simulation experimental device. DETAILED DESCRIPTION
[0025] In order to make the above-mentioned purposes, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the accompanying drawings.
[0026] In the following description, many specific details are set forth to facilitate a full understanding of the present invention, but the present invention may also be implemented in other ways different from those described herein, and those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.
[0027] Secondly, the term "one embodiment" or "embodiment" as used herein refers to a specific feature, structure or characteristic that may be included in at least one implementation of the present invention. The term "in one embodiment" that appears in different places in this specification does not necessarily refer to the same embodiment, nor does it refer to a separate or selective embodiment that is mutually exclusive with other embodiments.
[0028] Example 1
[0029] Reference Figure 1 to Figure 6 , which is the first embodiment of the utility model, and this embodiment provides an incompressible fluid stable seepage simulation experimental device, and the incompressible fluid stable seepage simulation experimental device includes a main body component 100 and a water discharge component 200. When different water outputs need to be injected into the water tank, the corresponding water outlets can be opened to achieve different water outputs.
[0030] The main assembly 100 includes a water pumping box 101 , a water pipe 102 , a water tank 103 and a workbench 104 . The water pipe 102 is plugged into one side of the water pumping box 101 , the water tank 103 is located at one end of the water pipe 102 , and the workbench 104 is fixed to the bottom of the water tank 103 .
[0031] A connecting pipe is provided on one side of the water pumping box 101. The water pumping box 101 is usually used to store the fluid required in the experiment. The injection amount of the fluid can be controlled by adjusting the water level of the water pumping box 101. The water pumping box 101 plays the role of storing and supplying the fluid, ensuring that the fluid is continuously supplied to the experimental device during the experiment. The water tank 103 is the main container for placing the fluid and conducting simulation experiments in the experiment. In the simulation experiment of stable seepage of incompressible fluid, the water tank 103 plays the role of simulating the flow of groundwater and studying the seepage behavior of the fluid in the underground rock formation. The water tank 103 usually has a transparent property to observe the movement of the fluid in the water tank. The water pipe 102 is used to transport the fluid from the water pumping box to the water tank 103. The water pipe 102 usually connects the water pumping box 101 and the water tank 103, and is responsible for transporting the fluid from the storage container to the experimental device to ensure that the fluid can flow smoothly into the water tank 103. The setting of the workbench 104 can support the water pumping box 101 and the water tank 103 to prevent the water tank 103 from shifting.
[0032] The water discharge assembly 200 is disposed on the workbench 104 and includes a water discharge member 201 , a driving member 202 and a reset member 203 . The water discharge member 201 is disposed at one end of the water pipe 102 , the driving member 202 is located on the water discharge member 201 , and the reset member 203 is disposed on the driving member 202 .
[0033] There are three groups of drain parts 201, all of which are arranged on the top of the water tank 103. The outlets of the three groups of drain parts 201 are different. Through the three different groups of drain parts 201, water sources with different flow rates can be added to the water tank 103. There are three groups of driving parts 202, all of which are arranged on the drain parts 201. By moving the driving parts 202, the drain parts 201 can be driven to move, so that water sources with different flow rates can be added to the water tank 103, and different water outputs can be selected according to actual needs. When it is necessary to close the three groups of drain parts 201 at the same time, the three groups of drain parts 201 can be closed at the same time by moving the reset part 203.
[0034] Example 2
[0035] Reference Figure 1 to Figure 6 , which is the second embodiment of the utility model, and this embodiment is based on the previous embodiment.
[0036] Specifically, the water discharge member 201 includes a water storage box 201a and a water discharge head 201b. The water storage box 201a is fixed to the top of the water tank 103, the water delivery pipe 102 is plugged into one side of the water storage box 201a, and the water discharge head 201b is fixed to one side of the water storage box 201a.
[0037] The water outlets of the three water discharge heads 201b are of different sizes. The water storage box 201a is connected to the water supply pipe 102. When the water discharge head 201b is needed to transport the water source to the water tank 103, the water source can be moved to the water storage box 201a through the setting of the water supply pipe 102. At this time, the water discharge head 201b of the specified size can be opened according to the demand, and the water source can be transmitted to the water tank 103 through the water discharge head 201b.
[0038] Specifically, the water discharge member 201 further includes a closed door 201c and a support shaft 201d. The closed door 201c is arranged on one side of the water discharge head 201b. The support shaft 201d is plugged into one side of the closed door 201c. The support shaft 201d and the closed door 201c are movably connected.
[0039] A sealing ring is arranged on one side of the closed door 201c. The closed door 201c can be used to block the drain head 201b to prevent water from flowing out of the drain head 201b. The support shaft 201d is fixed to the inner wall of the water storage box 201a. The closed door 201c can be supported by the support shaft 201d to prevent the closed door 201c from shifting when moving. By moving the closed door 201c, the closed door 201c is separated from the drain head 201b. At this time, the water source can be transmitted from the drain head 201b to the water tank 103.
[0040] Specifically, the water discharge member 201 further includes a pressure plate 201e and a first spring 201f. The pressure plate 201e is fixed to one side of the closed door 201c. One end of the first spring 201f is fixed to the bottom of the pressure plate 201e, and the other end is fixed to the inner wall of the water storage box 201a.
[0041] When the closed door 201c needs to be moved to open it, the pressure plate 201e is pressed to move it. The pressure plate 201e can apply a squeezing force to the first spring 201f when it moves, so that the closed door 201c can be opened. At this time, the water source can be transmitted from the water discharge head 201b to the water tank 103. When the water discharge head 201b needs to be closed, the rebound force of the first spring 201f can return the closed door 201c to its original position, so that the closed door 201c can re-close the water discharge head 201b.
[0042] Specifically, the driving member 202 includes a spherical block 202a, a pressure rod 202b and a baffle 202c. The spherical block 202a is inserted into the top of the pressure plate 201e. The spherical block 202a is movably connected to the pressure plate 201e. The pressure rod 202b is fixed to the top of the spherical block 202a. The baffle 202c is fixed to the inner wall of the water storage box 201a.
[0043] When the pressure plate 201e needs to be pressed, the pressure rod 202b is pressed, and the pressure rod 202b moves to drive the spherical block 202a to move, and the movement of the spherical block 202a can drive the pressure plate 201e to move. The baffle 202c is used to close the top of the water storage box 201a to prevent water from leaking from the top of the water storage box 201a.
[0044] Specifically, the driving member 202 also includes a driving rod 202d, a second spring 202e and a pressing block 202f. The driving rod 202d is fixed to the top of the pressing rod 202b, the second spring 202e is sleeved on the outside of the driving rod 202d, the pressing block 202f is fixed to the top of the driving rod 202d, the pressing block 202f is inserted into the top of the water storage box 201a, and the pressing block 202f is movably connected to the water storage box 201a.
[0045] The driving rod 202d is inserted into the top of the baffle 202c, and the driving rod 202d is movably connected to the baffle 202c. One end of the second spring 202e is fixed to the top of the baffle 202c, and the other end is fixed to the bottom of the pressing block 202f. When the pressing block 202f is pressed, the pressing block 202f can apply a squeezing force to the second spring 202e. The movement of the pressing block 202f drives the driving rod 202d to move. At this time, the movement of the driving rod 202d can drive the pressing rod 202b to move.
[0046] Specifically, the driving member 202 further includes a first driving block 202g and a first movable plate 202h. The first driving block 202g is fixed to one side of the pressing block 202f, and the first movable plate 202h is located at one side of the first driving block 202g.
[0047] Three card slots and three limit slots are respectively provided on one side of the first movable plate 202h. When the pressing block 202f is pressed, the first driving block 202g will be driven to move, and the first driving block 202g will slide in the card slot. The movement of the first driving block 202g will squeeze the first movable plate 202h to move the first movable plate 202h. When the first driving block 202g is moved into the limit slot, the first movable plate 202h will limit the pressing block 202f. At this time, the second spring can be prevented from The rebound force of 202e drives the pressing block 202f to return to its original position. When another pressing block 202f is pressed, the first driving block 202g will slide in the slot to move the first movable plate 202h. At this time, the first movable plate 202h will drive the other two slots and the limit slot to move, and then the rebound force of the other two second springs 202e drives the pressing block 202f to return to its original position, so that the other two drain heads 201b can be closed, making one of the drain heads 201b waterproof.
[0048] Example 3
[0049] Reference Figures 4 to 6 , which is the third embodiment of the utility model, and this embodiment is based on the first two embodiments.
[0050] Specifically, the reset member 203 includes a moving bar 203a, a support sleeve 203b and a third spring 203c. The moving bar 203a is fixed to one side of the first movable plate 202h, the support sleeve 203b is sleeved on the outside of the moving bar 203a, the support sleeve 203b and the moving bar 203a are movably connected, and one end of the third spring 203c is fixed to one side of the moving bar 203a, and the other end is fixed to the inner wall of the support sleeve 203b.
[0051] When moving, the first movable plate 202h can drive the movable bar 203a to move, and the movable bar 203a can apply a squeezing force to the third spring 203c when moving. When the first driving block 202g is moved to one side of the limiting groove, the rebound force of the third spring 203c can drive the first movable plate 202h to return to its original position, so that the first driving block 202g is engaged with the limiting groove, thereby preventing the rebound force of the second spring 202e from driving the pressing block 202f to return to its original position. The support sleeve 203b is fixed to the inner wall of the water storage box 201a. The movable bar 203a can be supported by the setting of the support sleeve 203b to prevent the movable bar 203a from deflecting.
[0052] Specifically, the reset member 203 further includes a second driving block 203d and a second movable plate 203e. The second movable plate 203e is fixed to one side of the first movable plate 202h, and the second driving block 203d is located at one side of the second movable plate 203e.
[0053] A slide groove is provided on one side of the second movable plate 203e, and the second driving block 203d slides in the slide groove. When it is necessary to return all three pressing blocks 202f to their original positions, the second driving block 203d slides in the slide groove to squeeze the second movable plate 203e, so that the second movable plate 203e moves, and the second movable plate 203e drives the first movable plate 202h to move. The movement of the first movable plate 202h separates the limiting groove from the first driving block 202g, so that the first driving block 202g enters the slot, and then the pressing block 202f is driven to return to its original position by the rebound force of the second spring 202e, so that all three water discharge heads 201b can be closed.
[0054] Specifically, the reset member 203 also includes a reset block 203f, a reset rod 203g and a fourth spring 203h. The reset block 203f is fixed to one side of the second driving block 203d, the reset rod 203g is fixed to the bottom of the reset block 203f, and one end of the fourth spring 203h is fixed to the bottom of the reset block 203f, and the other end is fixed to the inner wall.
[0055] The reset block 203f is plugged into the top of the water storage box 201a, and the reset block 203f is movably connected to the water storage box 201a. The reset rod 203g is plugged into the top of the baffle 202c, and the reset rod 203g is movably connected to the baffle 202c. When the reset block 203f is pressed, the second driving block 203d can be driven to move. At the same time, the movement of the reset block 203f will drive the reset rod 203g to move, which can support the reset block 203f to prevent the reset block 203f from deflecting, and when the reset block 203f moves, an extrusion force can be applied to the fourth spring 203h. The movement of the reset block 203f drives the second driving block 203d to move. The movement of the second driving block 203d closes all three drain heads 201b, and then the reset block 203f is released. At this time, the rebound force of the fourth spring 203h drives the reset block 203f to return to its original position for next use.
[0056] During use, when it is necessary to add water to the water tank 103, firstly, water can be pumped into the water pipe 102 through the setting of the water pumping box 101, and then the water source is transported to the water storage box 201a by the water pipe 102. The water pumping box 101 belongs to the prior art, so it is not elaborated in detail. After the water source is transported to the water storage box 201a, the water discharge head 201b is opened at this time, so that the water source can be transported to the water tank 103 for subsequent testing.
[0057] There are three water discharge heads 201b, and the sizes of the three water discharge heads 201b are different. When discharging water, different water discharge amounts can be achieved. When the water discharge amount needs to be controlled according to different requirements, the pressing block 202f is pressed. When the pressing block 202f is pressed, the pressing block 202f can apply a squeezing force to the second spring 202e. The movement of the pressing block 202f will drive the first driving block 202g to move. The first driving block 202g will slide in the card slot. The movement of the first driving block 202g will squeeze the first movable plate 202h, so that the first movable plate 202h moves. When the first movable plate 202h moves, the movable bar 203a can be driven to move. When the movable bar 203a moves, the third spring 203c can be pressed to apply a squeezing force to the first driving block 202g, and the first driving block 202g can be moved to one side of the limiting groove. When the first driving block 202g is moved to one side of the limiting groove, the rebound force of the third spring 203c can drive the first movable plate 202h to return to its original position, so that the first driving block 202g is engaged with the limiting groove, thereby limiting the pressing block 202f and preventing the rebound force of the second spring 202e from driving the pressing block 202f to return to its original position.
[0058] The movement of the pressing block 202f drives the driving rod 202d to move, and the movement of the driving rod 202d can drive the pressing rod 202b to move, and the movement of the pressing rod 202b drives the spherical block 202a to move, and the movement of the spherical block 202a drives the pressing plate 201e to move. When the pressing plate 201e moves, it can apply a squeezing force to the first spring 201f, so that the closed door 201c can be opened. At this time, the water source can be transmitted from the drain head 201b to the water tank 103. When it is necessary to replace the drain head 201b to drain water, another pressing block 202f can be pressed. The pressing block 202f moves and the first movable plate 202h moves again. The movement of the first movable plate 202h drives the limiting groove to separate from the first driving block 202g. Then the rebound force of the second spring 202e drives the pressing block 202f to return to its original position. Then the rebound force of the first spring 201f drives the closing door 201c to return to its original position, so that the closing door 201c closes one of the drain heads 201b. At this time, the other closing door 201c will open, so that the other drain head 201b can drain water.
[0059] When it is necessary to close all three drain heads 201b, the reset block 203f is pressed. When the reset block 203f is pressed, the second driving block 203d can be driven to move. At the same time, the movement of the reset block 203f drives the reset rod 203g to move. When the reset block 203f moves, an extrusion force can be applied to the fourth spring 203h. The movement of the reset block 203f drives the second driving block 203d to move. The second driving block 203d slides in the slide groove to squeeze the second movable plate 203e, so that the second The movable plate 203e moves, and the second movable plate 203e drives the first movable plate 202h to move. The movement of the first movable plate 202h will separate the limiting groove from the first driving block 202g, so that the first driving block 202g enters the slot, and then the pressing block 202f is driven to return to its original position by the rebound force of the second spring 202e, so that all three drain heads 201b can be closed, and then the reset block 203f is released. At this time, the reset block 203f is driven to return to its original position by the rebound force of the fourth spring 203h for next use.
[0060] It should be noted that the above embodiments are only used to illustrate the technical solution of the utility model rather than to limit it. Although the utility model has been described in detail with reference to the preferred embodiments, ordinary technicians in the field should understand that the technical solution of the utility model can be modified or replaced by equivalents without departing from the spirit and scope of the technical solution of the utility model, which should be included in the scope of the claims of the utility model.
Claims
1. An incompressible fluid stable seepage simulation experimental device, characterized by: include, The main body component (100) comprises a water pumping box (101), a water delivery pipe (102), a water tank (103) and a workbench (104), wherein the water delivery pipe (102) is plugged into one side of the water pumping box (101), the water tank (103) is located at one end of the water delivery pipe (102), and the workbench (104) is fixed to the bottom of the water tank (103); The water discharge component (200) is arranged on the workbench (104), and comprises a water discharge component (201), a driving component (202) and a reset component (203); the water discharge component (201) is arranged at one end of the water delivery pipe (102), the driving component (202) is located on the water discharge component (201), and the reset component (203) is arranged on the driving component (202).
2. The incompressible fluid steady seepage simulation experimental device according to claim 1, characterized in that: The water discharge member (201) comprises a water storage box (201a) and a water discharge head (201b); the water storage box (201a) is fixed to the top of the water tank (103); the water delivery pipe (102) is plugged into one side of the water storage box (201a); and the water discharge head (201b) is fixed to one side of the water storage box (201a).
3. The incompressible fluid steady seepage simulation experimental device according to claim 2, characterized in that: The water discharge member (201) further comprises a closed door (201c) and a support shaft (201d); the closed door (201c) is arranged on one side of the water discharge head (201b); the support shaft (201d) is plugged into one side of the closed door (201c); and the support shaft (201d) and the closed door (201c) are movably connected.
4. The incompressible fluid steady seepage simulation experimental device according to claim 3, characterized in that: The water discharge member (201) further comprises a pressure plate (201e) and a first spring (201f); the pressure plate (201e) is fixed to one side of the closed door (201c); one end of the first spring (201f) is fixed to the bottom of the pressure plate (201e), and the other end is fixed to the inner wall of the water storage box (201a).
5. The incompressible fluid steady seepage simulation experimental device according to claim 4, characterized in that: The driving member (202) comprises a spherical block (202a), a pressure rod (202b) and a baffle (202c); the spherical block (202a) is plugged into the top of the pressure plate (201e); the spherical block (202a) is movably connected to the pressure plate (201e); the pressure rod (202b) is fixed to the top of the spherical block (202a); and the baffle (202c) is fixed to the inner wall of the water storage box (201a).
6. The incompressible fluid steady seepage simulation experimental device according to claim 5, characterized in that: The driving member (202) further comprises a driving rod (202d), a second spring (202e) and a pressing block (202f); the driving rod (202d) is fixed to the top of the pressing rod (202b); the second spring (202e) is sleeved on the outside of the driving rod (202d); the pressing block (202f) is fixed to the top of the driving rod (202d); the pressing block (202f) is plugged into the top of the water storage box (201a); and the pressing block (202f) is movably connected to the water storage box (201a).
7. The incompressible fluid steady seepage simulation experimental device according to claim 6, characterized in that: The driving member (202) further comprises a first driving block (202g) and a first movable plate (202h), wherein the first driving block (202g) is fixed to one side of the pressing block (202f), and the first movable plate (202h) is located on one side of the first driving block (202g).
8. The incompressible fluid steady seepage simulation experimental device according to claim 7, characterized in that: The reset member (203) comprises a moving bar (203a), a supporting sleeve (203b) and a third spring (203c); the moving bar (203a) is fixed to one side of the first movable plate (202h); the supporting sleeve (203b) is sleeved on the outside of the moving bar (203a); the supporting sleeve (203b) and the moving bar (203a) are movably connected; one end of the third spring (203c) is fixed to one side of the moving bar (203a), and the other end is fixed to the inner wall of the supporting sleeve (203b).
9. The incompressible fluid steady seepage simulation experimental device according to claim 7 or 8, characterized in that: The reset member (203) further comprises a second driving block (203d) and a second movable plate (203e), wherein the second movable plate (203e) is fixed to one side of the first movable plate (202h), and the second driving block (203d) is located on one side of the second movable plate (203e).
10. The incompressible fluid steady seepage simulation experimental device according to claim 9, characterized in that: The reset member (203) further comprises a reset block (203f), a reset rod (203g) and a fourth spring (203h); the reset block (203f) is fixed to one side of the second driving block (203d); the reset rod (203g) is fixed to the bottom of the reset block (203f); one end of the fourth spring (203h) is fixed to the bottom of the reset block (203f), and the other end is fixed to the inner wall.