Drainage pipeline for garden drainage

Abstract

According to the drainage pipeline for garden drainage, the flow direction of a water source is accurately controlled through a plurality of flow dividing openings and a containing and discharging assembly, a system comprises a drainage area, a containing and discharging area and a water storage pipeline, the containing and discharging area is provided with a first flow dividing opening and a second flow dividing opening in the water flow direction, and the first flow dividing opening and the second flow dividing opening communicate with a drainage adjusting net and the drainage area correspondingly; the system is further provided with a water stop valve and a backflow and drainage structure, the water source can flow back when necessary, efficient management of water flow is ensured, compared with a traditional technology, the water flow can be adjusted more flexibly and intelligently, the drainage effect is optimized, and the service life of the system is prolonged. The garden drainage efficiency and the water resource utilization rate are greatly improved.

Description

Technical Field

[0001] This application relates to the field of drainage, and more particularly to a drainage pipe for use in garden drainage. Background Technology

[0002] With the continuous development of landscaping, irrigation and drainage systems play a crucial role in ensuring the ecological environment and vegetation growth of parks. Traditional park drainage pipe designs often focus solely on drainage, promptly removing accumulated water without adequately considering the regulation and optimization of water sources. Traditional drainage systems typically allow rainwater and irrigation water to flow directly through pipes, neglecting the reuse and recycling of drainage water, leading to resource waste and low water treatment efficiency within the park.

[0003] In existing technologies, some garden drainage pipe systems attempt to regulate water flow by setting up diversion devices or reservoirs. However, these solutions mostly only guide water flow to the reservoir to a certain extent and fail to effectively divert and regulate water flow. For example, some drainage pipes use regulating valves to divert water, but they cannot effectively distribute the flow of water to different sources while the water is flowing into the reservoir. Furthermore, existing technologies lack the ability to divert and guide water flow in practical applications and do not consider the flexibility and real-time nature of garden drainage, making it impossible to accurately divert water flow according to different needs. Utility Model Content

[0004] In view of this, it is necessary to provide a drainage pipe for garden drainage that can optimize drainage in order to solve the above problems.

[0005] An embodiment of this application provides a drainage pipe for garden drainage, connected to a drainage regulating network, the drainage pipe for garden drainage comprising:

[0006] Drainage area, used for garden irrigation;

[0007] The drainage area is used to drain water from the drainage regulation network and is connected to an external water storage pipe. The drainage area has a first diversion port and a second diversion port along the flow direction of the water source. Both the first diversion port and the second diversion port are connected to the drainage regulation network and the drainage area. When the drainage area stops irrigating, the drainage area can divert the water source to the water storage pipe.

[0008] In at least one embodiment of this application, the leakage area further includes a first leakage component and a second leakage component;

[0009] Both the first and second leak-proof components are connected between the drainage regulating network and the drainage area. The first leak-proof component is connected to the drainage regulating network and forms the first diversion port at the contact end with the drainage regulating network. The second leak-proof component is connected to the drainage regulating network and forms the second diversion port at the contact end with the drainage regulating network.

[0010] In at least one embodiment of this application, the first leakage component includes a first stop valve structure and a first backflow discharge structure;

[0011] Along the length of the first leak-proof component, the first stop valve structure and the first backflow discharge structure are located at both ends of the first leak-proof component, and the first backflow discharge structure is arranged adjacent to the first diversion port and connected to the water storage pipe. The stop valve is used to cut off the water source flowing from the first diversion port to the drainage area, so that it flows back to the first backflow discharge structure, so that the backflow water source flows to the water storage pipe.

[0012] In at least one embodiment of this application, the second leakage component includes a second stop valve structure and a second backflow discharge structure;

[0013] Along the length of the second leak-proof assembly, the second stop valve structure and the second backflow discharge structure are located at both ends of the second leak-proof assembly, and the second backflow discharge structure is arranged adjacent to the second diversion port and connected to the water storage pipe. The stop valve is used to cut off the water source flowing from the second diversion port to the drainage area, so that it flows back to the second backflow discharge structure, so that the backflow water source flows to the water storage pipe.

[0014] In at least one embodiment of this application, the drained area includes a drainage component and a drive component;

[0015] Viewed along the length of the drainage assembly, the drive assembly is located at the free end of the drainage assembly. The drainage assembly is connected to the first and second containment assemblies respectively. The drive assembly is used to pressurize the water source in the drainage assembly so that the water source in the drainage structure is discharged.

[0016] In at least one embodiment of this application, the drainage assembly includes a pipe body and a drainage structure, the drainage structure being connected to the pipe body and used for spraying or atomizing water.

[0017] In at least one embodiment of this application, the drainage structure includes a direct flow port and a spray port, the direct flow port and the spray port are arranged adjacent to each other, and both the direct flow port and the spray port are connected to the pipe body. The driving component pressurizes the water source in the pipe body so that it sprays out along the direct flow port or forms atomized water droplets through the spray port.

[0018] In at least one embodiment of this application, the drive component includes a first pumping pump and a second pumping pump;

[0019] Viewed along the length of the pipe, the first pump and the second pump are respectively located at both ends of the pipe, with the first pump adjacent to the first leak-proof assembly and the second pump adjacent to the second leak-proof assembly.

[0020] In at least one embodiment of this application, the pipe body is provided with a third return drainage structure, which is connected to the water storage pipe. When the water pressure in the pipe body is too high, the third return drainage structure causes the water source in the pipe body to flow to the water storage pipe, thereby reducing the water pressure in the pipe body.

[0021] In at least one embodiment of this application, the water pipe is made of plastic.

[0022] The drainage pipes for garden drainage described above, by incorporating multiple diversion outlets and containment components, can precisely control the flow direction of water. When irrigation in the drainage area ceases, the containment area can divert water to the storage pipe, and the diversion outlets regulate the water flow while ensuring efficient water utilization. Furthermore, the invention's solution, through a meticulously designed stop valve and backflow discharge structure, ensures water can be returned when needed, thereby achieving efficient water resource management and optimized drainage. Compared to existing technologies, this invention achieves a more flexible and intelligent drainage system by diverting water sources, significantly improving the efficiency of garden drainage and water utilization. Attached Figure Description

[0023] Figure 1 A front view of a drainage pipe used for garden drainage;

[0024] Figure 2 An axial view of a drainage pipe used for garden drainage;

[0025] Figure 3 This is an axis view of the leakage area;

[0026] Figure 4 This is the front view of the spill containment area;

[0027] Figure 5 This is an axis view of the drainage area;

[0028] Figure 6 This is the main view of the drainage area.

[0029] Explanation of main component symbols

[0030] 2. Drainage area; 3. Containment area; 5. Water storage pipe; 6. First branch outlet; 7. Second branch outlet; 8. First containment component; 9. Second containment component; 10. First stop valve structure; 11. First backflow discharge structure; 12. Second stop valve structure; 13. Second backflow discharge structure; 14. Drainage component; 15. Drive component; 16. First pump; 17. Second pump; 18. Pipe body; 19. Drainage structure; 20. Straight outlet; 21. Spray nozzle; 22. Third backflow discharge structure; 100. A drainage pipe for garden drainage. Detailed Implementation

[0031] The embodiments of this application will now be described with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments.

[0032] It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or may also have an intervening component. When a component is considered to be "placed" on another component, it can be directly placed on the other component or may also have an intervening component. The terms "top," "bottom," "upper," "lower," "left," "right," "front," "back," and similar expressions used in this article are for illustrative purposes only.

[0033] An embodiment of this application provides a drainage pipe for garden drainage, connected to a drainage regulating network, the drainage pipe for garden drainage comprising:

[0034] Drainage area, used for garden irrigation;

[0035] The drainage area is used to drain water from the drainage regulation network and is connected to an external water storage pipe. The drainage area has a first diversion port and a second diversion port along the flow direction of the water source. Both the first diversion port and the second diversion port are connected to the drainage regulation network and the drainage area. When the drainage area stops irrigating, the drainage area can divert the water source to the water storage pipe.

[0036] The drainage pipes for garden drainage described above, by incorporating multiple diversion outlets and containment components, can precisely control the flow direction of water. When irrigation in the drainage area ceases, the containment area can divert water to the storage pipe, and the diversion outlets regulate the water flow while ensuring efficient water utilization. Furthermore, the invention's solution, through a meticulously designed stop valve and backflow discharge structure, ensures water can be returned when needed, thereby achieving efficient water resource management and optimized drainage. Compared to existing technologies, this invention achieves a more flexible and intelligent drainage system by diverting water sources, significantly improving the efficiency of garden drainage and water utilization.

[0037] The following is in conjunction with the appendix Figures 1-6 The following describes some embodiments of this application in detail. Unless otherwise specified, the embodiments and features described below can be combined with each other.

[0038] An embodiment of this application provides a drainage pipe 100 for garden drainage, connected to a drainage regulating network, the drainage pipe for garden drainage comprising:

[0039] Drainage zone 2 is used for garden irrigation;

[0040] The drainage area 3 is used to drain the water source of the drainage regulation network and is connected to the external water storage pipe 5. The drainage area 3 has a first diversion port 6 and a second diversion port 7 along the flow direction of the water source. The first diversion port 6 and the second diversion port 7 are both connected to the drainage regulation network and the drainage area 2. When the drainage area 2 stops irrigating, the drainage area 3 can divert the water source to the water storage pipe 5.

[0041] Specifically, the drainage zone 2, the containment zone 3, and the water storage pipe 5 are combined. Water is diverted through a first diversion port 6 and a second diversion port 7, optimizing the drainage process. Drainage zone 2 is used for garden irrigation, while the containment zone 3, through precise water flow regulation, ensures that water is directed to the water storage pipe 5. When irrigation in drainage zone 2 ceases, the containment zone 3 guides water to the water storage pipe 5 through the diversion ports, thus achieving water reuse and recycling. This design effectively avoids water waste and improves water resource utilization efficiency. By controlling the water flow to different pipes, the water treatment method can be flexibly adjusted according to the actual needs of the park, ensuring full utilization of water resources. In garden irrigation and large-scale greening projects, precise control based on water demand can improve drainage efficiency and reduce environmental problems caused by waterlogging. Compared with traditional drainage systems, precise water source control not only improves drainage efficiency but also optimizes resource use, especially in water-saving gardens, effectively improving the operational performance of the irrigation system.

[0042] Furthermore, the leakage area 3 also includes a first leakage component 8 and a second leakage component 9;

[0043] Both the first leak-proof component 8 and the second leak-proof component 9 are connected between the drainage regulating network and the drainage zone 2. The first leak-proof component 8 is connected to the drainage regulating network and forms the first diversion port 6 at the contact end with the drainage regulating network. The second leak-proof component 9 is connected to the drainage regulating network and forms the second diversion port 7 at the contact end with the drainage regulating network.

[0044] Specifically, a first drainage component 8 and a second drainage component 9 are designed in drainage area 3 to further enhance the regulation and control of water flow. Each drainage component is connected to the drainage regulation network and drainage area 2 through a diversion port. The core of this design lies in the precise control of water flow direction through the setting of the first and second drainage components 9, making water diversion more flexible and water distribution more accurate. The first drainage component 8 and the second drainage component 9 are connected by a stop valve and a return discharge structure to ensure that water can be returned when needed, preventing excessive water flow to drainage area 2. This precise water flow control not only optimizes the effect of garden drainage but also ensures the efficient use of water resources and avoids resource waste. Through the diversion function of the drainage components, the drainage volume can be flexibly adjusted according to the water needs of different parts of the park, ensuring that the park's irrigation system can still operate stably under different environmental conditions. This design is particularly suitable for large-scale gardens and farmland irrigation, optimizing water resource management and distribution while ensuring drainage efficiency.

[0045] Furthermore, the first leakage assembly 8 includes a first stop valve structure 10 and a first backflow discharge structure 11;

[0046] Along the length of the first leak-proof assembly 8, the first stop valve structure 10 and the first backflow drainage structure 11 are located at both ends of the first leak-proof assembly 8, and the first backflow drainage structure 11 is arranged adjacent to the first diversion port 6 and connected to the water storage pipe 5. The stop valve is used to cut off the water source flowing from the first diversion port 6 to the drainage area 2, so that it flows back to the first backflow drainage structure 11, so that the backflow water source flows to the water storage pipe 5.

[0047] Specifically, in the first drainage component 8, the combined design of the stop valve and the return drainage structure further enhances the water flow regulation capability. The stop valve structure can cut off the water source flowing to the drainage area 2, thereby preventing excess water from flowing into the drainage system and ensuring water return. The return drainage structure can guide the cut-off water source to the storage pipe 5 through the return pipe. Through this design, when irrigation in the drainage area 2 stops, the water flow can be efficiently returned to the storage pipe 5 through the return structure, avoiding water waste and maintaining the continuous flow of water within the system. This feature has significant beneficial effects on garden drainage systems, especially when water flow needs to be controlled, effectively reducing water flow fluctuations and improving the reliability of the drainage system. In agricultural irrigation, especially in water-saving irrigation systems, the water return function maximizes resource utilization, reduces waste, and lowers dependence on external water sources.

[0048] Furthermore, the second leakage assembly 9 includes a second stop valve structure 12 and a second backflow discharge structure 13;

[0049] Along the length of the second leak-proof assembly 9, the second stop valve structure 12 and the second backflow discharge structure 13 are located at both ends of the second leak-proof assembly 9, and the second backflow discharge structure 13 is arranged adjacent to the second diversion port 7 and connected to the water storage pipe 5. The stop valve is used to cut off the water source flowing from the second diversion port 7 to the drainage area 2, so that it flows back to the second backflow discharge structure 13, so that the backflow water source flows to the water storage pipe 5.

[0050] Specifically, the stop valve and backflow drainage structure enable more precise control of water flow and direction. The second stop valve structure 12 is responsible for cutting off the water flow from the second branch port 7 to the drainage area 2, ensuring that the water flows back to the storage pipe 5 as needed. The second backflow drainage structure 13 guides the water flow back, avoiding water waste. This backflow design effectively reduces water accumulation inside the system and ensures that the water always flows along the set path, avoiding unnecessary water loss. Compared with traditional water flow guiding devices, the backflow function of the second drainage component 9 greatly enhances water flow control and water resource utilization efficiency, especially in garden drainage and agricultural irrigation, where precise water flow regulation is required. In addition, this design also helps reduce fluctuations in water pressure within the pipe, improving system stability and operating efficiency, and is suitable for various types of drainage and irrigation systems.

[0051] Furthermore, the drainage zone 2 includes a drainage assembly 14 and a drive assembly 15;

[0052] Viewed along the length direction perpendicular to the drainage assembly 14, the drive assembly 15 is located at the free end of the drainage assembly 14. The drainage assembly 14 is connected to the first drain assembly 8 and the second drain assembly 9 respectively. The drive assembly 15 is used to pressurize the water source in the drainage assembly 14 so that the water source in the drainage structure 19 is discharged.

[0053] Specifically, the combined design of drainage component 14 and drive component 15 in drainage zone 2 enhances the drainage efficiency of the drainage pipe. Drainage component 14, connected to the containment component, ensures smooth water flow. Drive component 15, as the core component, pressurizes the water within drainage component 14, enabling rapid drainage and preventing water accumulation from adversely affecting the garden or agricultural environment. The pressure provided by drive component 15 allows water to flow quickly to the drainage system or storage pipe 5, ensuring the stability of the drainage system. This design is particularly suitable for parks or agricultural irrigation systems requiring rapid drainage, quickly removing excess water and preventing excessive soil moisture or equipment damage due to water accumulation. Furthermore, the drive component 15 can regulate water pressure to meet the drainage needs of different areas and environments, achieving efficient drainage management.

[0054] Furthermore, the drainage assembly 14 includes a pipe body 18 and a drainage structure 19, the drainage structure 19 being connected to the pipe body 18 and used for spraying or atomizing water.

[0055] Specifically, the combination of the direct-flow outlet 20 and the sprinkler outlet 21 provides two different water flow patterns to meet different drainage needs. The direct-flow outlet 20 discharges water directly, while the sprinkler outlet 21 sprays or atomizes the water, making it particularly suitable for garden irrigation and the need for moist environments in farmland. The design of the sprinkler outlet 21 creates fine water droplets during spraying, reducing evaporation and improving water resource utilization efficiency. This design not only enhances the precision of garden irrigation but also ensures efficient water utilization under different irrigation needs. For example, in high-temperature environments, the sprinkler outlet 21 effectively reduces water evaporation and keeps the soil moist, while in low-temperature environments, the direct-flow outlet 20 quickly discharges water. This flexible combination of water flow patterns improves the adaptability and efficiency of the drainage system, allowing for flexible adjustment of the water flow pattern and flow rate according to actual needs.

[0056] Furthermore, the drainage structure 19 includes a direct flow port 20 and a spray port 21, the direct flow port 20 and the spray port 21 are arranged adjacent to each other, and both the direct flow port 20 and the spray port 21 are connected to the pipe body 18. The drive assembly 15 pressurizes the water source in the pipe body 18 so that it is sprayed out along the direct flow port 20 or formed into atomized water droplets through the spray port 21.

[0057] Specifically, the combination of the direct-flow port 20 and the sprinkler port 21 not only adapts to conventional drainage needs but also allows for flexible adjustment of the water flow pattern during irrigation. The sprinkler port 21 atomizes the water, forming fine droplets for even spraying, making it particularly suitable for environments with strict water requirements, such as landscaping and farmland irrigation. The direct-flow port 20 provides a larger water flow, accommodating large-area drainage needs. Through the rational configuration of the direct-flow port 20 and the sprinkler port 21, the drainage system can flexibly respond to different water flow demands, ensuring not only even water distribution but also improved irrigation efficiency and reduced water waste. This design ensures optimal irrigation results under different climatic and soil conditions, preventing excessive evaporation and improving water resource utilization.

[0058] Furthermore, the drive assembly 15 includes a first pumping pump 16 and a second pumping pump 17;

[0059] Viewed along the length of the pipe body 18, the first pumping pump 16 and the second pumping pump 17 are respectively located at both ends of the pipe body 18, and the first pumping pump 16 is arranged adjacent to the first leakage assembly 8, and the second pumping pump 17 is arranged adjacent to the second leakage assembly 9.

[0060] Specifically, the design of the first and second pumps 16 and 17 gives the drainage system a powerful pressurization capacity, providing the necessary pressure under different water flow demands to ensure smooth water discharge. The pumps not only improve drainage efficiency but also automatically adjust the water pressure according to varying drainage needs. Located at opposite ends of the pipe body 18, the first and second pumps 17 apply pressure evenly to the water in the drainage pipe, ensuring smooth water discharge and preventing water accumulation. This design is particularly suitable for park drainage systems, especially in landscaping and agricultural irrigation, where it can quickly remove accumulated water, ensuring a dry and clean environment.

[0061] Furthermore, the pipe body 18 is provided with a third return drainage structure 22, which is connected to the water storage pipe 5. When the water pressure in the pipe body 18 is too high, the third return drainage structure 22 causes the water source in the pipe to flow to the water storage pipe 5, so as to reduce the water pressure in the pipe body 18.

[0062] Specifically, the third backflow drainage structure 22, installed on the pipe body 18, guides excessively high water pressure to the storage pipe 5, thereby preventing damage caused by excessive water pressure within the pipe. This design plays a crucial role in ensuring the stable operation of the drainage pipe during long-term use and preventing pipe deformation or rupture due to excessive water pressure. Through this sophisticated backflow drainage structure, the water flow direction can be effectively controlled when water pressure is too high, maintaining stable water flow within the pipe and preventing water flow disturbances or system malfunctions. This design not only improves the safety of the drainage system but also optimizes water resource management, ensuring a continuous and stable flow of water to the storage pipe 5, thus enhancing the system's sustainability and reliability.

[0063] Furthermore, the water pipe is made of plastic.

[0064] Specifically, the plastic material used in drainage pipes not only has excellent corrosion resistance but also ensures the stability of the pipes during long-term use. Plastic water pipes are lightweight, making them easy to install and maintain, while their corrosion resistance ensures that the pipes are unaffected by the external environment when in contact with water. This characteristic makes plastic water pipes ideal for garden irrigation and agricultural drainage systems, maintaining a long service life in various environments and reducing maintenance costs. The installation of plastic pipes makes the entire drainage system more economical and sustainable, while reducing the problems of corrosion and rusting that are common with traditional metal pipes, ensuring the cleanliness and stability of water flow throughout the system.

[0065] The above description is merely an embodiment of this application. It should be noted that those skilled in the art can make improvements without departing from the inventive concept of this application, but these improvements all fall within the protection scope of this application.

Claims

1. A drainage pipe for garden drainage, connected to a drainage regulating network, characterized in that, The drainage pipes used for garden drainage include: Drainage area, used for garden irrigation; The drainage area is used to drain water from the drainage regulation network and is connected to an external water storage pipe. The drainage area has a first diversion port and a second diversion port along the flow direction of the water source. Both the first diversion port and the second diversion port are connected to the drainage regulation network and the drainage area. When the drainage area stops irrigating, the drainage area can divert the water source to the water storage pipe.

2. The drainage pipe for garden drainage according to claim 1, characterized in that, The leakage area further includes a first leakage component and a second leakage component; Both the first and second leak-proof components are connected between the drainage regulating network and the drainage area. The first leak-proof component is connected to the drainage regulating network and forms the first diversion port at the contact end with the drainage regulating network. The second leak-proof component is connected to the drainage regulating network and forms the second diversion port at the contact end with the drainage regulating network.

3. The drainage pipe for garden drainage according to claim 2, characterized in that, The first leakage assembly includes a first stop valve structure and a first backflow discharge structure; Along the length of the first leak-proof component, the first stop valve structure and the first backflow discharge structure are located at both ends of the first leak-proof component, and the first backflow discharge structure is arranged adjacent to the first diversion port and connected to the water storage pipe. The stop valve is used to cut off the water source flowing from the first diversion port to the drainage area, so that it flows back to the first backflow discharge structure, so that the backflow water source flows to the water storage pipe.

4. The drainage pipe for garden drainage according to claim 2, characterized in that, The second leakage assembly includes a second stop valve structure and a second backflow discharge structure; Along the length of the second leak-proof assembly, the second stop valve structure and the second backflow discharge structure are located at both ends of the second leak-proof assembly, and the second backflow discharge structure is arranged adjacent to the second diversion port and connected to the water storage pipe. The stop valve is used to cut off the water source flowing from the second diversion port to the drainage area, so that it flows back to the second backflow discharge structure, so that the backflow water source flows to the water storage pipe.

5. The drainage pipe for garden drainage according to claim 3, characterized in that, The drainage area includes drainage components and drive components; Viewed along the length of the drainage assembly, the drive assembly is located at the free end of the drainage assembly. The drainage assembly is connected to the first and second containment assemblies respectively. The drive assembly is used to pressurize the water source in the drainage assembly so that the water source in the drainage assembly is discharged.

6. The drainage pipe for garden drainage according to claim 5, characterized in that, The drainage assembly includes a pipe body and a drainage structure, the drainage structure being connected to the pipe body and used for spraying or atomizing water.

7. The drainage pipe for garden drainage according to claim 6, characterized in that, The drainage structure includes a direct flow port and a spray port. The direct flow port and the spray port are arranged adjacent to each other and are both connected to the pipe body. The driving component pressurizes the water source in the pipe body so that it is sprayed out along the direct flow port or atomized into water droplets through the spray port.

8. The drainage pipe for garden drainage according to claim 7, characterized in that, The drive assembly includes a first pumping pump and a second pumping pump; Viewed along the length of the pipe, the first pump and the second pump are respectively located at both ends of the pipe, with the first pump adjacent to the first leak-proof assembly and the second pump adjacent to the second leak-proof assembly.

9. The drainage pipe for garden drainage according to claim 6, characterized in that, The pipe body is equipped with a third return drainage structure, which is connected to the water storage pipe. When the water pressure in the pipe body is too high, the third return drainage structure causes the water source in the pipe body to flow to the water storage pipe, thereby reducing the water pressure in the pipe body.

10. The drainage pipe for garden drainage according to claim 1, characterized in that, The water pipe is made of plastic.

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