A sloped water level balance soil-filled water storage flower pond structure

Abstract

This utility model relates to the field of landscaping technology, specifically a sloped water level balancing soil-filled water-storage flower bed structure. A main pipe is installed at the bottom of the flower bed space, with branch pipes extending upwards. Each branch pipe has a drain outlet connected to the main pipe, with the drain outlet at a distance H1 from the bottom of the flower bed space. When maintenance personnel water the flower bed or during rain, water can be stored at the bottom of the flower bed space to meet the needs of flower and plant growth. When the water level rises to H1, excess water in the flower bed space can enter the main pipe through the drain outlet and be discharged outside the flower bed, preventing the death of plants due to excessive water storage. This effectively solves the problem of existing flower beds, which, while using drains at the bottom to ensure the growth of flowers and plants, require regular watering by maintenance personnel, increasing labor and time costs and wasting water resources.

Description

Technical Field

[0001] This utility model relates to the field of landscape technology, specifically a soil-filled water-retaining flower pond structure with sloping water level balance. Background Technology

[0002] In urban planning and construction, flower beds are often set up around public buildings and along city roads to beautify the public environment and improve the overall greening level of the city. These flower beds not only add vitality and color to the urban space, but also effectively play their greening role by planting various flowers and green plants, which helps to improve air quality, regulate microclimate, reduce noise pollution, and provide citizens with a more pleasant environment for leisure and activities.

[0003] Existing flower beds often have floor drains at the bottom for quick drainage. While this ensures the suitable growth of flowers and plants in the flower beds, it also requires maintenance personnel to water the flower beds regularly during the maintenance process, which not only increases labor and time costs but also leads to a waste of water resources.

[0004] This utility model was proposed in response to the shortcomings of the existing technology. Utility Model Content

[0005] The existing flower beds mentioned above, which use drains at the bottom for rapid drainage, while ensuring the growth of flowers and plants, require regular watering by maintenance personnel, increasing labor and time costs and wasting water. The technical solution adopted by this utility model to solve this problem is:

[0006] A sloped water level balancing soil-filled water-retaining flower bed structure includes a base material enclosing a water-retaining and inclined flower bed space. The bottom of the flower bed space is provided with a main pipe extending along the length of the flower bed space. The main pipe is provided with an upward-extending branch pipe. The branch pipe is provided with a drain outlet connected to the main pipe. The distance between the drain outlet and the bottom of the flower bed space is H, where H is less than the height of the flower bed space.

[0007] Furthermore, the flower bed space is provided with inverted retaining walls spaced at intervals along the direction of the main pipe, the main pipe passes through the inverted retaining walls, and the flower bed space forms several independent water storage areas through the inverted retaining walls.

[0008] Furthermore, each of the main pipes in the water storage area is provided with a corresponding branch pipe, and each of the branch pipes is provided with a drain outlet connected to the main pipe.

[0009] Furthermore, the branch pipe is located on the side of the water storage area with the lower water level.

[0010] Furthermore, a waterproof seal is provided between the anti-reflective partition and the main pipeline.

[0011] Furthermore, a connecting joint is provided between the main pipeline and the branch pipeline, and the branch pipeline is perpendicularly connected to the main pipeline through the connecting joint.

[0012] Furthermore, the drain outlet is provided with a filter element to prevent impurities from entering the drain outlet.

[0013] Furthermore, the height H of the drain outlet from the bottom of the flower bed space is less than half the height of the flower bed space.

[0014] Furthermore, both the main pipe and the branch pipe are made of plastic.

[0015] Furthermore, the main pipe and the branch pipe have the same dimensions.

[0016] The beneficial effects of this utility model are as follows:

[0017] This invention features a main drainage pipe at the bottom of the flower bed, with branch pipes extending upwards. Each branch pipe has a drain outlet connected to the main pipe, and the distance from the drain outlet to the bottom of the flower bed is H1. When maintenance personnel water the flower bed or during rain, water can be stored at the bottom of the flower bed, ensuring water storage in the middle or upper part of the sloping flower bed. This guarantees the growth of flowers and plants, reducing the frequency of watering and saving time and labor costs. When the water level rises to H1, excess water in the flower bed can enter the main pipe through the drain outlet and be discharged outside the flower bed, preventing plant death due to excessive water accumulation. This effectively solves the problem of existing flower beds, which, while using drains at the bottom to ensure the growth of flowers and plants, require regular watering, increasing labor and time costs and wasting water resources.

[0018] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0019] Figure 1 This is one of the structural schematic diagrams of the flower bed space of this utility model;

[0020] Figure 2 This is the second schematic diagram of the structure of the flower bed space of this utility model. Detailed Implementation

[0021] The embodiments of this utility model will now be described in detail with reference to the accompanying drawings.

[0022] like Figures 1 to 2 The diagram shows a sloped water level balance soil-filled water-retaining flower bed structure, which includes a base material enclosing a water-retaining and inclined flower bed space 1. The bottom of the flower bed space 1 is provided with a main pipe 2 extending along the length of the flower bed space 1. The main pipe 2 is provided with an upwardly extending branch pipe 3. The branch pipe 3 is provided with a drain outlet 4 connected to the main pipe 2. The distance between the drain outlet 4 and the bottom of the flower bed space 1 is H1, and H1 is less than the height of the flower bed space 1.

[0023] This invention features a main drainage pipe at the bottom of the flower bed, with branch pipes extending upwards. Each branch pipe has a drain outlet connected to the main pipe, and the distance from the drain outlet to the bottom of the flower bed is H1. When maintenance personnel water the flower bed or during rain, water can be stored at the bottom of the flower bed, ensuring water storage in the middle or upper part of the sloping flower bed. This guarantees the growth of flowers and plants, reducing the frequency of watering and saving time and labor costs. When the water level rises to H1, excess water in the flower bed can enter the main pipe through the drain outlet and be discharged outside the flower bed, preventing plant death due to excessive water accumulation. This effectively solves the problem of existing flower beds, which, while using drains at the bottom to ensure the growth of flowers and plants, require regular watering, increasing labor and time costs and wasting water resources.

[0024] Furthermore, when maintenance personnel water the flower beds or when it rains, the water can be stored at the bottom of the flower bed space 1, thereby ensuring that the middle or upper part of the inclined flower bed space 1 can also store water, thus alleviating the situation where the middle or upper part of the inclined flower bed space 1 cannot store water, resulting in poor watering efficiency.

[0025] Furthermore, the distance between the drainage outlet 4 and the bottom of the flower bed space 1 is H1, and H1 is less than the filling height of the flower bed space 1.

[0026] like Figures 1 to 2 The flower bed space 1 shown is provided with inverted retaining walls 5 spaced apart along the direction of the main pipe 2. The main pipe 2 passes through the inverted retaining walls 5, and the flower bed space 1 forms several independent water storage areas 11 through the inverted retaining walls 5.

[0027] Furthermore, by setting up the inverted partition 5, the flower bed space 1 is divided into multiple independent water storage areas 11. The separated water storage areas 11 can effectively suppress water level fluctuations caused by watering or rainfall. The water level changes between different water storage areas 11 will not affect each other, which is conducive to reducing the risk of waterlogging or drought to the plants and helps to maintain the stability of the environment in the flower bed.

[0028] Furthermore, the flower bed space 1 is set on a slope, and the tilt angle of the flower bed space 1 is the same as the slope. The flower bed on the slope is easily affected by gravity and slope, which can cause the soil and plants to slip. The setting of the anti-slope partition 5 can effectively prevent the movement of soil and roots, ensure the stable growth of plants, and help reduce the work of maintenance personnel to repair and adjust frequently.

[0029] Furthermore, during the rainy season or heavy rain, water flow on the slope tends to concentrate and flow rapidly. The separated water storage area 11 can effectively disperse the runoff, which helps to reduce the pressure in local high water pressure areas and prevent soil erosion and plant damage caused by concentrated water flow.

[0030] Optionally, the cross-section of the inverted partition 5 is rectangular.

[0031] like Figures 1 to 2 Each of the main pipes 2 in each of the water storage areas 11 shown is provided with a branch pipe 3, and each of the branch pipes 3 is provided with a drain outlet 4 that is connected to the main pipe 2.

[0032] Specifically, the main pipe 2 extends along the length of the flower bed space 1. The main pipe 2 passes through the spaced-out inverted partitions 5 in sequence. The inverted partitions 5 divide the flower bed space 1 into several independent water storage areas 11. The main pipe 2 passes through several independent water storage areas 11 in sequence. Each independent water storage area 11 has a branch pipe 3 on the main pipe 2 extending upwards. Each branch pipe 3 has a drain outlet 4 that communicates with the main pipe 2.

[0033] Furthermore, each water storage area 11 is independently equipped with a drainage outlet 4, which can effectively prevent local water accumulation. During the rainy season or artificial irrigation, if there is too much water in a certain water storage area 11, the water will quickly enter the main pipe 2 through the corresponding drainage outlet 4 and be discharged, which helps to prevent plants from being flooded or their roots from being soaked in excessive water for a long time.

[0034] Furthermore, each water storage area 11 is independently equipped with a drainage outlet 4, which helps to enhance the stability and reliability of the flower bed. Even if the drainage outlet 4 of a certain water storage area 11 has a problem, it will not affect other water storage areas 11, thereby improving the risk resistance of the entire system.

[0035] like Figures 1 to 2 The branch pipe 3 shown is located on the side with the lower water level of the water storage area 11;

[0036] Specifically, the flower bed space 1 is set on a slope, and the inclination angle of the flower bed space 1 is the same as the slope. The drain outlet 4 on each water storage area 11 is located on the side with the lower water level, which is conducive to the natural flow of water to the drain outlet 4 by gravity, which helps to ensure that excess water can be discharged quickly, reduce the potential risk of water accumulation, and protect the plant roots from damage. Secondly, the setting of the branch pipe 3 close to the adjacent water storage area 11 makes it easier for the water flow to concentrate to the drain outlet 4, which helps to avoid the situation that water will stay in the water storage area 11 for a long time, effectively reducing the risk of waterlogging of plant roots and improving the health of plant growth.

[0037] like Figures 1 to 2 A waterproof seal is provided between the inverted partition 5 and the main pipe 2 shown;

[0038] Specifically, the main pipe 2 passes through the spaced-out inverted retaining walls 5 in sequence. A gap is formed at the connection between the main pipe 2 and the inverted retaining walls 5. The waterproof sealant is a sealing material. By applying the sealing material to the gap, it can effectively prevent water from leaking out of the gap, which is conducive to maintaining the water level stability in each water storage area 11, reducing the problem of water shortage caused by water loss, and ensuring the healthy growth of plants.

[0039] Furthermore, by applying sealing material to the gaps, the airtightness between each water storage area 11 is enhanced, preventing water leakage through the gaps.

[0040] Optionally, in some embodiments, the waterproof sealant is a silicone sealant, which is resistant to ultraviolet rays and high temperatures. Applying the silicone sealant evenly to the connection between the inverted partition 5 and the main pipe 2 can achieve good sealing.

[0041] Optionally, in some embodiments, the waterproof sealant is a sealing putty composed of a mixture of various materials, such as cement, gypsum, and asbestos, which has good filling and sealing properties and can be applied to the connection between the inverted partition 5 and the main pipe 2.

[0042] like Figures 1 to 2 A connecting joint is provided between the main pipe 2 and the branch pipe 3 shown, and the branch pipe 3 is perpendicularly connected to the main pipe 2 through the connecting joint;

[0043] Furthermore, the branch pipe 3 is connected to the main pipe 2 through a connecting joint, which simplifies the installation process and facilitates the maintenance and replacement of pipes by the user. The setting of the connecting joint allows the user to connect the branch pipe 3 and the main pipe 2 more quickly and accurately, which helps to reduce construction time and labor costs.

[0044] Furthermore, the perpendicular connection between the branch pipe 3 and the main pipe 2 ensures a relatively smooth change in the direction of water flow, reducing turbulence and pressure loss at the connection point between the branch pipe 3 and the main pipe 2, thereby improving the overall drainage efficiency and ensuring the normal operation of the system.

[0045] like Figures 1 to 2 The drain outlet 4 shown is equipped with a filter element to prevent impurities from entering the drain outlet 4;

[0046] Furthermore, the filter element effectively blocks solid impurities in the water from entering the drain outlet 4, such as sand, mud, and gravel, preventing these impurities from entering the drain outlet 4 and causing blockage. This helps to keep the drain outlet 4 unobstructed and ensures that excess water in the water storage area 11 can be discharged smoothly.

[0047] Optionally, in some embodiments, the filter element is a metal mesh filter, which is made of fine metal mesh. Installing the metal mesh filter at the drain outlet 4 can effectively intercept relatively large impurities such as leaves and sand.

[0048] Optionally, in some embodiments, the filter element is a plastic mesh filter made of polypropylene or polyethylene material. Installing the plastic mesh filter to the drain outlet 4 can effectively block weeds and soil particles.

[0049] Optionally, in some embodiments, the filter element is a non-woven fabric. Non-woven fabric has good air permeability and filtration performance. Its fiber structure is relatively loose, which can filter out large particles in the water, such as sand, mud, gravel, etc., while ensuring basic fluidity. This can effectively prevent these impurities from entering the drain outlet 4 and avoid clogging of the drain outlet 4.

[0050] like Figures 1 to 2 The distance H1 from the drain outlet 4 to the bottom of the flower bed space 1 is less than half the height of the flower bed space 1;

[0051] Preferably, the height of the drain outlet 4 should not exceed the depth of the plant roots.

[0052] Specifically, the height of the drain outlet 4 depends on several factors: the type of plants planted in the flower bed space 1, soil conditions, and the filling height of the flower bed space 1. Users can set the height of the drain outlet 4 according to the actual situation. The height H1 of the drain outlet 4 from the bottom is adjusted according to the plant's water tolerance, soil permeability, and the filling height of the flower bed space 1. This helps prevent plant roots from being soaked in water for a long time. For most flowers and plants, the roots need to be kept moderately moist to prevent root rot caused by water accumulation, thereby maintaining healthy plant growth.

[0053] like Figures 1 to 2Both the main pipe 2 and the branch pipe 3 shown are made of plastic.

[0054] Furthermore, both the main pipe 2 and the branch pipe 3 are made of plastic, so that the main pipe 2 and the branch pipe 3 can exhibit good corrosion resistance in various acid and alkaline environments and are not easily corroded by chemical substances. This not only extends the service life of the pipes, but also helps to reduce the risk of frequent replacement and maintenance caused by corrosion problems.

[0055] Furthermore, both the main pipe 2 and the branch pipe 3 are made of plastic. Compared with metal, plastic is lighter and easier to handle and install, which helps to reduce construction difficulty and effectively reduce installation costs.

[0056] Optionally, in some embodiments, both the main pipe 2 and the branch pipe 3 are made of polyethylene (PE). PE pipes have good corrosion resistance, long service life, light weight, high strength, good toughness, and convenient construction. They can be widely used in building water supply, building drainage, buried drainage pipes, urban water supply and other fields.

[0057] Furthermore, as a preferred embodiment of this utility model and not a limitation thereof, both the main pipe 2 and the branch pipe 3 are made of polyvinyl chloride (PVC). PVC pipes are commonly used in urban drainage and sewage systems. PVC pipes have excellent physical and chemical properties, are resistant to chemical corrosion, have high impact strength, and low fluid resistance.

[0058] like Figures 1 to 2 The dimensions of the main pipe 2 and the branch pipe 3 shown are the same;

[0059] Furthermore, the main pipe 2 and the branch pipe 3 are the same size, so that users can reduce the complexity caused by different pipe sizes during construction. Users do not need to prepare multiple sizes of pipes and connectors, thereby effectively improving construction efficiency.

[0060] Furthermore, the same size for the main pipe 2 and the branch pipe 3 helps ensure consistent water flow in the system, avoids mismatch in water flow between the main pipe 2 and the branch pipe 3, and helps ensure the overall flow stability of the drainage system.

[0061] Specifically, the main pipe 2 and the branch pipe 3 should preferably be round pipes with a diameter of 80mm.

[0062] The implementation method of this embodiment is as follows:

[0063] A sloped, water-level balanced soil-filled flower bed structure includes a base material enclosing a water-storing, sloped flower bed space 1. The bottom of the flower bed space 1 has a main pipe 2 extending along its length, and inverted retaining walls 5 spaced at intervals along the main pipe 2. The inverted retaining walls 5 divide the flower bed space 1 into several independent water-storing areas 11. The main pipe 2 passes through the inverted retaining walls 5 sequentially. A branch pipe 3 extends upwards from the main pipe 2 in each water-storing area 11. Each branch pipe 3 has a drain outlet 4 connected to the main pipe 2. The distance between the drain outlet 4 and the bottom of the flower bed space 1 is H1. When maintenance personnel water the flower bed or during rain, the water... It can store water at the bottom of the flower bed space 1 to meet the needs of flower and plant growth, which helps reduce the number of times maintenance personnel need to water regularly, saving time and labor costs. When the water level rises to H1, excess water in the flower bed space 1 can enter the main pipe 2 through the drain outlet 4 and be discharged outside the flower bed, preventing the plants from dying due to excessive water storage. It effectively solves the problem that while existing flower beds can ensure the growth of flowers and plants by installing floor drains at the bottom, they still require maintenance personnel to water the flower beds regularly in the future, which not only increases labor and time costs but also leads to water waste. Flower bed space 1 is set on a slope with the same inclination angle as the slope. The drain outlet 4 on each water storage area 11 is located on the side with the lower water level, which is conducive to the natural flow of water to the drain outlet 4 by gravity. This helps to ensure that excess water can be discharged quickly, reduce the potential risk of water accumulation, and protect the plant roots from damage. Secondly, the setting of branch pipe 3 close to the adjacent water storage area 11 makes it easier for the water flow to concentrate to the drain outlet 4, which helps to avoid the situation that water will stay in the water storage area 11 for a long time, effectively reducing the risk of waterlogging of plant roots and improving the health of plant growth.

[0064] The above examples are merely illustrative of the technical content of this utility model to facilitate reader understanding, but do not imply that the implementation of this utility model is limited to these embodiments. Any technical extensions or re-creations made based on this utility model are protected by this utility model. The scope of protection of this utility model is defined by the claims.

Claims

1. A sloped water level balancing soil-filled water-retaining flower bed structure, comprising a base material enclosing a water-retaining and inclined flower bed space (1), characterized in that: The bottom of the flower bed space (1) is provided with a main pipe (2) extending along the length of the flower bed space (1). The main pipe (2) is provided with an upward-extending branch pipe (3). The branch pipe (3) is provided with a drain outlet (4) connected to the main pipe (2). The distance between the drain outlet (4) and the bottom of the flower bed space (1) is H1, and H1 is less than the height of the flower bed space (1).

2. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: The flower bed space (1) is provided with inverted partitions (5) spaced apart along the direction of the main pipe (2), the main pipe (2) passes through the inverted partitions (5), and the flower bed space (1) forms several independent water storage areas (11) through the inverted partitions (5).

3. The sloped water level balance soil-filled water storage flower pond structure according to claim 2, characterized in that: Each main pipe (2) in each water storage area (11) is provided with a branch pipe (3), and each branch pipe (3) is provided with a drain outlet (4) connected to the main pipe (2).

4. The sloped water level balance soil-filled water storage flower pond structure according to claim 3, characterized in that: The branch pipe (3) is located on the side with the lower water level of the water storage area (11).

5. The sloped water level balance soil-filled water storage flower pond structure according to claim 2, characterized in that: A waterproof seal is provided between the inverted partition (5) and the main pipe (2).

6. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: A connecting joint is provided between the main pipe (2) and the branch pipe (3), and the branch pipe (3) is perpendicularly connected to the main pipe (2) through the connecting joint.

7. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: The drain outlet (4) is provided with a filter element to prevent impurities from entering the drain outlet (4).

8. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: The height H1 of the drain outlet (4) from the bottom of the flower bed space (1) is less than half the height of the flower bed space (1).

9. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: Both the main pipe (2) and the branch pipe (3) are made of plastic.

10. The sloped water level balance soil-filled water storage flower pond structure according to claim 1, characterized in that: The main pipe (2) has the same dimensions as the branch pipe (3).

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