Intelligent flower pot and irrigation system
By designing intelligent flower pots and irrigation systems, and using water tanks, overflow channels, electronic water injection valves and water level detectors to achieve automated irrigation, the problems of time-consuming and labor-intensive irrigation methods and waste of water resources are solved, ensuring the stability of irrigation quality and healthy growth of plants.
Patent Information
- Application Number
- CN202420547748.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-03-20
- Publication Date
- 2025-04-11
- Estimated Expiration
- 2034-03-20
AI Technical Summary
The existing flower pot irrigation methods are time-consuming and labor-intensive, which can easily cause waste of water resources, and the irrigation quality is difficult to stabilize and control, which can easily cause the plant roots to rot or dry up, and thus cause plant death.
An intelligent flower pot and irrigation system was designed, including multiple intelligent flower pots connected in series through watering tanks and overflow channels, and automated irrigation is achieved using electronic water injection valves and water level detectors to ensure that each flower pot is irrigated evenly and sewage is collected and treated through sewage tanks.
It realizes automated irrigation, reduces manual operations, avoids waste of water resources, ensures stability of irrigation quality, extends the life cycle of plants, and is suitable for home and municipal greening systems.
Smart Images
Figure CN222736739U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the field of flower pots and irrigation systems, in particular to an intelligent flower pot and irrigation system. Background Art
[0002] With the improvement of living standards, more and more potted flowers or fruits and vegetables have entered people's homes to beautify the environment, purify the air, and cultivate them by themselves. The management and maintenance of flowers or fruits and vegetables is very important, which is directly related to the survival and growth of flowers or fruits and vegetables, as well as flowering and fruiting. However, since most growers are not full-time growers, they have little time to take care of the plants and water them on weekdays. Or, in the municipal greening system, maintenance personnel need to manage a large number of potted plants at the same time, but when people irrigate, they can only water the plants one by one. The ordinary watering method is time-consuming and laborious, and it is easy to waste water resources. In addition, the quality of irrigation cannot be stably controlled. When the soil humidity in the potted plants is too high, it is easy to cause the root system of the plants to rot. If the humidity is too low, the plants will dry up and eventually die. Therefore, there is a need for a smart flower pot and irrigation system to solve the above-mentioned existing problems for consumers to choose and use. Summary of the invention
[0003] The utility model aims to provide an intelligent flower pot and irrigation system with simple and reasonable structure, convenient installation and stable structure.
[0004] A smart flowerpot comprises a first flowerpot and a second flowerpot for filling soil, the bottoms of the first flowerpot and the second flowerpot are provided with drainage holes for discharging sewage; a first watering trough and a second watering trough for receiving water, the first watering trough and the second watering trough are respectively arranged above the first flowerpot and the second flowerpot, and the bottoms of the first watering trough and the second watering trough are provided with watering holes for pouring water into the first flowerpot and the second flowerpot, wherein the first watering trough is provided with an overflow channel for overflowing clean water into the second watering trough after the first watering trough is filled with water; and a sewage trough for receiving sewage discharged from the drainage hole, the sewage trough is arranged below the first flowerpot and the second flowerpot.
[0005] The purpose of the utility model can also be solved by the following technical measures:
[0006] As a more specific solution, an overflow pipe is connected to the bottom of the first watering trough, and at least a portion of the upper portion of the overflow pipe extends into the interior of the first watering trough, and the extending height is less than the internal depth of the first watering trough; the overflow pipe cavity constitutes an overflow channel, and its upper and lower ports respectively constitute an overflow port and a drainage port, and the drainage port is placed above the second watering trough.
[0007] As a further solution, the bottoms of the first flower pot and the second flower pot are provided with strip-shaped bosses which are stretched upwards, and the strip-shaped bosses are provided with a plurality of drainage holes spaced apart along the length direction thereof.
[0008] As a further solution, a flower pot bracket is also included, on which a plurality of sheet metals are connected to form a first flower pot, a second flower pot, a first watering trough, a second watering trough and part or all of a sewage trough, the first flower pot is placed on the upper part of the flower pot bracket, the second flower pot is placed below the first flower pot, the second watering trough is placed between the first flower pot and the second flower pot, and the sewage trough is placed at the bottom of the flower pot bracket.
[0009] As a further solution, the bottom of the first flower pot has at least a portion of a drainage area that is offset from the second watering trough and the second flower pot along the vertical projection direction. The drainage area is arranged directly above the sewage trough, and the drainage hole of the first flower pot is opened in the drainage area.
[0010] As a further solution, a plurality of supporting frames are provided on the sewage trough, and the second flower pot is detachably supported on the supporting frames and erected above the sewage trough, and the second flower pot and the first flower pot are staggered in front and back.
[0011] As a further solution, the first watering trough is provided with a clean water injection interface and a clean water discharge interface, and the clean water injection interface and the clean water discharge interface are arranged on both sides of the first watering trough on opposite sides; the sewage trough is provided with a sewage discharge interface and a sewage discharge interface, and the sewage discharge interface and the sewage discharge interface are arranged on both sides of the sewage trough on opposite sides.
[0012] As a further solution, the clean water injection interface, the clean water discharge interface, the sewage discharge interface and the sewage discharge interface are installed with sealing members for blocking the interfaces when they are idle.
[0013] As a further solution, it also includes a water tank for storing a certain amount of clean water, and a water replenishment port is arranged on the water tank. A water pump is arranged between the water tank and the first watering trough, and the water pumping end of the water pump is connected with the inner cavity of the water tank through a water pipe, and the water discharge end of the water pump is directly connected with the first watering trough through a water pipe or connected to the clean water injection interface.
[0014] An irrigation system comprises two or more intelligent flower pots of the above structure, wherein the two or more intelligent flower pots are arranged at the same horizontal height, and the first watering troughs and sewage troughs between the two or more adjacent intelligent flower pots are connected in series.
[0015] As a further solution, the clean water discharge interface of the smart flower pot is connected to the clean water injection interface of the adjacent smart flower pot through a first connecting pipe; the sewage discharge interface of the smart flower pot is connected to the sewage inlet interface of the adjacent smart flower pot through a second connecting pipe.
[0016] As a further solution, the clean water filling interface of the first smart flower pot is connected to the municipal water supply source through a water filling pipe, and the sewage discharge interface of the last smart flower pot is connected to the municipal sewage system.
[0017] As a further solution, a control system is also included. A water level detector electrically connected to the control system is provided in the second watering trough on the last smart flower pot, and an electronic water injection valve electrically connected to the control system is provided between the clean water injection interface on the first smart flower pot and the municipal water supply source.
[0018] The beneficial effects of the utility model are as follows:
[0019] 1. This irrigation system is composed of multiple smart flower pots with the same structure connected in series. The watering trough and overflow channel enable the irrigation system to automatically distribute clean water evenly to the watering troughs in each smart flower pot after water is injected from a single water injection point, and automatically drip irrigation is performed on the flower pots through the watering holes to avoid water spraying out of the pot, causing waste of clean water, and can keep the surrounding environment clean.
[0020] 2. This irrigation system sets an electronic water filling valve or a mechanical timer at the water filling point of the first smart flower pot. It can perform timed or quantitative irrigation according to the needs of the manager, and use the water level detector to detect the last second watering trough to determine that all watering troughs are filled with clean water, and then stop the electronic water filling valve from continuing to fill water. No manual control is required, which greatly reduces the workload. It is especially suitable for families who often go out or municipal greening systems.
[0021] 3. In this irrigation system, a sewage trough is set at the bottom of each smart flower pot, which can effectively collect the sewage discharged from the soil during the automatic irrigation process, and can discharge the sewage through a special interface to prevent the sewage from flowing everywhere and affecting the surrounding environment.
[0022] 4. In this irrigation system, when it is inconvenient for the smart flower pot to connect to the municipal water supply, a certain amount of clean water can be stored in the water tank. Then, according to the needs of the manager, the water pump can be controlled to pump the clean water in the water tank into the first watering trough in a timely or quantitative manner, and then the water is automatically distributed to the first watering trough of the adjacent smart flower pot using the connecting vessel principle, and distributed to the second watering trough in the same smart flower pot using the overflow channel, making the use of smart flower pots or irrigation systems more flexible and not limited to locations near municipal water supply sources. BRIEF DESCRIPTION OF THE DRAWINGS
[0023] Figure 1 This is a schematic diagram of the exploded structure of Example 1 of the present utility model.
[0024] Figure 2 It is a schematic diagram of the cross-sectional structure of the utility model.
[0025] Figure 3 It is a schematic diagram of the exploded structure in the utility model.
[0026] Figure 4 It is a schematic diagram of the drainage area structure in the utility model.
[0027] Figure 5 It is a schematic diagram of the second flower pot pull-out structure in the utility model.
[0028] Figure 6 This is a structural schematic diagram of Example 2 of the present utility model.
[0029] Figure 7 It is a schematic diagram of the structure of the irrigation system in the utility model. DETAILED DESCRIPTION
[0030] The utility model is further described below in conjunction with the accompanying drawings and embodiments. Embodiment 1:
[0031] like Figures 1 to 5 As shown, a smart flower pot includes a first flower pot 1 and a second flower pot 2 for filling soil, wherein the bottoms of the first flower pot 1 and the second flower pot 2 are provided with drainage holes 3 for discharging sewage; further includes a first watering trough 4 and a second watering trough 5 for receiving water, wherein the first watering trough 4 and the second watering trough 5 are respectively arranged above the first flower pot 1 and the second flower pot 2, and the bottoms of the first watering trough 4 and the second watering trough 5 are provided with watering holes 6 for pouring water into the first flower pot 1 and the second flower pot 2, wherein the first watering trough 4 is provided with an overflow channel 701 for overflowing clean water into the second watering trough 5 after the first watering trough 4 is filled with water; further includes a sewage trough 8 for receiving sewage discharged from the drainage hole 3, wherein the sewage trough 8 is arranged below the first flower pot 1 and the second flower pot 2.
[0032] When a single smart flowerpot is in use, after the first watering trough 4 is filled with clean water, the clean water is dispersed along the length direction of the first watering trough 4, and the clean water is evenly irrigated into the first flowerpot 1 through the watering hole 6, so that the first flowerpot 1 can be evenly watered. When the watering speed of the watering hole 6 is lower than the water filling speed of the first watering trough 4, the water level of the first watering trough 4 gradually rises, and finally it is filled with water and discharged into the second watering trough 5 through the overflow channel 701. The second watering trough 5 also evenly irrigates the clean water into the second flowerpot 2 through the watering hole 6. When the soil water content of the first flowerpot 1 and the second flowerpot 2 is saturated, the excess water passes through the soil to produce sewage, and finally drips onto the sewage trough 8 through the drainage hole 3 for collection. The smart flowerpot with this structure enables the first flowerpot 1 and the second flowerpot 2 to be evenly irrigated.
[0033] The bottom of the first watering trough 4 is connected to an overflow pipe 7, and at least a part of the upper part of the overflow pipe 7 extends into the interior of the first watering trough 4, and the extending height is less than the internal depth of the first watering trough 4; the tube cavity of the overflow pipe 7 constitutes an overflow channel 701, and its upper and lower ports respectively constitute an overflow port 702 and a drainage port 703, and the drainage port 703 is placed above the second watering trough 5; the height at which the upper part of the overflow pipe 7 extends into the first watering trough 4 determines the highest water level of the first watering trough 4, and the overflow pipe 7 enables the first flower pot 1 and the second flower pot 2 arranged above and below to be connected, and the water in the first watering trough 4 passes through the overflow port 702, the overflow channel 701, and finally flows into the second watering trough 5 through the drainage port 703.
[0034] The bottom of the first flowerpot 1 and the second flowerpot 2 is provided with a strip boss 301 stretched upward, and a plurality of drainage holes 3 are spaced apart along the length direction of the strip boss 301; the strip boss 301 enables the drainage holes 3 to be slightly higher than the bottom walls of the first flowerpot 1 and the second flowerpot 2, so that a small amount of water can be retained at the bottom of the first flowerpot 1 and the second flowerpot 2 for slow absorption by the plants, thereby shortening the interval of automatic irrigation.
[0035] refer to Figure 3 As shown, it also includes a flower pot bracket 9, and the flower pot bracket 9 is made into a part or all of the first flower pot 1, the second flower pot 2, the first watering trough 4, the second watering trough 5 and the sewage trough 8 by connecting several sheets of metal 10. This structure enables the smart flower pot to form an integrated structure as a whole, which is convenient for sales and transportation, has better integrity, occupies less space, and is rich in functions.
[0036] The first flower pot 1 is placed on the upper part of the flower pot support 9, and the first watering trough 4 is arranged on the upper part of the inner cavity of the first flower pot 1, and its width is the same as that of the first flower pot 1. The bottom of the first watering trough 4 is evenly provided with a plurality of watering holes 6 along the width direction, so that the structure allows the water to be discharged into the first flower pot 1 after the first watering trough 4 is overfilled and overflows, so as to avoid waste and splashing the surrounding environment;
[0037] The second flower pot 2 is placed below the first flower pot 1, and the second watering trough 5 is placed between the first flower pot 1 and the second flower pot 2. The front end of the second watering trough 5 extends from the rear into the upper part of the inner cavity of the second flower pot 2, and its width is smaller than the width of the second flower pot 2. The second watering trough 5 extends into the bottom of the second flower pot 2 and is evenly provided with a plurality of watering holes 6 along the width direction.
[0038] The sewage trough 8 is placed at the bottom of the flower pot support 9 ; the sewage trough 8 can receive the sewage dripping from the first flower pot 1 and the second flower pot 2 at the same time.
[0039] refer to Figure 4 As shown, the bottom of the first flower pot 1 has at least a portion of a drainage area 11 that is offset from the second watering trough 5 and the second flower pot 2 along the vertical projection direction. The drainage area 11 is arranged directly above the sewage trough 8, and the drainage hole 3 of the first flower pot 1 is opened in the drainage area 11. This structure ensures that the drainage holes 3 of the first flower pot 1 and the second flower pot 2 do not block or interfere with each other.
[0040] In addition, in this embodiment, the drainage holes 3 of the first flower pot 1 are arranged along the thickness direction of the first flower pot 1 , and the drainage holes 3 of the second flower pot 2 are arranged along the width direction of the second flower pot 2 .
[0041] The sewage tank 8 is provided with a plurality of support frames 81, the second flower pot 2 is detachably supported on the support frames 81 and is mounted above the sewage tank 8, and the second flower pot 2 and the first flower pot 1 are staggered in front and back arrangement;
[0042] The second flower pot 2 is erected by the support frame 81 to avoid the second flower pot 2 being placed in the sewage trough 8 and affecting the water receiving space. The second flower pot 2 is detachable, which is convenient for maintenance personnel to perform maintenance. The sewage trough 8 can be opened to facilitate maintenance personnel to clean and dump silt. The support frame 81 can also reduce the contact area with the second flower pot 2, making it smoother when pushed and pulled horizontally.
[0043] The first watering trough 4 is provided with a clean water injection interface 41 and a clean water discharge interface 42, and the clean water injection interface 41 and the clean water discharge interface 42 are arranged on opposite sides of the first watering trough 4; when the smart flower pots are connected in series to form an irrigation system, the clean water injection interface 41 and the clean water discharge interface 42 are arranged on opposite sides, so that the clean water evenly spreads the entire first watering trough 4 and then flows to other first watering troughs 4, so that the water output of the watering holes 6 in the same first watering trough 4 remains balanced.
[0044] The sewage trough 8 is provided with a sewage discharge interface 83 and a sewage discharge interface 82, and the sewage discharge interface 83 and the sewage discharge interface 82 are arranged on both sides of the sewage trough 8; this structure allows the sewage to flow a sufficient distance, so that the sewage mixed with soil has a sedimentation process, reducing soil erosion in the flower pot.
[0045] The clean water injection interface 41, the clean water discharge interface 42, the sewage discharge interface 83 and the sewage discharge interface 82 are installed with seals for blocking the interfaces when idle; when the smart flower pot is used alone or connected in series to form an irrigation system, some of the above four interfaces may not be needed, so the interfaces can be blocked by seals such as sealing covers or sealing plugs to prevent clean water or sewage from flowing out. Embodiment 2:
[0046] In the first embodiment, the clean water filling interface 41 can be directly connected to the municipal water supply source B (i.e., the faucet) for water supply. However, when the environment in which the smart flower pot is applied does not have the municipal water supply source B, a water storage tank 12 for storing a certain amount of clean water can also be made on the flower pot bracket 9 through the sheet metal 10, referring to Figure 2 and Figure 6 As shown, the water tank 12 is arranged below the second watering trough 5 and behind the second flower pot, and a water supply port 121 is also arranged on other sheet metals. A water pump 13 is arranged between the water tank 12 and the first watering trough 4. The water pumping end of the water pump 13 is connected to the inner cavity of the water tank 12 through a water pipe, and the water discharge end of the water pump 13 is directly connected to the first watering trough 4 through a water pipe or is connected to the clean water injection interface 41.
[0047] When the smart flowerpot is not convenient to connect to the municipal water supply, a certain amount of clean water can be stored in the water tank 12, and then the pump 13 can be controlled to pump the clean water in the water tank 12 into the first watering trough 4 in a timely or quantitative manner according to the needs of the manager.
[0048] An irrigation system, such as Figure 7 As shown, it includes two or more smart flower pots A of the above structure, the two or more smart flower pots A are arranged at the same horizontal height, and the first watering troughs 4 and sewage troughs 8 between the two or more adjacent smart flower pots A are connected in series.
[0049] This irrigation system is composed of multiple smart flower pots A of the same structure connected in series. The irrigation system uses watering troughs and overflow channels to automatically distribute clean water evenly to the watering troughs in each smart flower pot after water is injected from a single water injection point, and automatically drips and irrigates the flower pots through watering holes 6 to avoid water spraying out of the pots and causing waste of clean water, and can keep the surrounding environment clean.
[0050] The clean water discharge interface 42 of the smart flower pot A is connected to the clean water injection interface 41 of the adjacent smart flower pot A through the first connecting pipe 141; the sewage discharge interface 82 of the smart flower pot A is connected to the sewage discharge interface 83 of the adjacent smart flower pot A through the second connecting pipe 142; through the first connecting pipe 141.
[0051] The use principle of the irrigation system is based on the use principle of a single smart flower pot. After water is injected into the first watering trough 4 of the previous smart flower pot A, it is automatically distributed to the first watering trough of the adjacent smart flower pot through the clean water discharge interface 42, the first connecting pipe 141 and the clean water injection interface 41 using the communicating vessel principle, and then each smart flower pot A is distributed to the second watering trough 5 in the same smart flower pot using the overflow channel 701;
[0052] After the sewage tank 8 of each smart flower pot collects sewage, it is discharged into the sewage tank 8 of the next smart flower pot through the sewage discharge interface 82, the second connecting pipe 142 and the sewage discharge interface 83 using the same communicating vessel principle, and then all the sewage is discharged through the sewage discharge interface 82 of the last smart flower pot.
[0053] The clean water injection interface 41 of the first smart flower pot A is connected to the municipal water supply source B through a water injection pipe, and the sewage discharge interface 82 of the last smart flower pot A is connected to the municipal sewage system C; the municipal water supply source B can continuously increase the clean water, reduce the management of maintenance personnel, and discharge all sewage into the municipal sewage system C to prevent sewage from flowing everywhere and affecting the surrounding environment.
[0054] It also includes a control system 15, a water level detector 16 electrically connected to the control system 15 is provided in the second watering trough 5 on the last smart flower pot A, and an electronic water injection valve 17 electrically connected to the control system 15 is provided between the clean water injection interface 41 on the first smart flower pot A and the municipal water supply source B;
[0055] This irrigation system is provided with an electronic water filling valve 17 or a mechanical timer at the water filling point (clean water filling interface 41) of the first smart flower pot A, and can perform timed or quantitative irrigation according to the needs of the manager. The water level detector 16 detects the last second watering trough 5 to determine that all watering troughs are filled with clean water, and then stops the electronic water filling valve 17 from continuing to fill water. No manual control is required, which greatly reduces the workload. This irrigation system is particularly suitable for greening systems for families who often go out or municipalities.
[0056] The above is a preferred embodiment of the utility model, which shows and describes the basic principle, main features and advantages of the utility model. Those skilled in the art should understand that the utility model is not limited by the above embodiments, and the above embodiments and descriptions are only for explaining the principle of the utility model. The utility model may have various changes and improvements without departing from the spirit and scope of the utility model, and these changes and improvements fall within the scope of the utility model to be protected, and the scope of protection of the utility model is defined by the attached claims and their equivalents.
Claims
1. A smart flowerpot, characterized in that: The invention comprises a first flower pot (1) and a second flower pot (2) for filling soil, wherein the bottom of the first flower pot (1) and the second flower pot (2) are provided with a drainage hole (3) for discharging sewage; a first watering trough (4) and a second watering trough (5) for receiving water, wherein the first watering trough (4) and the second watering trough (5) are respectively arranged above the first flower pot (1) and the second flower pot (2), and the bottom of the first watering trough (4) and the second watering trough (5) are provided with a watering hole (6) for pouring water into the first flower pot (1) and the second flower pot (2), wherein the first watering trough (4) is provided with an overflow channel (701) for overflowing clean water into the second watering trough (5) after the first watering trough (4) is filled with water; and a sewage trough (8) for receiving sewage discharged from the drainage hole (3), wherein the sewage trough (8) is arranged below the first flower pot (1) and the second flower pot (2).
2. The smart flowerpot according to claim 1, characterized in that: The bottom of the first watering trough (4) is connected to an overflow pipe (7), the upper portion of the overflow pipe (7) at least partially extends into the interior of the first watering trough (4), and the extending height is less than the internal depth of the first watering trough (4); the lumen of the overflow pipe (7) constitutes an overflow channel (701), and the upper and lower ports thereof respectively constitute an overflow port (702) and a drainage port (703), and the drainage port (703) is disposed above the second watering trough (5).
3. The smart flowerpot according to claim 1, characterized in that: The bottoms of the first flower pot (1) and the second flower pot (2) are provided with strip-shaped bosses (301) that are stretched upwards, and the strip-shaped bosses (301) are provided with a plurality of drainage holes (3) spaced apart along their length direction.
4. The smart flowerpot according to claim 1, characterized in that: The invention also comprises a flower pot support (9), wherein the flower pot support (9) is connected with a plurality of sheet metals (10) to form a first flower pot (1), a second flower pot (2), a first watering trough (4), a second watering trough (5) and a part or all of a sewage trough (8), wherein the first flower pot (1) is placed on the upper part of the flower pot support (9), the second flower pot (2) is placed below the first flower pot (1), the second watering trough (5) is placed between the first flower pot (1) and the second flower pot (2), and the sewage trough (8) is placed at the bottom of the flower pot support (9).
5. The intelligent flowerpot according to claim 4, characterized in that: The bottom of the first flower pot (1) has a drainage area (11) which is at least partially offset from the second watering trough (5) and the second flower pot (2) along the vertical projection direction; the drainage area (11) is arranged directly above the sewage trough (8); and the drainage hole (3) of the first flower pot (1) is arranged in the drainage area (11).
6. The smart flowerpot according to claim 1, characterized in that: A plurality of support frames (81) are arranged on the sewage trough (8); the second flower pot (2) is detachably supported on the support frames (81) and is mounted above the sewage trough (8); the second flower pot (2) and the first flower pot (1) are arranged in a staggered manner in front and back.
7. The smart flowerpot according to any one of claims 1 to 6, characterized in that: The first watering trough (4) is provided with a clean water injection interface (41) and a clean water discharge interface (42), and the clean water injection interface (41) and the clean water discharge interface (42) are arranged on opposite sides of the first watering trough (4); the sewage trough (8) is provided with a sewage discharge inlet interface (83) and a sewage discharge interface (82), and the sewage discharge inlet interface (83) and the sewage discharge interface (82) are arranged on opposite sides of the sewage trough (8).
8. The intelligent flowerpot according to claim 7, characterized in that: The clean water injection interface (41), the clean water discharge interface (42), the sewage discharge interface (83) and the sewage discharge interface (82) are installed with sealing members for blocking the interfaces when not in use.
9. The intelligent flowerpot according to claim 7, characterized in that: It also includes a water storage tank (12) for storing a certain amount of clean water, the water storage tank (12) being provided with a water replenishment port (121), a water pump (13) being provided between the water storage tank (12) and the first watering trough (4), the water pumping end of the water pump (13) being connected to the inner cavity of the water storage tank (12) via a water pipe, and the water discharge end of the water pump (13) being directly connected to the first watering trough (4) via a water pipe or connected to a clean water injection interface (41).
10. An irrigation system, characterized in that : comprising two or more smart flower pots (A) as claimed in claim 7 or 8, wherein the two or more smart flower pots (A) are arranged at the same horizontal height, and the first watering troughs (4) and sewage troughs (8) between the two or more adjacent smart flower pots (A) are connected in series.
11. An irrigation system according to claim 10, characterized in that: The clean water discharge interface (42) of the smart flowerpot (A) is connected to the clean water injection interface (41) of an adjacent smart flowerpot (A) via a first connecting pipe (141); the sewage discharge interface (82) of the smart flowerpot (A) is connected to the sewage discharge interface (83) of an adjacent smart flowerpot (A) via a second connecting pipe (142).
12. An irrigation system according to claim 11, characterized in that: The clean water injection interface (41) of the first smart flower pot (A) is connected to the municipal water supply source (B) through a water injection pipe, and the sewage discharge interface (82) of the last smart flower pot (A) is connected to the municipal sewage system (C).
13. An irrigation system according to claim 12, characterized in that: The device also includes a control system (15), a water level detector (16) electrically connected to the control system (15) is arranged in the second watering trough (5) on the last smart flower pot (A), and an electronic water injection valve (17) electrically connected to the control system (15) is arranged between the clean water injection interface (41) on the first smart flower pot (A) and the municipal water supply source (B).