Organic liquid dripping and permeating system for hillside orchard

Abstract

The utility model discloses a hillside orchard organic liquid drop infiltration system, which comprises a fermentation module, a blending module, a pipeline module and an irrigation module, the fermentation module is connected with the blending module through a pipeline, the blending module is connected with the pipeline module and the irrigation module through a pipeline, electromagnetic valves are arranged on the pipeline module at intervals, and leakage pipes are arranged at the bottoms of the electromagnetic valves. Fermentation, blending and irrigation are seamlessly connected, the fertilizer efficiency utilization rate is improved, and connecting pipelines between the modules are accurate and durable; a multi-stage filtering and leakage pipe structure is adopted, so that the drip irrigation depth is deepened while the pipeline blockage risk is remarkably reduced, and the device is more suitable for orchards; accurate adjustment of irrigation parameters is achieved through the PLC, and manpower is saved; drip irrigation and sprinkling irrigation modes are complementary, and the device is suitable for orchards with complex terrains such as slopes and terraces.

Description

Technical Field

[0001] This utility model relates to the field of agricultural irrigation technology, specifically to an organic liquid drip irrigation system for mountain orchards, which can realize the automated fermentation, mixing and precise irrigation of organic fertilizer liquid, and is suitable for orchard management in complex terrains such as mountains and slopes. Background Technology

[0002] Soil acidification is a serious soil degradation problem. With increasing human activity, the originally slow process of soil acidification has accelerated significantly, with the degree of acidification in the last 20 years far exceeding that of the previous centuries. Due to a lack of human intervention to deeply excavate and improve the soil, soil acidification remains a pressing issue for orchards. Many orchards have yet to find a suitable solution.

[0003] Traditional orchard irrigation systems mostly use ordinary drip irrigation or sprinkler irrigation devices, which have the following problems: uneven fertilizer effect, liquid fertilizers need to be manually mixed before being injected into the irrigation system, the concentration is difficult to control precisely, and it is easy to cause local fertilizer damage or insufficient fertilizer.

[0004] Pipe blockage and the direct use of insufficiently fermented organic fertilizer solution can cause drip irrigation holes to become clogged, affecting irrigation efficiency.

[0005] The automation level is low, and there is a lack of intelligent control over irrigation flow and timing, making it impossible to dynamically adjust according to the needs of fruit trees. Utility Model Content

[0006] The purpose of this utility model is to provide an organic liquid drip infiltration system for mountain orchards. Through modular design, it solves the problems of uneven fertilizer-liquid mixing, easy pipe blockage, and low control precision in traditional irrigation systems, thereby improving the water and fertilizer utilization efficiency of orchards.

[0007] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is: an organic liquid drip infiltration system for mountain orchards, including a fermentation module, a mixing module, a pipeline module and an irrigation module. The fermentation module is connected to the mixing module through a pipeline, and the mixing module is connected to the pipeline module and the irrigation module through a pipeline. The pipeline module is equipped with solenoid valves at intervals, and the bottom of the solenoid valve is equipped with a seepage pipe.

[0008] Optionally, the fermentation module includes a fermentation tank, a stirring motor is provided on the top of the fermentation tank, a stirring paddle is installed on the stirring motor and the stirring paddle is built into the fermentation tank, a pressure pump is provided on the top of the fermentation tank, and a pipe is provided at the bottom of the fermentation tank.

[0009] Optionally, the mixing module includes a mixing pool group, which has several interconnected adjacent pools. The mixing pools have outlets arranged from high to low along one direction, and filter screens are installed at the outlets. The mesh size of the filter screens increases sequentially from high to low along the outlets. The mixing pool group is closed at both ends, and several backwashing devices are installed inside the mixing pool group. The backwashing devices are installed on the filter screens to filter impurities and mix fertilizer solution step by step. The backwashing process enables the filter screens to operate automatically for a long time.

[0010] Optionally, one end of the mixing tank group is connected to a pipe, and the other end is connected to a water pumping pipe. A fine filter head is installed on the water pumping pipe to prevent clogging. The outlet of the mixing tank at the end connected to the pipe is the highest. A water adding pipe is also provided in the mixing tank at the end connected to the pipe to adjust the mixing ratio.

[0011] Optionally, a rainwater collector is installed on the mixing tank group, a sewage pipe is provided at the bottom of the mixing tank group, a sewage valve is installed at the top of the sewage pipe, and a circulation device can also be installed inside the mixing tank group to accelerate the sedimentation effect. A filter module is installed at the front end of the mixing module, and the filter module can perform filtration and backwashing operations.

[0012] Optionally, the pipeline module is connected to the mixing tank group, and a water pump is provided at the connection. The pipeline module consists of pipes and tees. A solenoid valve is installed at the tee, and a faucet is installed on the solenoid valve. A leakage pipe is provided at the bottom of the faucet.

[0013] Optionally, a flow meter is installed between the faucet and the solenoid valve to monitor and control the flow rate in real time.

[0014] Optionally, the seepage pipe is buried in the soil with its top exposed above the soil. The seepage pipe wall is provided with a number of seepage holes, which are evenly spaced. The bottom of the seepage pipe is provided with a seal, which is a separate and removable structure to prevent blockage and realize drip irrigation.

[0015] Optionally, the irrigation module is connected to a water pump via a flexible hose. A water pump is installed at the connection between the flexible hose and the water pump. A nozzle is installed at the end of the flexible hose. The nozzle is adjustable and supports sprinkler irrigation mode.

[0016] Optionally, the solenoid valve is controlled by a control center via a wire. The control center controls the pressure pump, solenoid valve, flow meter, and water pump via a PLC to adapt to the irrigation needs of different fruit tree growth stages.

[0017] Due to the adoption of the above technical solutions, the technological advancements achieved by this utility model compared to existing technologies are as follows: seamless integration of fermentation, blending, and irrigation improves fertilizer utilization efficiency; the connecting pipelines between various modules are precise and durable; the multi-stage filtration + seepage pipe structure significantly reduces the risk of pipeline blockage while increasing drip irrigation depth, making it more suitable for orchards; precise adjustment of irrigation parameters is achieved through PLC, saving manpower; and the drip irrigation and sprinkler irrigation modes complement each other, making it suitable for orchards with complex terrains such as slopes and terraces. Attached Figure Description

[0018] The present invention will be further described below with reference to the accompanying drawings.

[0019] Figure 1 This is a schematic diagram of the structure of the organic liquid drip infiltration system for mountain orchards according to an embodiment of the present invention;

[0020] Figure 2 This is a schematic diagram of the fermentation module structure of the organic liquid drip infiltration system for mountain orchards according to an embodiment of this utility model;

[0021] Figure 3 This is a schematic diagram of the mixing module structure of the organic liquid drip infiltration system for mountain orchards according to an embodiment of this utility model;

[0022] Figure 4 This is a schematic diagram of the pipeline module structure of the organic liquid drip infiltration system in a mountain orchard according to an embodiment of the present invention;

[0023] Figure 5 This is a schematic diagram of the irrigation module structure of the organic liquid drip infiltration system for mountain orchards, according to an embodiment of this utility model.

[0024] In the diagram: 100 - Fermentation module, 110 - Fermentation tank, 120 - Stirring motor, 130 - Stirring paddle, 140 - Pressure pump;

[0025] 200-Blending module, 210-Blending tank group, 211-Outlet, 212-Filter screen, 213-Backwashing equipment, 220-Water pumping pipe, 221-Fine filter head, 230-Water filling pipe, 240-Sewage discharge pipe, 241-Sewage discharge valve;

[0026] 300-Pipeline module, 310-Water pump, 320-Tee, 330-Solenoid valve, 331-Faucet, 332-Flow meter, 340-Leak pipe, 341-Leak hole, 342-Bottom seal;

[0027] 400 - Irrigation module, 410 - Hose, 420 - Water pump, 430 - Sprinkler head;

[0028] 500 - Pipeline, 600 - Control Center, 700 - Rainwater Collector, 800 - Filter Module. Detailed Implementation

[0029] The present invention will be further described in detail below with reference to embodiments:

[0030] like Figures 1-5As shown, this utility model provides an organic liquid drip infiltration system for mountain orchards. The system consists of a fermentation module 100, a mixing module 200, a pipeline module 300, an irrigation module 400, and a control center 600. All modules are connected in series via pipelines 500, and automated control is achieved with the aid of sensors and actuators. The functions of all components are as follows:

[0031] Fermentation Module 100:

[0032] Fermentation tank 110: Contains organic waste such as fruit peels and straw for anaerobic fermentation to produce liquid organic fertilizer.

[0033] Stirring motor 120: drives the stirring paddle 130 to rotate, accelerating the decomposition of organic matter and preventing sedimentation.

[0034] Pressure pump 140: Pumps the fermented fertilizer solution into the mixing module 200 through the bottom pipe 500.

[0035] Module 200: Scientifically allocates nutrients based on tree nutrition measurements.

[0036] Mixing pool group 210: It consists of multiple pools connected in series, and the pools are connected by water outlets 211. The water flows from high to low in stages, and the water is mixed 10-50 times.

[0037] Filter 212: Installed at the water outlet, with the mesh size increasing from the first high pool to the last low pool, such as 80 mesh → 200 mesh, filtering impurities step by step.

[0038] Backwashing equipment 213: The backwashing equipment enables the filter screen to run automatically for a long time, preventing clogging.

[0039] Water inlet pipe 230: Located at the first end of the mixing tank, it injects clean water to adjust the concentration of fertilizer solution.

[0040] Rainwater collector 700: Adds water to the mixing tank group to achieve water conservation.

[0041] Pumping pipe 220: Connects to the terminal mixing tank and transports the mixed fertilizer solution to the irrigation module 400.

[0042] Fine filter head 221: Filters the extracted fertilizer solution to prevent pipe blockage.

[0043] Piping Module 300:

[0044] Main pipeline 500: connects the mixing tank group 210 to each branch.

[0045] Pump 310: Pumps the fertilizer solution from the mixing tank into the pipeline system.

[0046] 320 T-junction: Divides the main pipeline into multiple branch pipes.

[0047] Solenoid valve 330: Opens and closes via commands from control center 600 to regulate branch flow.

[0048] Flowmeter 332: Real-time monitoring of branch pipe flow and feedback to the control center.

[0049] Faucet 331: Manual backup switch, located at the front end of solenoid valve 330.

[0050] Leakage pipe 340: Buried in the soil at the root of the fruit tree, with leakage holes 341 in diameter of 1-2mm and spaced 20cm apart, and the bottom sealed 342 to prevent backflow of mud and sand.

[0051] Irrigation Module 400:

[0052] Hose 410: Connects to the end of the dispensing module's pumping pipe 220, flexibly adapting to the terrain.

[0053] Pump 420: pumps fertilizer solution to nozzle 430.

[0054] Sprinkler 430: Adjustable rotating sprinkler head with a spray radius of 5-8 meters, used for large-area irrigation.

[0055] Control Center 600:

[0056] PLC controller: Receives signals from flow meter 332 and programs the start / stop and power of pressure pump 140, solenoid valve 330, and water pump 420.

[0057] The working principle of the organic liquid drip infiltration system in this mountain orchard will be explained in detail below.

[0058] The fermentation module uses soybean meal, peanut cake, rapeseed cake, and residues from oil extraction, such as substandard fruit and fruit peels, as materials. Fermentation in a fermentation tank liquefies the organic matter. A mixing module regulates the concentration, a piping module delivers the solution precisely, and an irrigation module provides complementary drip and sprinkler irrigation. A multi-stage filter 212 intercepts impurities, and the small-diameter design of the seepage holes 341 in the seepage pipe 340 reduces the risk of clogging. The control center 600, through the coordinated operation of the flow meter 332 and solenoid valve 330, ensures that each fruit tree receives equal amounts of fertilizer and water. Sprinkler and drip irrigation modes can be switched according to the fruit tree's growth cycle. The buried design of the seepage pipe 340 adapts to sloping terrain, and the flexible hose 410 supports sprinkler irrigation in complex terrain.

[0059] By liquefying organic matter such as substandard fruit and combining it with buried pipe drip infiltration technology, fermentation liquid and fertilizer can penetrate deep into the soil, changing unscientific fertilization methods, improving fertilizer efficiency, reducing labor and herbicide use; at the same time, it can deeply adjust soil acidity and balance nutrients to improve fruit quality, change the phenomenon of fruit farmers "emphasizing size over quality", reduce environmental pollution, reduce costs, and improve orchard ecology.

[0060] like Figures 1-5 As shown

[0061] Fermentation stage:

[0062] Raw material input: Organic waste is put into fermentation tank 110, and stirring motor 120 is started to drive stirring paddle 130 to accelerate microbial decomposition.

[0063] Fertilizer liquid generation: After fermentation is completed, pressure pump 140 pumps the liquid fertilizer into the first mixing tank of mixing module 200 through pipeline 500.

[0064] Preparation and filtration stages:

[0065] Step-by-step mixing: The fertilizer solution flows from the first mixing tank into the next tank through the outlet 211, while clean water is injected through the water pipe 230 to adjust the concentration.

[0066] Multi-stage filtration: As the fertilizer solution flows through the outlet 211, the mesh size of the filter screen 212 increases step by step, filtering large particles of impurities such as slag into tiny suspended solids, preventing pipe blockage.

[0067] Pipeline delivery and drip irrigation:

[0068] Main pipeline diversion: The prepared fertilizer solution is transported through the main pipeline 500 to the tee 320, and then diverted to multiple branch pipes.

[0069] Intelligent control: The control center 600 controls the flow of each branch pipe through the solenoid valve 330 according to the preset program, and the flow meter 332 provides real-time feedback data to adjust the valve opening.

[0070] Drip irrigation: Fertilizer solution enters the seepage pipe 340 through the solenoid valve 330 and the tap 331, and slowly seeps out through the seepage hole 341, directly soaking the soil around the roots of the fruit trees. Water and fertilizer act directly on the crop roots, reducing evaporation, runoff and deep seepage, saving water, improving fertilizer utilization, reducing fertilizer application, and providing water and fertilizer on demand and evenly, promoting root absorption, reducing nutrient stress, avoiding soil compaction and salt accumulation caused by flood irrigation, reducing the risk of fertilizer leaching into groundwater, and mitigating non-point source pollution. Drip irrigation significantly improves resource utilization efficiency through precise and intelligent water and fertilizer management, taking into account both economic benefits and ecological sustainability.

[0071] Sprinkler irrigation modes are available:

[0072] Switch to sprinkler irrigation: Start the water pump 420 to pump the fertilizer solution at the end of the mixing tank through the hose 410 to the nozzle 430 for rotating spraying to cover the orchard area.

[0073] Automated maintenance:

[0074] Anti-clogging design: Filter screen 212 is removable and washable; leakage hole 341 automatically discharges deposits due to gravity, and bottom seal 342 prevents clogging.

[0075] Dynamic adjustment: The PLC can dynamically adjust the opening and closing time of the solenoid valve 330 and the power of the water pump 420 based on the optional data from the soil moisture sensor.

[0076] The soil acidification effect of burying pipes deep (0-50cm) in the orange grove is significant. The acidification effect of the deep soil acidification zone is funnel-shaped, with the area near the pipe hole showing the most significant acidification effect.

[0077] Fermented organic matter filtration and blending were carried out, and irrigation was implemented throughout the orchard. Through tracking and comparison, fermented liquid fertilizer application reduced costs by more than 50%, while reducing labor by 10% and increasing solids content by more than 15%. In 2021, the average price per kilogram of tangerines was 1.7 yuan, and in 2022, due to improved quality, the average price reached 2.0 yuan, an increase of 0.3 yuan per kilogram. The product received positive reviews, achieving both quality improvement and efficiency enhancement.

[0078] With 55 plants per mu, the yield is 2750 kg. The current cost is 3 yuan / kg, and the cost per mu is 8250 yuan.

[0079] After the project is implemented, fertilizer and herbicide costs will be reduced by 15-20%, a reduction of 349 yuan per mu; the buried pipe drip irrigation technology will reduce labor costs by 10%, a reduction of 171.25 yuan per mu, and herbicide labor costs will be reduced by 30 yuan per mu. The total reduction is 550.5 yuan.

[0080] The cost of organic matter liquefaction tanks and pipelines is 1,000 yuan per mu, and they can be used for 8-10 years. Including maintenance costs, the average annual cost is 150 yuan per mu.

[0081] Therefore, the cost is reduced by 400.5 yuan per mu. Based on 200 mu, the total cost reduction is 81,000 yuan.

[0082] Example 1: Application in mountain terraced orchards

[0083] Application scenarios: Suitable for orchards with steep slopes and terraced fields, where problems such as uneven fertilizer solution delivery pressure and easy clogging need to be solved.

[0084] Implementation method:

[0085] Module layout:

[0086] Fermentation module 100 is placed at the highest point of the terrace, and the fertilizer solution is allowed to flow naturally into the mixing pool group 210 below by gravity.

[0087] The mixing pool group 210 is distributed along the terraced fields, with each pool corresponding to a layer of fruit trees. The height difference of the outlet 211 is 0.5 meters, and the filter screen 212 increases from 80 mesh at the first layer to 200 mesh at the bottom layer.

[0088] The seepage pipe 340 is buried in a ring around the roots of the fruit trees on each terrace, and the seepage holes 341 are spaced 20cm apart with a diameter of 1.5mm.

[0089] Workflow:

[0090] Fertilizer solution delivery: The fermented fertilizer solution is pumped into the first layer mixing tank by pressure pump 140, and mixed with clean water injected by water pipe 230 at a ratio of 1:5. After being filtered through each stage, it flows into the bottom layer mixing tank.

[0091] Drip irrigation control: The control center 600 is set to open the solenoid valve 330 for 2 hours every morning, and the flow meter 332 monitors the flow rate of each branch pipe at 10L / min. The fertilizer solution is evenly soaked into the roots of the fruit trees through the seepage pipe 340.

[0092] Sprinkler irrigation supplement: During the dry season, start the water pump 420 to pump the fertilizer solution to the sprinkler head 430 for foliar spraying on the upper canopy of the terraced fields.

[0093] Effect:

[0094] Gravity-assisted conveying reduces energy consumption, multi-stage filter 212 intercepts silt and sand, seepage pipe 340 has a slope adaptability of up to 30°, and pipeline blockage rate is reduced by 90%.

[0095] The irrigation volume is independently controlled for each level of the terraced fields, increasing water and fertilizer utilization by 35%.

[0096] Example 2: Application of intensive orchard management on flat land

[0097] Application scenario: Suitable for large flat orchards, requiring zoned precision irrigation and efficient organic fertilizer treatment.

[0098] Implementation method:

[0099] Module configuration:

[0100] Fermentation module 100 is equipped with two parallel fermentation tanks 110, which can process 2 tons of organic waste per day. The stirring motor 120 runs 3 times a day, 30 minutes each time.

[0101] The mixing pool group 210 is designed as a 5-stage series pool. The last stage pool is connected to the main pipeline 500, which is divided into 10 branch pipes through a 320 tee, with each branch pipe covering 50 fruit trees.

[0102] The seepage pipe 340 is buried at a depth of 30cm, and there are two seepage holes 341 corresponding to the root of each fruit tree. The solenoid valve 330 is controlled by fruit tree variety in different zones, such as citrus zone and apple zone.

[0103] Intelligent control:

[0104] Dynamic adjustment: The control center 600 automatically starts drip irrigation when the humidity is <60% based on the data from the soil moisture sensor and auxiliary equipment, and the flow meter 332 stabilizes the flow rate at 8L / min.

[0105] Sprinkler irrigation for frost prevention: In winter, start the sprinklers at night to create a water mist and prevent fruit trees from freezing.

[0106] Effect:

[0107] The dual fermentation tank 110 enables continuous fertilizer supply, and the 5-stage blending ensures that the fertilizer solution concentration error is less than 5%.

[0108] The zoned solenoid valve 330 control allows for customized irrigation for different fruit tree varieties, increasing yields by 15%-20%.

[0109] Example 3: Application in greenhouse off-season orchards

[0110] Application scenarios: Used for high-value fruit trees such as cherries and blueberries in greenhouse environments, requiring high-frequency micro-irrigation and humidity control.

[0111] Implementation method:

[0112] System optimization:

[0113] The fermentation module 100 is miniaturized, the fermentation tank 110 has a volume of 500L, and the stirring motor 120 runs for 10 minutes every 2 hours to accelerate decomposition.

[0114] The mixing tank group 210 is simplified to 3 stages, with the filter screen 212 having a mesh size of 100 mesh → 150 mesh → 200 mesh. The final stage tank is connected to a micro-permeable pipe 340 with a pore size of 1mm and a spacing of 15cm.

[0115] The 430 nozzle uses an atomizing nozzle, is installed on the top of the greenhouse, and supports humidity control.

[0116] Work mode:

[0117] Drip irrigation is the primary method: six micro-irrigations per day, each lasting five minutes. The solenoid valve 330 is controlled by PLC programming, with a single liquid supply of 0.5L / plant.

[0118] Atomization reduction: When the greenhouse humidity is >85%, the sprinkler irrigation is turned off; when the humidity is <50%, the atomizing nozzle 430 is turned on, while the drip irrigation continues to run.

[0119] Effect:

[0120] High-frequency micro-drip irrigation stabilizes soil moisture at 70%-80%, increasing fruit sugar content by 12%.

[0121] The filter screen (212) and leakage pipe (340) provide dual filtration, making it suitable for high-organic-matter fertilizer solutions and extending the pipeline maintenance cycle to 6 months.

[0122] Example 4: Application in Eco-tourism Orchards

[0123] Application scenario: Combining organic farming with tourism, requiring a quiet, odorless, and visible irrigation system.

[0124] Implementation method:

[0125] Structural improvements:

[0126] The fermentation module features a 100% sealed design, and the tank is equipped with an activated carbon filter to eliminate odors.

[0127] The exposed portion of the 340 leakage pipe is made of transparent PVC pipe, allowing visitors to observe the flow of the fertilizer solution.

[0128] The 430 showerhead is designed in the shape of a shower head, blending in with the landscape.

[0129] Interactive features:

[0130] The control center 600 is connected to a tourist mobile app, which allows visitors to manually trigger sprinkler displays in designated areas.

[0131] Signage is placed around the seepage pipe 340 to demonstrate the principles of organic fertilizer fermentation and drip irrigation.

[0132] Effect:

[0133] The silent solenoid valve 330 and concealed piping 500 reduce noise and enhance the sightseeing experience.

[0134] Visual design transforms the system into a science education and exhibition project, attracting visitors to participate.

[0135] The present invention has been described in detail above. However, modifications or improvements can be made to it, which will be obvious to those skilled in the art. Therefore, any modifications or improvements that do not depart from the spirit of the present invention are within the protection scope of the present invention.

Claims

1. An organic liquid drip infiltration system for mountain orchards, characterized in that: It includes a fermentation module (100), a mixing module (200), a pipeline module (300) and an irrigation module (400). The fermentation module (100) is connected to the mixing module (200) through a pipeline (500). The mixing module (200) is connected to the pipeline module (300) and the irrigation module (400) through a pipeline (500). The pipeline module (300) is provided with a solenoid valve (330) at intervals, and a leakage pipe (340) is provided at the bottom of the solenoid valve.

2. The organic liquid drip infiltration system for mountain orchards according to claim 1, characterized in that: The fermentation module (100) includes a fermentation tank (110), a stirring motor (120) is provided on the top of the fermentation tank (110), a stirring paddle (130) is installed on the stirring motor (120), the stirring paddle (130) is built into the fermentation tank (110), a pressure pump (140) is provided on the top of the fermentation tank (110), and a pipe (500) is provided at the bottom of the fermentation tank (110).

3. The organic liquid drip infiltration system for mountain orchards according to claim 1, characterized in that: The mixing module (200) includes a mixing pool group (210), which has several adjacent pools connected to each other. The mixing pools have outlets (211) from high to low along one direction. A filter screen (212) is provided at the outlet (211). The mesh number of the filter screen (212) increases sequentially from high to low along the outlet (211). The mixing pool group (210) is closed at both ends. Several backwashing devices (213) are provided in the mixing pool group (210). The backwashing devices (213) are installed on the filter screen (212).

4. The organic liquid infiltration system for mountain orchards according to claim 3, characterized in that: The mixing tank group (210) is connected to a pipe (500) at one end and a water pumping pipe (220) at the other end. A fine filter head (221) is installed on the water pumping pipe (220). The outlet (211) of the mixing tank at the end of the pipe (500) is the highest. A water filling pipe (230) is also provided in the mixing tank at the end of the pipe (500).

5. The organic liquid drip infiltration system for mountain orchards according to claim 3, characterized in that: The mixing tank group (210) is equipped with a rainwater collector (700), the bottom of the mixing tank group (210) is provided with a sewage pipe (240), the top of the sewage pipe (240) is equipped with a sewage valve (241), and the front end of the mixing module (200) is equipped with a filter module (800).

6. The organic liquid infiltration system for mountain orchards according to claim 1, characterized in that: The pipeline module (300) is connected to the mixing tank group (210), and a water pump (310) is provided at the connection. The pipeline module consists of a pipe (500) and a tee (320). A solenoid valve (330) is installed at the tee (320), and a faucet (331) is installed on the solenoid valve (330). A leakage pipe (340) is provided at the bottom of the faucet (331).

7. The organic liquid infiltration system for mountain orchards according to claim 6, characterized in that: A flow meter (332) is installed between the faucet (331) and the solenoid valve (330).

8. The organic liquid drip infiltration system for mountain orchards according to claim 5, characterized in that: The seepage pipe (340) is buried in the soil with its top exposed above the soil. The seepage pipe (340) has several seepage holes (341) on its wall, which are evenly spaced. The bottom of the seepage pipe (340) is sealed with a bottom seal (342).

9. The organic liquid infiltration system for mountain orchards according to claim 1, characterized in that: The irrigation module (400) is connected to the water pump (220) via a hose (410). A water pump (420) is provided at the connection between the hose (410) and the water pump (220). A nozzle (430) is provided at the end of the hose (410).

10. The organic liquid infiltration system for mountain orchards according to claim 5, characterized in that: The solenoid valve (330) is controlled by the control center (600) via a wire, and the control center (600) controls the pressure pump (140), the solenoid valve (330), the flow meter (332), and the water pump (420) via a PLC.

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