Ozone water agricultural sprinkling irrigation equipment and system

Abstract

The invention discloses an ozone water agricultural sprinkling irrigation device and system, and belongs to the technical field of agricultural irrigation. An external water supply facility inputs water into a liquid storage tank through a water inlet, a circulating pump and electrolysis modules are started according to a preset program, the water in the liquid storage tank is continuously conveyed into a plurality of electrolysis modules, the electrolysis modules electrolyze the water to generate ozone, and the ozone generates ozone; ozone and water are mixed to form ozone water, the ozone water is conveyed into the liquid storage tank through the water return port, so that the concentration of liquid ozone in the liquid storage tank is continuously increased, and when an ozone concentration sensor in the liquid storage tank detects that the concentration reaches a preset threshold value, the circulating pump and the electrolysis module are closed; the water outlet pump is started according to a preset program to convey the ozone water in the liquid storage tank into the spray irrigation pipeline for spray irrigation. Through a preset program, the device can also implement sprinkling irrigation of water and liquid fertilizer on crops.

Description

Technical Field

[0001] The present invention relates to the technical field of agricultural irrigation, and in particular to ozone water agricultural sprinkler irrigation equipment and system. Background Art

[0002] Agricultural irrigation systems are water conservancy facilities that draw water from a source, transport it, and distribute it to fields for spray irrigation. Currently, agricultural irrigation systems can mix pesticides or fertilizers into the irrigation water and spray the liquid pesticides or fertilizers onto crops. However, pesticide and fertilizer residues can easily remain on crop leaves, causing contamination. Summary of the Invention

[0003] The present invention aims to solve at least one of the technical problems existing in the prior art. To this end, the present invention provides an ozone water agricultural sprinkler irrigation device and system.

[0004] The ozone water agricultural sprinkler irrigation equipment according to the first embodiment of the present invention includes: The liquid storage tank is provided with a water inlet, a water outlet, a water supply port and a water return port, wherein the water inlet is used to connect to an external water supply facility; A sprinkler pipe connected to the water outlet; a water outlet pump, arranged at the water outlet; A circulation pump, provided at the water supply port; A plurality of electrolysis modules are connected in parallel between the water supply port and the water return port; The controller is configured as: Controlling the circulation pump to start so that the liquid in the liquid storage tank is delivered to the plurality of electrolysis modules, and the liquid in all the electrolysis modules is delivered to the liquid storage tank; All the electrolysis modules are controlled to start up so that the liquid delivered to the liquid storage tank produces ozone water.

[0005] The ozone water agricultural sprinkler irrigation equipment according to the embodiment of the present invention has at least the following beneficial effects: the external water supply facility inputs water into the liquid storage tank through the water inlet, the circulation pump transports the water in the liquid storage tank to multiple electrolysis modules, and the electrolysis module electrolyzes the water after startup to generate ozone, which is mixed with water to form ozone water and then transported to the liquid storage tank through the return water port, so that the liquid in the liquid storage tank is continuously replenished with ozone water, so that the ozone water is stored in the liquid storage tank. When irrigation is needed, the water outlet pump is started to transport the ozone water in the liquid storage tank to the sprinkler pipe for sprinkler irrigation; the ozone water directly acts on the leaf surface of the crop, destroying the cell membrane and enzyme system of pathogens such as powdery mildew, downy mildew, anthrax, etc., with an inactivation rate of more than 95%; the ozone water is sprayed out in atomized form through the sprinkler pipe, which helps to remove pathogens around the stomata of crop leaves and reduce diseases. ozone water can replace fungicides, has a high disease prevention effect, and has no risk of drug resistance; the strong oxidizing property of ozone water can quickly decompose organophosphorus and pyrethroid pesticides; ozone water effectively decomposes atmospheric pollutants adsorbed by crop leaves, such as PM25 and heavy metal ions, improving the safety of fruit and vegetable consumption, and is especially suitable for farms near cities; ozone water can effectively remove dust and secretions from crop leaves, improve the efficiency of stomatal opening and closing of leaves, enhance the absorption of carbon dioxide, and improve the photosynthetic efficiency of crops; moderate ozone stimulation can activate superoxide dismutase in crop leaves, enhance stress resistance, and extend the life of functional leaves; ozone decomposes naturally within half an hour, without secondary pollution, and meets organic farming standards; it does not harm beneficial insects such as bees and ladybugs, maintains the field ecological chain, and is highly sustainable.

[0006] An external water supply system inputs water into the liquid storage tank through the water inlet. A circulating pump and electrolysis module are activated according to a preset program, continuously transferring the water from the liquid storage tank to multiple electrolysis modules. The electrolysis modules electrolyze the water to produce ozone, which is then mixed with water to form ozone water, which is then transferred to the liquid storage tank through the return water inlet, continuously increasing the concentration of liquid ozone in the liquid storage tank. When an ozone concentration sensor in the liquid storage tank detects that the concentration has reached a preset threshold, the circulating pump and electrolysis module are shut off, and a water outlet pump is activated according to a preset program to transfer the ozone water from the liquid storage tank to the sprinkler pipe for sprinkler irrigation. Through the preset program, the present invention can also implement sprinkler irrigation of crops with water and liquid fertilizer.

[0007] According to some embodiments of the present invention, the sprinkler irrigation pipeline includes a spray pipe and a drip pipe arranged in parallel.

[0008] According to some embodiments of the present invention, the spray pipe is provided with a plurality of spray heads, the drip pipe is provided with a plurality of drip heads, and the ozone water agricultural sprinkler irrigation equipment further comprises: Multiple spaced-apart soil moisture sensors; The controller is further configured to: When the humidity measured by any one or more of the soil moisture sensors is lower than a preset humidity, the water outlet pump is controlled to start.

[0009] According to some embodiments of the present invention, the ozone water agricultural sprinkler irrigation equipment further comprises: a solenoid valve, disposed at the water inlet; A first liquid level sensor is provided in the liquid storage tank; The controller is further configured to: When the first liquid level sensor measures that the water level of the liquid storage tank is lower than a first preset water level, the solenoid valve is controlled to open the water inlet.

[0010] According to some embodiments of the present invention, the ozone water agricultural sprinkler irrigation equipment further comprises: a second liquid level sensor, provided in the liquid storage tank; When the second liquid level sensor measures that the water level of the liquid storage tank is not lower than a second preset water level, and the second preset water level is higher than the first preset water level, the solenoid valve is controlled to close the water inlet.

[0011] According to some embodiments of the present invention, each of the electrolysis modules includes a water inlet and a water outlet, the water inlet is detachably connected to the water supply port, and the water outlet is detachably connected to the water return port.

[0012] According to some embodiments of the present invention, the controller records the operating time of each of the electrolysis modules.

[0013] According to some embodiments of the present invention, the ozone water agricultural sprinkler irrigation equipment further comprises: a base, to which all the electrolysis modules are detachably connected; A plurality of RFID tags, wherein the plurality of RFID tags are disposed in a one-to-one correspondence with the plurality of electrolysis modules; An RFID identification module, wherein the identification range of the RFID identification module covers the base; The controller is further configured to: When the electrolysis module is installed on the base, the RFID identification module is controlled to identify the RFID tag corresponding to the electrolysis module and count the operating time of the electrolysis module, and the RFID identification module is controlled to send all the recorded operating times to the controller.

[0014] According to the second aspect of the present invention, the ozone water agricultural sprinkler irrigation system includes: the ozone water agricultural sprinkler irrigation equipment described in the above embodiment, the controller is provided with a wireless communication module, and the ozone water agricultural sprinkler irrigation system also includes a first terminal, and the first terminal is wirelessly connected to the controller through the wireless communication module.

[0015] The ozone water agricultural sprinkler irrigation equipment according to the embodiment of the present invention has at least the following beneficial effects: the first terminal is used to send control instructions to the controller through the wireless communication module to facilitate remote control of the ozone water agricultural sprinkler irrigation equipment and achieve the goal of intelligent planting.

[0016] According to some embodiments of the present invention, the ozone water agricultural sprinkler irrigation system further includes a second terminal. There are multiple ozone water agricultural sprinkler irrigation devices, and the second terminal is wirelessly connected to all the controllers through the wireless communication module. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic structural diagram of an ozone water agricultural sprinkler irrigation device according to an embodiment of the present invention; Figure 2 It is a structural diagram of an ozone water agricultural sprinkler irrigation system according to an embodiment of the present invention.

[0018] Figure 1: Liquid storage tank 100, first liquid level sensor 101, second liquid level sensor 102, third liquid level sensor 103, water inlet 110, solenoid valve 111, water outlet 120, water supply port 130, return water port 140, liquid filling port 150, sprinkler pipe 200, spray pipe 210, drip pipe 220, water outlet pump 300, circulation pump 400, electrolysis module 500, water inlet end 510, water outlet end 520, RFID tag 530, controller 600, wireless communication module 610, soil moisture sensor 700, base 800, RFID identification module 900, first terminal 1000, second terminal 1100. DETAILED DESCRIPTION

[0019] The following describes embodiments of the present invention in detail. Examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended only to explain the present invention and are not to be construed as limiting the present invention.

[0020] In the description of the present invention, it should be understood that the terms front, rear, up, down, axial, circumferential, etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings. They are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, they should not be understood as limitations on the present invention.

[0021] In the description of this invention, "above," "below," and "within" are understood to be exclusive of the number indicated. The terms "first" and "second" are used solely to distinguish technical features and are not to be construed as indicating or implying relative importance, or as implicitly specifying the number or order of the technical features indicated.

[0022] In the description of the present invention, it should be noted that terms such as setting, installing, and connecting should be understood in a broad sense, and technical personnel in the relevant technical field can reasonably determine the specific meanings of the above terms in the present invention based on the specific content of the technical solution.

[0023] The technical solutions of the present invention will be described clearly and completely below with reference to the accompanying drawings. Obviously, the embodiments described below are only some embodiments of the present invention, not all embodiments.

[0024] Reference Figure 1 As shown, the present invention provides an ozone water agricultural sprinkler irrigation device.

[0025] The ozone water agricultural sprinkler irrigation equipment includes a liquid storage tank 100, a sprinkler pipeline 200, a water outlet pump 300, a circulation pump 400, multiple electrolysis modules 500, a controller 600, multiple soil moisture sensors 700, a base 800, and an RFID identification module 900.

[0026] The controller 600 is electrically connected to the outlet pump 300, the circulation pump 400, all the electrolysis modules 500 and the RFID identification module 900. The controller 600 controls the start and stop of the outlet pump 300, the start and stop of the circulation pump 400, and the start and stop of each electrolysis module 500.

[0027] A water inlet 110 is provided at the top of the liquid storage tank 100, and a solenoid valve 111 is provided at the water inlet 110. The water inlet is connected to a water supply facility. The solenoid valve 111 controls the connection and disconnection between the water inlet 110 and the water supply facility. When the solenoid valve 111 is opened, the water supply facility inputs water for irrigation into the liquid storage tank 100.

[0028] A water outlet 120 is provided at the bottom of the liquid storage tank 100 , and a water outlet pump 300 is installed at the water outlet 120 . The water outlet pump 300 is connected to the sprinkler irrigation pipeline 200 , and the water outlet pump 300 transports the water in the liquid storage tank 100 to the sprinkler irrigation pipeline 200 .

[0029] A water return port 140 and a water supply port 130 are provided in the middle of the liquid storage tank 100 , which are spaced apart in an upper and lower direction. The circulation pump 400 is installed at the water supply port 130 .

[0030] Multiple electrolysis modules 500 are detachably mounted on the base 800. Each electrolysis module 500 is provided with an electrolytic cell, a positive electrode and a negative electrode. The positive electrode and the negative electrode are arranged at intervals in the electrolytic cell. The electrolytic cell of each electrolysis module 500 is provided with a water inlet end 510 and a water outlet end 520. The water in the electrolytic cell is electrolyzed by the current generated between the positive electrode and the negative electrode.

[0031] Electrolytic ozone water is a process of directly decomposing water and synthesizing ozone dissolved in water through electrolysis technology. Its core principle involves electrochemical reaction and proton exchange technology. The main principles are as follows.

[0032] 1. The electrolysis reaction process is as follows.

[0033] ‌Raw material requirements‌: Use pure water as raw material and perform electrolysis under low voltage direct current (usually less than 4V).

[0034] Anode reaction: Water molecules lose electrons at the anode and are oxidized to produce ozone and hydrogen ions: 3H2O-6e - →O3+6H + ; This step relies on the catalytic action of noble metals such as platinum or boron-doped diamond (BDD) electrodes.

[0035] ‌Cathode reaction‌: Hydrogen ions migrate through the proton exchange membrane to the cathode and combine with electrons to generate hydrogen gas: 6H + +6e - →3H2; The hydrogen is directly exhausted from the system to avoid mixing with ozone.

[0036] Overall reaction: 3H2O→O3+3H2; Water is decomposed into ozone and hydrogen.

[0037] 2. Core technical features.

[0038] Proton exchange membrane (PEM): Separates the cathode and anode reaction zones, allowing only H + By ensuring ozone purity and reaction efficiency.

[0039] Low-voltage operation: Uses low voltage of less than 4V to reduce energy consumption and safety risks.

[0040] Electrode materials: Precious metal ceramic sheets or BDD electrodes enhance catalytic activity and durability, achieving ozone concentrations > 20%.

[0041] 3. Ozone synthesis and dissolution.

[0042] The oxygen (O2) generated at the anode is further polymerized into ozone (O3) under a strong electric field and directly dissolved in water to form ozone water.

[0043] The concentration of ozone water can be controlled by adjusting parameters such as current density and water temperature. When the ORP value (oxidation-reduction potential) reaches above 700mV, the sterilization rate is close to 100%.

[0044] There are various ways to removably mount each electrolysis module 500 on the base 800. For example, multiple screw holes can be provided on the base 800, and multiple screws can be used to lock the multiple electrolysis modules 500 into the multiple screw holes in a one-to-one correspondence. Alternatively, the base 800 can be provided with multiple snap grooves, and each electrolysis module 500 can be provided with a snap that fits into the snap groove, snapping the multiple electrolysis modules 500 into the multiple snap grooves in a one-to-one correspondence. Alternatively, the base 800 can be provided with multiple mounting grooves, the shape of which matches the outer shape of the electrolysis module 500, and the multiple electrolysis modules 500 can be installed into the multiple mounting grooves in a one-to-one correspondence.

[0045] The RFID identification module 900 is set on the base 800, and the RFID identification module 900 is electrically connected to the controller 600. Each electrolysis module 500 is provided with an RFID tag 530. After the RFID tag 530 enters the identification range of the radio frequency signal emitted by the RFID identification module 900, the passive RFID tag 530 uses the energy obtained by the induced current to send out the product information stored in the chip, while the active RFID tag 530 can directly send a signal of a certain frequency to interact with the RFID identification module 900. After the RFID identification module 900 identifies and decodes the information, it is sent to the controller 600 for related processing.

[0046] The recognition range of the RFID identification module 900 covers the entire base 800. After the electrolysis module 500 is installed on the base 800, the RFID identification module 900 identifies the RFID tag 530 corresponding to the electrolysis module 500. The RFID identification module 900 begins to count the operating time of the electrolysis module 500 and sends it to the controller 600 for storage, so that the controller 600 can count the operating time of all electrolysis modules 500, monitor whether all electrolysis modules 500 have reached their service life at all times, and remind users to replace failed electrolysis modules 500 in time.

[0047] When the electrolysis module 500 is removed from the base 800 and the RFID tag 530 is out of the recognition range of the RFID identification module 900, the RFID identification module 900 clears the information of the RFID tag 530. After another electrolysis module 500 is reinstalled on the base 800 and the corresponding RFID tag 530 enters the recognition range of the RFID identification module 900, the RFID identification module 900 rereads the RFID tag 530 of the electrolysis module 500 and recalculates the operating time of the electrolysis module 500.

[0048] All electrolysis modules 500 are arranged in parallel, the water inlet ends 510 of all electrolysis modules 500 are connected to the water supply port 130, and the water outlet ends 520 of all electrolysis modules 500 are connected to the return water port 140. The circulation pump 400 transports the water in the liquid storage tank 100 to the multiple electrolysis modules 500 through the water supply port 130. After all electrolysis modules 500 electrolyze the water to produce ozone water, the ozone water is returned to the liquid storage tank 100 through the return water port 140, so that the ozone water is mixed with the water in the liquid storage tank 100.

[0049] Reference Figure 1 As shown, in this embodiment, there are n electrolysis modules 500. The water supply port 130 is connected to the water supply pipe, which is provided with multiple first quick-connect interfaces. The water inlet 510 of each electrolysis module 500 is provided with a first quick-connect connector, which is detachably connected to the first quick-connect interface. The return water port 140 is connected to the return water pipe, which is provided with multiple second quick-connect interfaces. The water outlet 520 of each electrolysis module 500 is provided with a second quick-connect connector, which is detachably connected to the second quick-connect interface. Therefore, the electrolysis module 500 can be removed from the base 800, and the water inlet 510 of the electrolysis module 500 is disconnected from the water supply pipe, and the water outlet 520 of the electrolysis module 500 is disconnected from the return water pipe to ensure that the remaining electrolysis modules 500 can still maintain operation.

[0050] The liquid storage tank 100 is provided with a first liquid level sensor 101, a second liquid level sensor 102, and a third liquid level sensor 103. The second liquid level sensor 102 is located below the water inlet 110 and above the water return port 140. The second liquid level sensor 102 is used to detect whether the liquid level in the liquid storage tank 100 is higher than a second preset water level. When the liquid level in the liquid storage tank 100 is higher than the second preset water level, it indicates that the liquid level in the liquid storage tank 100 has exceeded the upper limit. Therefore, the controller 600 controls the solenoid valve 111 to close the water inlet 110. The controller 600 can also control the water outlet pump 300, the circulation pump 400, and all the electrolysis modules 500 to start, so that the electrolysis modules 500 can generate ozone water and transport it back to the liquid storage tank 100. The ozone water is then transported to the sprinkler pipe 200 for sprinkler irrigation via the water outlet pump 300.

[0051] The first liquid level sensor 101 is arranged in the middle of the liquid storage tank 100. The first liquid level sensor 101 is used to detect whether the liquid level in the liquid storage tank 100 is lower than the first preset water level. The first liquid level sensor 101 is located below the second liquid level sensor 102. The first liquid level sensor 101 is located at a height position between the return water port 140 and the water supply port 130. The first preset water level is lower than the second preset water level.

[0052] When the liquid level in the liquid storage tank 100 is lower than the first preset water level, it proves that the liquid in the liquid storage tank 100 is insufficient, so the controller 600 controls the solenoid valve 111 to open the water inlet 110 so that the water supply facility can supply water to the liquid storage tank 100.

[0053] When the liquid level in the liquid storage tank 100 is higher than the first preset water level and lower than the second preset water level, it proves that the liquid level in the liquid storage tank 100 is in a normal state. The controller 600 controls the solenoid valve 111 to open the water inlet 110, so that the water supply facility can supply water to the liquid storage tank 100. The controller 600 also controls the circulation pump 400 to start so that the water in the liquid storage tank 100 flows to the multiple electrolysis modules 500. The controller 600 controls all the electrolysis modules 500 to start so that the ozone water produced by the multiple electrolysis modules 500 can be replenished back to the liquid storage tank 100.

[0054] The third liquid level sensor 103 is arranged at the bottom of the liquid storage tank 100. The third liquid level sensor 103 is used to measure whether the liquid in the liquid storage tank 100 is lower than the third preset water level. The third preset water level is lower than the second preset water level. When the liquid level in the liquid storage tank 100 is lower than the third preset water level, it proves that the liquid in the liquid storage tank 100 is seriously insufficient. The controller 600 controls the solenoid valve 111 to turn on the water inlet 110 so that the water supply facility can supply water to the liquid storage tank 100. The controller 600 also needs to control the water outlet pump 300 and the circulation pump 400 to be turned off. The controller 600 controls all electrolysis modules 500 to be turned off to avoid the electrolysis modules 500 from running in a water shortage situation and affecting their lifespan, so as to ensure that the water level in the liquid storage tank 100 rises rapidly.

[0055] Reference Figure 2 As shown, the sprinkler irrigation pipeline 200 includes a spray pipe 210, which is laid on the farmland. A plurality of spray heads 211 are evenly spaced on the spray pipe 210. The spray pipe 210 transports liquid to the spray heads 211, and the spray heads 211 spray atomized liquid to irrigate the crops.

[0056] The sprinkler irrigation pipeline 200 also includes a drip pipe 220, which is laid in the farmland. A plurality of drip heads 221 are evenly spaced on the drip pipe 220. The drip pipe 220 transports liquid to the drip heads 221, which drip liquid downward to irrigate the crops.

[0057] In this embodiment, the spray pipe 210 and the drip pipe 220 are arranged in parallel.

[0058] In this embodiment, multiple soil moisture sensors 700 are distributed at intervals in the soil of the farmland, each soil moisture sensor 700 measures the soil moisture of the farmland, and all soil moisture sensors 700 wirelessly communicate with the controller 600, and each soil moisture sensor 700 sends the measured soil moisture information to the controller 600.

[0059] In some embodiments, when the soil moisture measured by any soil moisture sensor 700 falls below a preset humidity, the controller 600 controls the water outlet pump 300 to start delivering the ozone water in the liquid storage tank 100 to the spray pipe 210 and the drip pipe 220 to irrigate the farmland. Alternatively, a threshold value can be set. When the number of soil moisture sensors 700 measuring soil moisture below the preset humidity exceeds the threshold value, the controller 600 controls the water outlet pump 300 to start delivering the ozone water in the liquid storage tank 100 to the spray pipe 210 and the drip pipe 220 to irrigate the farmland. Both of these solutions can increase soil moisture in the farmland to ensure crop growth.

[0060] The external water supply facility inputs water into the liquid storage tank 100 through the water inlet 110, and the circulation pump 400 transports the water in the liquid storage tank 100 to multiple electrolysis modules 500. After the electrolysis module 500 is started, the water is electrolyzed to generate ozone. The ozone is mixed with water to form ozone water, which is then transported to the liquid storage tank 100 through the return water port 140, so that the liquid in the liquid storage tank 100 is continuously replenished with ozone water, so that the ozone water is stored in the liquid storage tank 100. When irrigation is needed, the water outlet pump 300 is started to transport the ozone water in the liquid storage tank 100 to the sprinkler pipe 200 for sprinkler irrigation.

[0061] Ozone water acts directly on the surface of crop leaves, destroying the cell membrane and enzyme system of pathogens such as powdery mildew, downy mildew, anthracnose, etc., with an inactivation rate of over 95%. The ozone water is sprayed out in a mist form through the spray pipe 210 of the sprinkler pipe 200, which helps to remove pathogens around the stomata of crop leaves and reduce the risk of diseases invading through the stomata of the leaves.

[0062] Ozone water can replace fungicides, has a higher disease prevention effect, and has no risk of drug resistance.

[0063] The strong oxidizing property of ozone water can quickly decompose organophosphorus and pyrethroid pesticides.

[0064] Ozone water effectively decomposes atmospheric pollutants adsorbed by crop leaves, such as PM25 and heavy metal ions, improving the safety of fruits and vegetables, and is especially suitable for farms near cities.

[0065] Ozone water can effectively remove dust and secretions from crop leaves, improve the opening and closing efficiency of stomatal pores, enhance the absorption of carbon dioxide, and improve the photosynthetic efficiency of crops.

[0066] Moderate ozone stimulation can activate superoxide dismutase in crop leaves, enhance stress resistance, and extend the life of functional leaves.

[0067] Ozone decomposes naturally within half an hour without secondary pollution, meeting organic farming standards; it does not harm beneficial insects such as bees and ladybugs, maintains the field ecological chain, and is highly sustainable.

[0068] In some embodiments, the top of the liquid storage tank 100 is further provided with a liquid filling port 150, through which nutrients or liquid medicine can be added to the liquid in the liquid storage tank 100. This also enables common functions of ozone water agricultural sprinkler irrigation, such as water spray irrigation, pesticide spraying, and liquid fertilizer irrigation. These functions can be achieved even when all electrolysis modules 500 are deactivated. Social Benefit: Even if ozone water agricultural sprinkler irrigation equipment uses pesticides in the early stages of crop planting, spraying ozone water before harvest can degrade the pesticide residues. This significantly reduces pesticide usage while ensuring no pesticide residue remains.

[0069] Reference Figure 2 As shown, the present invention provides an ozone water agricultural sprinkler irrigation system.

[0070] Reference Figure 2 As shown, the ozone water agricultural sprinkler irrigation system includes the ozone water agricultural sprinkler irrigation equipment of the above embodiment and a first terminal 1000. The first terminal 1000 is a mobile terminal, such as a mobile phone, a smart tablet or a portable laptop computer, etc. The controller 600 of the ozone water agricultural sprinkler irrigation equipment is provided with a wireless communication module 610. The first terminal 100 is wirelessly connected to the controller 600 of the ozone water agricultural sprinkler irrigation equipment through the wireless communication module 610, so that the user can use the first terminal 1000 to send control instructions to the controller 600 of the ozone water agricultural sprinkler irrigation equipment. For example, the user uses the first terminal 1000 to manipulate the controller 600 to control the start and stop of the water outlet pump 300, manipulate the controller 600 to control the start and stop of the circulation pump 400, and manipulate the controller 600 to control the start and stop of each electrolysis module 500.

[0071] In some embodiments, reference Figure 2As shown, the ozone water agricultural sprinkler irrigation system also includes a second terminal 1100, which is an intelligent terminal such as a computer. The second terminal 1100 is wirelessly connected to the controller 600 of the corresponding ozone water agricultural sprinkler irrigation equipment through multiple wireless communication modules 610, so that the user can use the second terminal 1100 to send control instructions to the controller 600 of each ozone water agricultural sprinkler irrigation equipment, and the user can use the second terminal 1000 to operate all ozone water agricultural sprinkler irrigation equipment.

[0072] The embodiments of the present invention are described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Various changes can be made within the knowledge of ordinary technicians in the relevant technical field without departing from the scope of the present invention.

Claims

1. An ozone water agricultural sprinkler irrigation equipment, characterized in that: include: The liquid storage tank is provided with a water inlet, a water outlet, a water supply port and a water return port, wherein the water inlet is used to connect to an external water supply facility; A sprinkler pipe connected to the water outlet; a water outlet pump, arranged at the water outlet; A circulation pump, provided at the water supply port; A plurality of electrolysis modules are connected in parallel between the water supply port and the water return port; The controller is configured as: Controlling the circulation pump to start so that the liquid in the liquid storage tank is delivered to the plurality of electrolysis modules, and the liquid in all the electrolysis modules is delivered to the liquid storage tank; All the electrolysis modules are controlled to start up so that the liquid delivered to the liquid storage tank produces ozone water.

2. The ozone water agricultural sprinkler equipment according to claim 1, characterized in that: The sprinkler irrigation pipeline includes a spray pipe and a drip pipe arranged in parallel.

3. The ozone water agricultural sprinkler equipment according to claim 2, characterized in that: The spray pipe is provided with a plurality of spray heads, the drip pipe is provided with a plurality of drip heads, and the ozone water agricultural sprinkler irrigation equipment further comprises: Multiple spaced-apart soil moisture sensors; The controller is further configured to: When the humidity measured by any one or more of the soil moisture sensors is lower than a preset humidity, the water outlet pump is controlled to start.

4. The ozone water agricultural sprinkler equipment according to claim 1, characterized in that: The ozone water agricultural sprinkler irrigation equipment also includes: a solenoid valve, disposed at the water inlet; A first liquid level sensor is provided in the liquid storage tank; The controller is further configured to: When the first liquid level sensor measures that the water level of the liquid storage tank is lower than a first preset water level, the solenoid valve is controlled to open the water inlet.

5. The ozone water agricultural sprinkler equipment according to claim 4, characterized in that: The ozone water agricultural sprinkler irrigation equipment also includes: a second liquid level sensor, provided in the liquid storage tank; When the second liquid level sensor measures that the water level of the liquid storage tank is not lower than a second preset water level, and the second preset water level is higher than the first preset water level, the solenoid valve is controlled to close the water inlet.

6. The ozone water agricultural sprinkler equipment according to claim 1, characterized in that: Each of the electrolysis modules includes a water inlet and a water outlet. The water inlet is detachably connected to the water supply port, and the water outlet is detachably connected to the water return port.

7. The ozone water agricultural sprinkler equipment according to claim 6, characterized in that: The controller records the operating time of each electrolysis module.

8. The ozone water agricultural sprinkler equipment according to claim 7, characterized in that: The ozone water agricultural sprinkler irrigation equipment also includes: a base, to which all the electrolysis modules are detachably connected; A plurality of RFID tags, wherein the plurality of RFID tags are disposed in a one-to-one correspondence with the plurality of electrolysis modules; An RFID identification module, wherein the identification range of the RFID identification module covers the base; The controller is further configured to: When the electrolysis module is installed on the base, the RFID identification module is controlled to identify the RFID tag corresponding to the electrolysis module and count the operating time of the electrolysis module, and the RFID identification module is controlled to send all the recorded operating times to the controller.

9. An ozone water agricultural sprinkler irrigation system, characterized in that: It comprises the ozone water agricultural sprinkler irrigation equipment according to any one of claims 1 to 8, wherein the controller is provided with a wireless communication module, and the ozone water agricultural sprinkler irrigation system further comprises a first terminal, and the first terminal is wirelessly connected to the controller through the wireless communication module.

10. The ozone water agricultural sprinkler irrigation system according to claim 9, characterized in that: The ozone water agricultural sprinkler irrigation system further includes a second terminal. There are multiple ozone water agricultural sprinkler irrigation devices. The second terminal is wirelessly connected to all the controllers via the wireless communication module.

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