A cloud-based seawater aquaculture electrolysis chlorination system

Abstract

This utility model discloses a cloud-based seawater aquaculture electrolytic chlorination system, comprising: a control component, a processing component, and a cleaning component. The processing component is mounted on the control component and is used to electrolyze pumped seawater. The cleaning component is mounted on the control component and is used to clean the interior of the processing component. The processing component includes a piping assembly and an electrolysis assembly. The piping assembly is mounted on the control component, and the electrolysis assembly is located within the piping assembly. The piping assembly includes an electrolysis tank, an inlet pipe, an electrically controlled valve one, a flow meter, a salinity meter, an outlet pipe, and an electrically controlled valve two. This cloud-based seawater aquaculture electrolytic chlorination system provides the advantage of producing free chlorine through seawater electrolysis, utilizing the strong oxidizing properties of free chlorine to destroy bacterial cell structures, achieving efficient killing of harmful microorganisms in seawater, and reducing disease caused by bacterial infections in fish, shrimp, and other organisms in the aquaculture area.

Description

Technical Field

[0001] This utility model relates to the field of marine aquaculture technology, specifically to a cloud platform-based marine aquaculture electrolytic chlorination system. Background Technology

[0002] Marine aquaculture is a production activity that utilizes shallow coastal tidal flats to cultivate marine aquatic economic plants and animals. The main species cultivated are fish, shrimp, crabs, shellfish, algae, and other economically important animals such as sea cucumbers. Marine aquaculture is an important component of the aquaculture industry. China has a long history of marine aquaculture; oyster farming was practiced as early as the Han Dynasty, and pearl farming was invented in the Song Dynasty. After the founding of the People's Republic of my country, marine aquaculture developed rapidly, with particularly prominent development of major economic species such as kelp, laver, mussels, and shrimp, driving the development of the coastal economy and becoming a major industry in coastal areas.

[0003] However, in order to improve economic benefits, high-density farming is often used when raising shrimp in marine environments. But high density also leads to more excrement, which makes it easier for bacteria to grow and affect the farming. However, killing bacteria usually involves manually spraying drugs, which is ineffective and troublesome. Utility Model Content

[0004] The purpose of this invention is to provide a cloud platform-based seawater aquaculture electrolytic chlorination system. This system uses seawater electrolysis to produce free chlorine, which utilizes the strong oxidizing properties of free chlorine to destroy bacterial cell structures and kill various harmful bacteria such as spores and vibrio in seawater. This achieves efficient killing of harmful microorganisms in seawater and reduces the risk of disease in aquaculture areas caused by bacterial infections, thereby solving the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a cloud platform-based seawater aquaculture electrolytic chlorination system, comprising a control component, a processing component, and a cleaning component. The processing component is mounted on the control component for electrolyzing pumped seawater, and the cleaning component is mounted on the control component for cleaning the interior of the processing component.

[0006] Furthermore, the processing assembly includes a piping assembly and an electrolysis assembly. The piping assembly is mounted on the control assembly, and the electrolysis assembly is located within the piping assembly. The piping assembly includes an electrolytic cell, an inlet pipe, an electrically controlled valve one, a flow meter, a salinity meter, a drain pipe, and an electrically controlled valve two. The electrolytic cell is mounted on the control assembly. The inlet pipe is fixedly mounted on the electrolytic cell. The electrically controlled valve one is fixedly mounted on the inlet pipe. The flow meter is fixedly mounted on the inlet pipe. The salinity meter is fixedly mounted on the inlet pipe. The drain pipe is fixedly mounted on the electrolytic cell. The electrically controlled valve two is fixedly mounted on one end of the drain pipe.

[0007] Furthermore, the electrolysis assembly includes two fixing frames, an electrolysis plate, a fixing plate, and two connecting electrodes. The two fixing frames are fixedly installed on the inner wall of the electrolysis cell, the electrolysis plate is fixedly installed on the two fixing frames, the fixing plate is fixedly installed on the electrolysis cell by fasteners, and the two connecting electrodes are fixedly installed on the fixing plate by fasteners. Both connecting electrodes are fixedly connected to the electrolysis plate.

[0008] Furthermore, the electrolytic cell is made of UPVC.

[0009] Furthermore, the control assembly includes a base plate, a control cabinet, a control terminal, and an electrolytic power supply. The control cabinet is fixedly installed on the top of the base plate, the control terminal is fixedly installed on one outer wall of the control cabinet, the electrolytic power supply is fixedly installed on one outer wall of the control cabinet, the electrolytic power supply is connected to the control cabinet via wires, the electrolytic cell is fixedly installed on the top of the base plate, and the connecting electrode is connected to the control cabinet via wires.

[0010] Furthermore, the cleaning assembly includes a first tee pipe, a second tee pipe, an electric valve, and an acid tank. The first tee pipe is fixedly installed on the outer wall of the electrolytic cell, the second tee pipe is fixedly installed on the outer wall of the drain pipe, the electric valve is evenly distributed on the first and second tee pipes, and the acid tank is fixedly installed on the top of the base plate. One end of the first tee pipe and one end of the second tee pipe are respectively connected to the acid tank.

[0011] Furthermore, a feeding pipe is fixedly installed on the acid tank, and a sealing cap is threaded onto the feeding pipe.

[0012] In summary, due to the adoption of the above-mentioned technologies, the beneficial effects of this utility model are:

[0013] This invention, through the configuration of processing components, controls and activates an electrically controlled valve via a control cabinet. The valve opens the inlet pipe, allowing seawater to be pumped into it. The seawater then enters the electrolytic cell. As it flows into the inlet pipe, it comes into contact with a flow meter and a salinity meter. The flow meter measures the amount of seawater flowing into the electrolytic cell, while the salinity meter measures the salt content. The measured data is sent to the control cabinet, which then adjusts the current input to the electrolytic power supply. Once the electrolytic cell is filled with seawater, the control cabinet supplies power to the connected electrodes. Based on the salinity meter readings... The obtained data is used to adjust the electrolysis current. Electrodes are connected to conduct the current into the electrolysis plate. The electrolysis plate conducts the current and electrolyzes the seawater. The seawater produces chlorine through electrolysis. The drain pipe discharges the electrolyzed seawater into the aquaculture area. The free chlorine produced after seawater electrolysis can effectively kill various harmful bacteria such as spores and vibrio in the seawater, thus sterilizing the aquaculture area. It has the advantages of using seawater electrolysis to electrolyze free chlorine, utilizing the strong oxidizing properties of free chlorine to destroy the bacterial cell structure, achieving efficient killing of harmful microorganisms in seawater, and reducing the risk of disease caused by bacterial infection in fish, shrimp and other organisms in the aquaculture area.

[0014] This invention features a cleaning assembly. An external pump draws acid from the acid tank, pumping it into a three-way pipe. An electric valve is then opened, allowing the pumped acid to flow into the electrolytic cell through the three-way pipe. The acid accumulates in the electrolytic cell, cleaning away residual seawater and corrosive substances. The electric valve on the three-way pipe is then closed, while the electric valve on the other three-way pipe is opened. The external pump draws the acid out of the electrolytic cell, drawing it into a drain pipe. The acid then flows through the drain pipe into the other three-way pipe and back into the acid tank. After cleaning, any sediment at the bottom is drawn out of the electrolytic cell through the three-way pipe. This completes the pumping cleaning process, offering the advantages of cleaning the inside of the electrolytic cell and preventing corrosion from corrosive substances in the seawater. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the main structure of a cloud platform-based seawater aquaculture electrolytic chlorination system according to this utility model.

[0016] Figure 2 This is a rear view schematic diagram of a cloud platform-based seawater aquaculture electrolytic chlorination system according to this utility model.

[0017] Figure 3 This is a side view of a cloud-based seawater aquaculture electrolytic chlorination system according to the present invention.

[0018] Figure 4 This is a cross-sectional view of the processing component in this utility model;

[0019] Figure 5 This is a schematic diagram of the principle of a cloud platform-based seawater aquaculture electrolytic chlorination system according to this utility model.

[0020] In the diagram: 1. Control components; 101. Base plate; 102. Control cabinet; 103. Control terminal; 104. Electrolysis power supply; 2. Processing components; 201. Electrolytic cell; 202. Inlet pipe; 203. Electrically controlled valve one; 204. Flow meter; 205. Salinity meter; 206. Drain pipe; 207. Electrically controlled valve two; 208. Fixing frame; 209. Electrolysis plate; 210. Fixing plate; 211. Connecting electrode; 3. Cleaning components; 301. T-pipe one; 302. T-pipe two; 303. Electric valve; 304. Acid tank. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this utility model, not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are within the scope of protection of this utility model. Therefore, the following detailed description of the embodiments of this utility model provided in the accompanying drawings is not intended to limit the scope of the claimed utility model, but merely represents selected embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without creative effort are within the scope of protection of this utility model.

[0022] This utility model provides, for example Figures 1-5 As shown, a cloud platform-based seawater aquaculture electrolysis chlorination system includes a control component 1, a processing component 2, and a cleaning component 3. The processing component 2 is installed on the control component 1 for electrolyzing pumped seawater, and the cleaning component 3 is installed on the control component 1 for cleaning the processing component 2.

[0023] Additionally, the processing component 2 includes a piping assembly and an electrolysis assembly. The piping assembly is mounted on the control component 1, and the electrolysis assembly is disposed within the piping assembly. The piping assembly includes an electrolytic cell 201, an inlet pipe 202, a first electrically controlled valve 203, a flow meter 204, a salinity meter 205, a drain pipe 206, and a second electrically controlled valve 207. The electrolytic cell 201 is mounted on the control component 1, the inlet pipe 202 is fixedly mounted on the electrolytic cell 201, the first electrically controlled valve 203 is fixedly mounted on the inlet pipe 202, and the flow meter 204... The salinity detector 205 is fixedly installed on the inlet pipe 202, the drain pipe 206 is fixedly installed on the electrolytic cell 201, and the second electrically controlled valve 207 is fixedly installed on one end of the drain pipe 206. More specifically, the first electrically controlled valve 203 is controlled and activated by the control cabinet 102. The first electrically controlled valve 203 opens the inlet pipe 202, and the seawater is pumped into the inlet pipe 202 by a pump. The seawater enters the electrolytic cell 201 through the inlet pipe 202. When the seawater flows into the inlet pipe 202, it interacts with the flow detector 205. 04. The flow meter 204 contacts the salinity detector 205, which detects the amount of seawater flowing into the electrolytic cell 201. The salinity detector 205 detects the salt content of the seawater and sends the measured data to the control cabinet 102, adjusting the current input to the control electrolysis power supply 104. After seawater is filled into the electrolytic cell 201, the control cabinet 102 supplies power to the connecting electrode 211. Based on the data measured by the salinity detector 205, the electrolysis current is adjusted. The connecting electrode 211 guides the current to the electrolysis plate 209, which conducts the current and... Seawater undergoes electrolysis, producing free chlorine. After electrolysis, the drain pipe 206 discharges the electrolyzed seawater into the aquaculture area. The free chlorine produced by seawater electrolysis can effectively kill various harmful bacteria in the seawater, sterilizing the aquaculture area. It has the advantages of using seawater electrolysis to produce free chlorine, utilizing the strong oxidizing properties of free chlorine to destroy the bacterial cell structure, and killing various harmful bacteria such as spores and vibrio in seawater. This achieves efficient killing of harmful microorganisms in seawater and reduces the risk of disease caused by bacterial infections in fish, shrimp, and other organisms in the aquaculture area.

[0024] In addition, the electrolysis assembly includes two fixing frames 208, an electrolysis plate 209, a fixing plate 210, and two connecting electrodes 211. The two fixing frames 208 are fixedly installed on the inner wall of the electrolysis cell 201, the electrolysis plate 209 is fixedly installed on the two fixing frames 208, the fixing plate 210 is fixedly installed on the electrolysis cell 201 by fasteners, and the two connecting electrodes 211 are fixedly installed on the fixing plate 210 by fasteners. Both connecting electrodes 211 are fixedly connected to the electrolysis plate 209.

[0025] In addition, the electrolytic cell 201 is made of UPVC.

[0026] like Figure 1 As shown, the control component 1 includes a base plate 101, a control cabinet 102, a control terminal 103, and an electrolytic power supply 104. The control cabinet 102 is fixedly installed on the top of the base plate 101. The control terminal 103 is fixedly installed on one outer wall of the control cabinet 102. The electrolytic power supply 104 is fixedly installed on one outer wall of the control cabinet 102. The electrolytic power supply 104 is connected to the control cabinet 102 via wires. The electrolytic cell 201 is fixedly installed on the top of the base plate 101. The connecting electrode 211 is connected to the control cabinet 102 via wires.

[0027] like Figure 1 As shown, in some embodiments, the cleaning assembly 3 includes a first tee pipe 301, a second tee pipe 302, an electric valve 303, and an acid tank 304. The first tee pipe 301 is fixedly installed on the outer wall of the electrolytic cell 201, and the second tee pipe 302 is fixedly installed on the outer wall of the drain pipe 206. The electric valves 303 are evenly distributed on the first tee pipe 301 and the second tee pipe 302. The acid tank 304 is fixedly installed on the top of the base plate 101. One end of the first tee pipe 301 and one end of the second tee pipe 302 are respectively connected to the acid tank 304. More specifically, the acid in the acid tank 304 is extracted by an external pump and pumped into the first tee pipe 301. At this time, the electric valve 303 is opened, and the pumped acid flows through the tee pipe... Acid solution 301 enters the electrolytic cell 201, where it accumulates and cleans the residual seawater and corrosive substances within. At this point, the electric valve 303 on the first three-way pipe 301 is closed, while the electric valve 303 on the second three-way pipe 302 is opened. An external pump draws the acid solution out of the electrolytic cell 201, pumping it into the drain pipe 206. The acid then flows through the drain pipe 206 into the second three-way pipe 302 and back into the acid tank 304. After cleaning, any sediment at the bottom is pumped out of the electrolytic cell 201 through the first three-way pipe 301. This completes the pumping cleaning process, which effectively cleans the inside of the electrolytic cell 201 and prevents corrosion caused by corrosive substances in the seawater.

[0028] In some embodiments, a feeding pipe is fixedly installed on the acid tank 304, and a sealing cap is threaded onto the feeding pipe.

[0029] Working principle:

[0030] The flow meter 204 is model number EMFM, and the salinity meter 205 is model number SAL321.

[0031] Step 1: Seawater electrolysis. Control cabinet 102 controls and starts the solenoid valve 203, opening the inlet pipe 202. A pump then pumps seawater into the inlet pipe 202, allowing it to enter the electrolysis cell 201. As the seawater flows into the inlet pipe 202, it comes into contact with the flow meter 204 and salinity meter 205. The flow meter 204 detects the amount of seawater flowing into the electrolysis cell 201, and the salinity meter 205 detects the salt content. The measured data is sent to control cabinet 102, which adjusts the current input to the electrolysis power supply 104, thereby adjusting the amount of free chlorine produced from the electrolyzed seawater. After seawater is filled into the electrolysis cell 201, control cabinet 102 supplies power to the connecting electrode 211. Based on the data measured by the salinity meter 205, the electrolysis current is adjusted. The connecting electrode 211 guides the current onto the electrolysis plate 209. 9. Current is conducted to electrolyze seawater, producing free chlorine. The drain pipe 206 discharges the electrolyzed seawater into the aquaculture area. The free chlorine produced after seawater electrolysis can effectively kill various harmful bacteria such as spores and vibrio in the seawater. When seawater enters the electrolysis tank 201, the flow rate and salinity of the entering seawater are detected by the flow meter 204 and the salinity meter 205. The data measured by the flow meter 204 and the salinity meter 205 are recorded in real time and transmitted to the control component 1. The control component 1 transmits the data to the cloud platform. The cloud platform displays the data in real time through external computer and other terminal devices, allowing staff to monitor the equipment status and achieve wireless data interaction with the cloud. Based on the data recorded by the cloud platform, the control component 1 monitors and controls the first electric control valve 203, the second electric control valve 207, the pump body, and the electrolysis power supply 104 in real time, realizing wireless remote monitoring and control.

[0032] Step Two: Pumping Cleaning. An external pump extracts the acid from the acid tank 304 and pumps it into the three-way pipe 301. At this time, the electric valve 303 is opened, and the pumped acid enters the electrolytic cell 201 through the three-way pipe 301. The acid accumulates in the electrolytic cell 201, cleaning the residual seawater and corrosive substances within it. Then, the electric valve 303 on the three-way pipe 301 is closed, and the electric valve 303 on the two-way pipe 302 is opened. An external pump is used to extract the acid from the electrolytic cell 201. The acid is drawn into the drain pipe 206 and then flows through the drain pipe 206 into the two-way pipe 302 before being discharged back into the acid tank 304. After cleaning, any sediment at the bottom is suctioned out of the electrolytic cell 201 through the three-way pipe 301. This completes the pumping cleaning process.

[0033] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

[0034] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

Claims

1. A cloud-based seawater aquaculture electrolysis chlorine production system, characterized in that: It includes a control component, a processing component, and a cleaning component. The processing component is disposed on the control component and is used to electrolyze the pumped seawater. The cleaning component is disposed on the control component and is used to clean the interior of the processing component.

2. The seawater aquaculture electrolysis chlorine production system based on a cloud platform according to claim 1, characterized in that: The processing assembly includes a piping assembly and an electrolysis assembly. The piping assembly is mounted on the control assembly, and the electrolysis assembly is located within the piping assembly. The piping assembly includes an electrolytic cell, an inlet pipe, an electrically controlled valve one, a flow meter, a salinity meter, a drain pipe, and an electrically controlled valve two. The electrolytic cell is mounted on the control assembly. The inlet pipe is fixedly mounted on the electrolytic cell. The electrically controlled valve one is fixedly mounted on the inlet pipe. The flow meter is fixedly mounted on the inlet pipe. The salinity meter is fixedly mounted on the inlet pipe. The drain pipe is fixedly mounted on the electrolytic cell. The electrically controlled valve two is fixedly mounted on one end of the drain pipe.

3. The seawater aquaculture electrolysis chlorine production system based on a cloud platform according to claim 2, characterized in that: The electrolysis assembly includes two fixed frames, an electrolysis plate, a fixed plate, and two connecting electrodes. The two fixed frames are fixedly installed on the inner wall of the electrolysis cell, the electrolysis plate is fixedly installed on the two fixed frames, the fixed plate is fixedly installed on the electrolysis cell by fasteners, and the two connecting electrodes are fixedly installed on the fixed plate by fasteners. Both connecting electrodes are fixedly connected to the electrolysis plate.

4. The seawater aquaculture electrolysis chlorination system based on a cloud platform according to claim 2, characterized in that: The electrolytic cell is made of UPVC.

5. A cloud-based seawater aquaculture electrolysis chlorine production system according to claim 3, characterized in that: The control assembly includes a base plate, a control cabinet, a control terminal, and an electrolytic power supply. The control cabinet is fixedly installed on the top of the base plate, the control terminal is fixedly installed on one outer wall of the control cabinet, the electrolytic power supply is fixedly installed on one outer wall of the control cabinet, the electrolytic power supply is connected to the control cabinet via wires, the electrolytic cell is fixedly installed on the top of the base plate, and the connecting electrode is connected to the control cabinet via wires.

6. The seawater aquaculture electrolysis chlorine production system based on a cloud platform according to claim 5, characterized in that: The cleaning assembly includes a first tee pipe, a second tee pipe, an electric valve, and an acid tank. The first tee pipe is fixedly installed on the outer wall of the electrolytic cell, the second tee pipe is fixedly installed on the outer wall of the drain pipe, the electric valves are evenly distributed on the first and second tee pipes, and the acid tank is fixedly installed on the top of the base plate. One end of the first tee pipe and one end of the second tee pipe are respectively connected to the acid tank.

7. The seawater aquaculture electrolysis chlorine production system based on a cloud platform according to claim 6, characterized in that: A feeding pipe is fixedly installed on the acid tank, and a sealing cap is threaded onto the feeding pipe.

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