Superionized water treatment system for aquaculture

Abstract

The invention discloses a super-ion water treatment system for aquaculture, which is characterized in that an ion strength calculation formula is built in a super-ion generation module, and the formula comprehensively considers a plurality of key parameters such as water body temperature T, initial dissolved specific ion concentration C in water body, applied voltage V, voltage regulation correction factor m and water body flow velocity D; and the empirical coefficient k related to the components of the water body is introduced, and the required ion strength can be accurately calculated according to the real-time condition of the water body through the comprehensive and fine calculation mode, so that the accuracy of ion generation parameter control is improved.

Description

Technical Field

[0001] This invention relates to the field of superion water treatment technology, and in particular to a superion water treatment system for aquaculture. Background Technology

[0002] In recent years, superion technology has been gradually applied to the field of water treatment. Superions refer to ions with specific strength and composition that can chemically react with harmful substances in water to purify the water. For example, some superions can undergo redox reactions with ammonia nitrogen and nitrite, converting them into harmless or low-toxic substances. At the same time, superions also have a certain bactericidal effect and can inhibit the growth and reproduction of pathogenic microorganisms. However, when existing superion water treatment technologies are applied to aquaculture, there is a problem of inaccurate control of ion generation parameters. Ion strength is one of the key factors affecting the treatment effect of superions. Different water conditions (such as temperature, flow rate, initial ion concentration, etc.) require corresponding ion strengths to achieve the best treatment effect. However, there is currently a lack of technology that can accurately control ion generation parameters according to real-time water conditions, resulting in unstable treatment effects of superion water treatment systems in practical applications, making it difficult to meet the high water quality requirements of aquaculture. Summary of the Invention

[0003] In view of this, the present invention proposes a superion water treatment system for aquaculture, which can effectively solve the defects of inaccurate control of ion generation parameters in the existing technology.

[0004] The technical solution of this invention is implemented as follows:

[0005] A superion water treatment system for aquaculture includes:

[0006] The water input module is used to introduce the aquaculture water to be treated into the system;

[0007] The superion generation module has a built-in ion generation unit with an ion strength calculation formula. The ion generation unit is used to control the ion generation parameters according to the preset ion strength calculation formula to generate superions with specific strength and composition.

[0008] The water mixing module, connected to the super ion generation module, is used to fully mix the generated super ions with the aquaculture water, so that the super ions are evenly dispersed in the water.

[0009] The water output module is used to output the treated aquaculture water to the aquaculture pond;

[0010] The formula for calculating ionic strength is as follows:

[0011] ;

[0012] Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

[0013] As a further optional embodiment of the superion water treatment system for aquaculture, the ion generating unit includes an electrode assembly and a power control device. The power control device adjusts the voltage V applied to the electrode assembly in real time according to the ion intensity calculation formula to precisely control the ion generation intensity.

[0014] As a further optional embodiment of the superion water treatment system for aquaculture, the water mixing module employs a multi-stage dynamic stirring device. This multi-stage dynamic stirring device dynamically adjusts the stirring speed of each stage of the stirring device according to a mixing efficiency formula, which is specifically:

[0015] ;

[0016] Where η is the mixing efficiency, b is the efficiency coefficient related to the structure of the mixing device, v1 and v2 are the mixing speeds of two adjacent mixing devices, p is the mixing speed synergy index, L is the residence time of water in the mixing device, and Q is the water flow rate.

[0017] As a further optional solution for the superion water treatment system for aquaculture, the system also includes a water quality monitoring module. The water quality monitoring module is set at the water input module and the water output module to monitor the water temperature T, the initial dissolved specific ion concentration C, and the water flow rate D in real time, and feeds the monitoring data back to the superion generation module so that the superion generation module can dynamically adjust the ion generation parameters.

[0018] As a further optional embodiment of the superion water treatment system for aquaculture, the water quality monitoring module includes a temperature sensor, an ion concentration sensor, and a flow rate sensor. The temperature sensor measures the water temperature T, the ion concentration sensor measures the initial dissolved concentration C of specific ions C in the water, and the flow rate sensor measures the water flow rate D. The ion concentration sensor compensates for the measured value based on an ion concentration compensation formula, which is specifically:

[0019] ;

[0020] in, This is the compensated ion concentration value. The sensor measurement value is given, and g is a compensation coefficient related to the ion type. denoted as standard temperature, h as pressure influence factor, and Y as water pressure.

[0021] As a further optional solution to the superion water treatment system for aquaculture, the system also includes a filtration module, which is located between the water input module and the superion generation module, for preliminary filtration of the introduced aquaculture water to remove large particulate impurities from the water.

[0022] A method for treating superionized water for aquaculture, specifically comprising:

[0023] Water input steps: Introduce the aquaculture water to be treated into the treatment system;

[0024] Superion generation step: Using an ion generation unit with a built-in ion strength calculation formula, the ion generation parameters are controlled according to the preset ion strength calculation formula to generate superions with specific strength and composition.

[0025] Water mixing step: The generated super ions are thoroughly mixed with the aquaculture water to ensure that the super ions are evenly dispersed in the water.

[0026] Water output steps: The treated aquaculture water is output to the aquaculture pond;

[0027] The formula for calculating ionic strength is as follows:

[0028] ;

[0029] Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

[0030] As a further optional solution for the superion water treatment method for aquaculture, in the water output step, the water quality of the treated aquaculture water is monitored. If the water quality does not meet the preset standard, the water is reintroduced into the treatment system for further treatment.

[0031] A computing device includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of any of the above-described superion water treatment methods for aquaculture.

[0032] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of any of the above-described superion water treatment methods for aquaculture.

[0033] The beneficial effects of this invention are as follows: By using the built-in ion strength calculation formula in the super ion generation module, this formula comprehensively considers multiple key parameters such as water temperature T, initial dissolved specific ion concentration C in the water, applied voltage V, voltage adjustment correction factor m, and water flow velocity D, and introduces an empirical coefficient k related to the water composition. Through this comprehensive and precise calculation method, the required ion strength can be accurately calculated based on the real-time conditions of the water, thereby improving the accuracy of ion generation parameter control. Attached Figure Description

[0034] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0035] Figure 1 This is a schematic diagram of the composition of a superion water treatment system for aquaculture according to the present invention.

[0036] Figure 2 This is a schematic flowchart of a superion water treatment method for aquaculture according to the present invention.

[0037] Figure 3 This is a schematic diagram of the composition of a computing device according to the present invention. Detailed Implementation

[0038] The technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0039] refer to Figures 1 to 3 A superion water treatment system for aquaculture, comprising:

[0040] The water input module is used to introduce the aquaculture water to be treated into the system;

[0041] The superion generation module has a built-in ion generation unit with an ion strength calculation formula. The ion generation unit is used to control the ion generation parameters according to the preset ion strength calculation formula to generate superions with specific strength and composition.

[0042] The water mixing module, connected to the super ion generation module, is used to fully mix the generated super ions with the aquaculture water, so that the super ions are evenly dispersed in the water.

[0043] The water output module is used to output the treated aquaculture water to the aquaculture pond;

[0044] The formula for calculating ionic strength is as follows:

[0045] ;

[0046] Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

[0047] In this embodiment, the superion generation module has a built-in ion strength calculation formula that comprehensively considers multiple key parameters such as water temperature T, initial dissolved specific ion concentration C in the water, applied voltage V, voltage adjustment correction factor m, and water flow velocity D. It also introduces an empirical coefficient k related to the water composition. Through this comprehensive and precise calculation method, the required ion strength can be accurately calculated based on the real-time conditions of the water, thereby improving the accuracy of ion generation parameter control.

[0048] Preferably, the ion generating unit includes an electrode assembly and a power control device. The power control device adjusts the voltage V applied to the electrode assembly in real time according to the ion intensity calculation formula to precisely control the ion generation intensity.

[0049] In this embodiment, the power control device adjusts the voltage V applied to the electrode assembly in real time according to the ion strength calculation formula. Since this formula comprehensively considers multiple factors such as water temperature T, initial ion concentration C, voltage adjustment correction factor m, and water flow velocity D, it can accurately calculate the voltage value required to achieve the target ion strength I. This allows the ion generation unit to precisely generate superions with specific intensities, meeting the precise requirements for ion strength under different water quality conditions. The water quality in aquaculture water is dynamic; parameters such as temperature, ion concentration, and flow velocity change with time and aquaculture activities. The real-time adjustment function of the power control device enables… The system can respond to these changes in a timely manner and always maintain an appropriate ion generation intensity. For example, when the water temperature rises, the power control device will automatically adjust the voltage V according to the formula to ensure that the generated ion intensity still meets the requirements of water quality treatment, thus ensuring the stability and adaptability of the system under different water quality conditions. Precise control of ion generation intensity helps to improve the reaction efficiency of superions with pollutants in the water (such as ammonia nitrogen, nitrite, etc.). Appropriate ion intensity can allow superions to fully contact pollutants and undergo chemical reactions, converting pollutants into harmless or low-toxic substances, thereby more effectively improving water quality and providing a healthier living environment for aquaculture organisms.

[0050] Preferably, the water mixing module employs a multi-stage dynamic stirring device, which dynamically adjusts the stirring speed of each stage of the stirring device according to a mixing efficiency formula. The mixing efficiency formula is as follows:

[0051] ;

[0052] Where η is the mixing efficiency, b is the efficiency coefficient related to the structure of the mixing device, v1 and v2 are the mixing speeds of two adjacent mixing devices, p is the mixing speed synergy index, L is the residence time of water in the mixing device, and Q is the water flow rate.

[0053] In this embodiment, the multi-stage dynamic stirring device can dynamically adjust the stirring speed of each stage of the stirring device according to the mixing efficiency formula. Since parameters such as the flow rate Q and residence time L of the aquaculture water may change, the stirring device can adjust the stirring speeds v1 and v2 in real time through the calculation of this formula to adapt to different water quality conditions and water flow, ensuring that superions are fully and uniformly mixed with the aquaculture water, avoiding the problem of uneven mixing caused by changes in water conditions. The design of the multi-stage stirring device allows the water to be further mixed when it passes through each stage of stirring. After the stirring speed of each stage of stirring device is dynamically adjusted according to the formula, it can form a synergistic effect to enhance the overall mixing effect. Different levels of stirring can be optimized for fluid movement at different scales, so that superions can be uniformly dispersed in the water at both the macroscopic and microscopic levels, improving the uniformity and thoroughness of mixing. The mixing efficiency formula comprehensively considers the stirring speeds v1 and v2, the stirring speed synergy index p, the efficiency coefficient b related to the structure of the stirring device, and the water residence time L. By dynamically adjusting the stirring speed using this formula, along with factors such as water flow rate Q, the optimal combination of stirring parameters can be found, enabling the stirring device to achieve higher mixing efficiency per unit time. This accelerates the mixing process of superions and water, shortens water treatment time, and improves the overall treatment efficiency of the water treatment system. Compared to traditional stirring devices with fixed stirring speeds, multi-stage dynamic stirring devices can quickly adjust the stirring speed according to actual conditions, allowing superions to disperse more evenly in the water, reducing the time required for the water to reach a uniform mixing state, thereby improving the overall operating efficiency of the system and providing high-quality treated water to aquaculture ponds more promptly. By dynamically adjusting the stirring speed using the mixing efficiency formula, the stirring device can be prevented from operating at unnecessarily high speeds, thereby reducing energy consumption. When the water flow rate Q is small or the water residence time L in the stirring device is long, the stirring speed can be reduced according to the formula. This reduces energy consumption, improves energy utilization efficiency, and lowers operating costs while ensuring the mixing effect. Dynamically adjusting the stirring speed according to different water quality conditions and treatment requirements allows the stirring force of the stirring device to precisely match the mixing needs of superions and water, avoiding over-stirring or under-stirring, making rational use of the stirring device's resources, and improving the rationality of resource utilization.

[0054] Preferably, the system further includes a water quality monitoring module, which is installed at the water input module and the water output module. The water quality monitoring module is used to monitor the water temperature T, the initial dissolved specific ion concentration C, and the water flow rate D in real time, and feeds the monitoring data back to the superion generation module so that the superion generation module can dynamically adjust the ion generation parameters.

[0055] In this embodiment, different water quality problems require superions of varying strengths and compositions for treatment. For example, when the ammonia nitrogen content in the water is high, superions of specific strengths and compositions may be needed to promote the conversion of ammonia nitrogen. Through real-time feedback from the water quality monitoring module, the superion generation module can adjust the ion generation parameters in a targeted manner, enabling the generated superions to more effectively treat specific pollutants in the water and improve the targeting and effectiveness of water treatment. Without a real-time monitoring and dynamic adjustment mechanism, superion generation may become disconnected from actual water quality needs, leading to over- or under-treatment. Over-treatment may waste energy and resources and may also cause unnecessary disturbance to the aquatic ecosystem, while under-treatment will not effectively improve water quality. This technical solution, through real-time feedback from the water quality monitoring module, enables the superion generation module to accurately control the amount of ion generated, avoiding the above problems and ensuring the stable operation of the system.

[0056] Preferably, the water quality monitoring module includes a temperature sensor, an ion concentration sensor, and a flow rate sensor. The temperature sensor measures the water temperature T, the ion concentration sensor measures the initial dissolved concentration C of specific ions C in the water, and the flow rate sensor measures the water flow rate D. The ion concentration sensor compensates for the measured value based on an ion concentration compensation formula, which is specifically:

[0057] ;

[0058] in, This is the compensated ion concentration value. The sensor measurement value is given, and g is a compensation coefficient related to the ion type. denoted as standard temperature, h as pressure influence factor, and Y as water pressure.

[0059] In this embodiment, the ion concentration sensor compensates for the measured value based on an ion concentration compensation formula. Since ion concentration measurement is affected by factors such as temperature and pressure, this compensation formula takes into account the sensor's measured value. Compensation coefficient g related to ion type, standard temperature Factors such as pressure influence factor h and water pressure Y can correct for the measured ion concentration, effectively eliminating measurement errors caused by environmental factors, improving the accuracy of ion concentration measurement, and thus ensuring the precision of superion generation parameter adjustment. Aquaculture water environments are complex and variable; parameters such as temperature, ion concentration, and flow rate fluctuate with the aquaculture process and external environmental factors. Multi-parameter monitoring and ion concentration measurement compensation mechanisms enable the system to perceive these changes in real time and adjust superion generation parameters promptly. This allows the system to adapt to different water quality conditions and environmental changes, maintaining stable water treatment effects. The ion concentration compensation formula considers the influence of external factors such as pressure, reducing the impact of external environmental interference on ion concentration measurement. This helps the system to operate stably in various complex aquaculture environments. The system operates under controlled conditions to prevent inaccurate measurement data due to external interference, which could affect the generation of superions and the water treatment effect. Accurate monitoring data and compensated ion concentration values ​​provide a reliable basis for the superion generation module, enabling it to precisely control ion generation parameters according to the ion strength calculation formula. This generates superions with specific strength and composition, which can more effectively react with harmful substances in the water, removing pollutants such as ammonia nitrogen and nitrite, and inhibiting the growth and reproduction of pathogenic microorganisms. This optimizes the water treatment effect and provides a better water quality environment for aquaculture organisms. Precise monitoring and control avoid excessive or insufficient superion generation, improving the utilization efficiency of superion resources. At the same time, it reduces the additional treatment steps that may be needed due to poor treatment results, thus reducing energy consumption and operating costs.

[0060] Preferably, the system further includes a filtration module, which is located between the water input module and the superion generation module, for preliminary filtration of the introduced aquaculture water to remove large particulate impurities from the water.

[0061] In this embodiment, aquaculture water often contains various large particulate impurities, such as uneaten feed, feces, and algae. If these impurities directly enter the superion generation module, they may cause blockages in the internal pipes and ion generation units. The filtration module can effectively intercept these large particulate impurities, ensuring the normal operation of the superion generation module and preventing blockages from affecting ion generation and transport. During the flow of water, large particulate impurities may rub and collide with the electrode components and inner walls of the pipes in the superion generation module, causing wear and tear on the equipment. After the filtration module removes these impurities, it reduces the risk of equipment wear and extends the service life of the superion generation module and other subsequent modules, reducing maintenance costs and replacement frequency. The superion generation module needs to operate in a relatively stable and suitable environment. The presence of large particulate impurities may interfere with the chemical reactions in the ion generation process. After the filtration module removes impurities, it provides a purer water environment for the ion generation unit, which is conducive to the smooth progress of the ion generation reaction and improves the generation efficiency and quality of superions. The accurate monitoring of water parameters (such as temperature, ion concentration, and flow rate) by the water quality monitoring module is the key to the dynamic adjustment of ion generation parameters by the superion generation module. Large particulate impurities can affect the measurement accuracy of the water quality monitoring module, leading to data deviation. After the filtration module removes impurities, the water quality monitoring module can more accurately obtain water parameters, thus providing a more reliable basis for the superion generation module and ensuring that the generated superions meet the water quality treatment requirements. After removing large particulate impurities, the water flows more smoothly in the system, reducing problems such as increased fluid resistance and slowed flow rate caused by impurity blockage. This helps improve the treatment efficiency of the entire water treatment system, allowing water to pass through each treatment module more quickly, shortening the treatment time. Preliminary filtration removes some pollutants from the water, reducing the burden on subsequent superion treatment and other treatment stages. Superions can then focus more on treating dissolved harmful substances in the water, such as ammonia nitrogen and nitrite, thereby improving the overall water treatment effect and providing a higher quality water source for aquaculture.

[0062] A method for treating superionized water for aquaculture, specifically comprising:

[0063] Water input steps: Introduce the aquaculture water to be treated into the treatment system;

[0064] Superion generation step: Using an ion generation unit with a built-in ion strength calculation formula, the ion generation parameters are controlled according to the preset ion strength calculation formula to generate superions with specific strength and composition.

[0065] Water mixing step: The generated super ions are thoroughly mixed with the aquaculture water to ensure that the super ions are evenly dispersed in the water.

[0066] Water output steps: The treated aquaculture water is output to the aquaculture pond;

[0067] The formula for calculating ionic strength is as follows:

[0068] ;

[0069] Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

[0070] Preferably, in the water output step, the water quality of the treated aquaculture water is monitored. If the water quality does not meet the preset standard, the water is reintroduced into the treatment system for further treatment.

[0071] A computing device includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of any of the above-described superion water treatment methods for aquaculture.

[0072] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of any of the above-described superion water treatment methods for aquaculture.

[0073] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A superion water treatment system for aquaculture, characterized in that, include: The water input module is used to introduce the aquaculture water to be treated into the system; The superion generation module has a built-in ion generation unit with an ion strength calculation formula. The ion generation unit is used to control the ion generation parameters according to the preset ion strength calculation formula to generate superions with specific strength and composition. The water mixing module, connected to the super ion generation module, is used to fully mix the generated super ions with the aquaculture water, so that the super ions are evenly dispersed in the water. The water output module is used to output the treated aquaculture water to the aquaculture pond; The formula for calculating ionic strength is as follows: ; Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

2. The superion water treatment system for aquaculture according to claim 1, characterized in that, The ion generating unit includes an electrode assembly and a power control device. The power control device adjusts the voltage V applied to the electrode assembly in real time according to the ion intensity calculation formula to precisely control the ion generation intensity.

3. The superion water treatment system for aquaculture according to claim 2, characterized in that, The water mixing module employs a multi-stage dynamic stirring device, which dynamically adjusts the stirring speed of each stage of the stirring device according to a mixing efficiency formula. The mixing efficiency formula is as follows: ； Where η is the mixing efficiency, b is the efficiency coefficient related to the structure of the mixing device, v1 and v2 are the mixing speeds of two adjacent mixing devices, p is the mixing speed synergy index, L is the residence time of water in the mixing device, and Q is the water flow rate.

4. The superion water treatment system for aquaculture according to claim 3, characterized in that, The system also includes a water quality monitoring module, which is installed at the water input module and the water output module. It is used to monitor the water temperature T, the initial dissolved specific ion concentration C, and the water flow rate D in real time, and to feed the monitoring data back to the superion generation module so that the superion generation module can dynamically adjust the ion generation parameters.

5. A superion water treatment system for aquaculture according to claim 4, characterized in that, The water quality monitoring module includes a temperature sensor, an ion concentration sensor, and a flow rate sensor. The temperature sensor measures the water temperature T, the ion concentration sensor measures the initial dissolved concentration C of specific ions C in the water, and the flow rate sensor measures the water flow rate D. The ion concentration sensor compensates for the measured value based on an ion concentration compensation formula, which is as follows: ； in, This is the compensated ion concentration value. The sensor measurement value is given, and g is a compensation coefficient related to the ion type. denoted as standard temperature, h as pressure influence factor, and Y as water pressure.

6. A superion water treatment system for aquaculture according to claim 5, characterized in that, The system also includes a filtration module, which is located between the water input module and the superion generation module, to perform preliminary filtration on the introduced aquaculture water and remove large particulate impurities from the water.

7. A method for treating superionized water in aquaculture, characterized in that, Specifically, it includes: Water input steps: Introduce the aquaculture water to be treated into the treatment system; Superion generation step: Using an ion generation unit with a built-in ion strength calculation formula, the ion generation parameters are controlled according to the preset ion strength calculation formula to generate superions with specific strength and composition. Water mixing step: The generated super ions are thoroughly mixed with the aquaculture water to ensure that the super ions are evenly dispersed in the water. Water output steps: The treated aquaculture water is output to the aquaculture pond; The formula for calculating ionic strength is as follows: ; Where I is the generated ion intensity, k is an empirical coefficient related to the water composition, T is the water temperature, C is the initial concentration of specific dissolved ions in the water, V is the applied voltage, m is the voltage adjustment correction factor, and D is the water flow velocity.

8. A method for treating superionized water for aquaculture according to claim 7, characterized in that, During the water output step, the water quality of the treated aquaculture water is monitored. If the water quality does not meet the preset standards, the water is reintroduced into the treatment system for further treatment.

9. A computing device, characterized in that, It includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the superion water treatment method for aquaculture as described in any one of claims 7-8.

10. A computer-readable storage medium, characterized in that, The storage medium stores a computer program, which, when executed by a processor, implements the steps of the superion water treatment method for aquaculture as described in any one of claims 7-8.

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