Mineralization apparatus control system, method, device, and mineralization apparatus

Abstract

The application relates to a mineralization equipment control system, a method, a device and mineralization equipment, which comprises a control component, a flow component and a water quality detection component; the mineralization equipment comprises a mineralization bin and a water storage tank; the control component is used for acquiring real-time water quality parameters collected by the water quality detection component and water passing amount parameters collected by the flow component; and the trace element concentration of the mineral water is determined based on the water passing amount parameters and the real-time water quality parameters. The application realizes real-time acquisition of the trace element concentration of the mineral water by monitoring the water passing amount of the mineralization bin and the real-time water quality parameters, and calculating the trace element concentration of the mineral water according to the real-time water quality parameters and the water passing amount parameters. Moreover, the application does not need to add complex trace element measuring equipment, and the cost is relatively low.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of water making equipment, in particular to a mineralization equipment control system, method and device and mineralization equipment. BACKGROUND

[0002] With the increasing improvement of living standards, drinking water health problems are widely concerned. The mainstream market often uses reverse osmosis filtering devices on water dispenser equipment to filter various impurities in water to obtain pure water, thereby ensuring drinking water safety. However, the reverse osmosis filtering device filters not only harmful substances but also beneficial minerals in water.

[0003] The mineralization module in the existing water dispenser equipment uses mineralization materials to soak with water to make mineral water. When determining the concentration of trace elements in mineral water, the existing water dispenser equipment often needs to use large and precise instruments for testing, which leads to the inability to obtain the concentration of mineral elements in real time on the water dispenser equipment. SUMMARY

[0004] Therefore, it is necessary to provide a mineralization equipment control system, method and device and mineralization equipment with less cost and accurate testing of the concentration of trace elements in mineral water to solve the above technical problems.

[0005] In a first aspect, the present application provides a mineralization equipment control system, which comprises a control component, a flow component and a water quality detection component, wherein the control component is connected to the flow component and the water quality detection component respectively; the mineralization equipment comprises a mineralization bin and a water storage tank;

[0006] The flow component is arranged at the water inlet or water outlet of the mineralization bin, and is used to record the water passing amount parameter of the mineralization bin;

[0007] The water quality detection component is arranged in the mineralization bin, or is arranged at the water inlet and water outlet of the mineralization bin respectively, and is used to record the real-time water quality parameter;

[0008] The control component is used to acquire the real-time water quality parameter collected by the water quality detection component and the water passing amount parameter collected by the flow component;

[0009] Based on the water passing amount parameter and the real-time water quality parameter, the concentration of trace elements in the mineral water is determined.

[0010] In one embodiment, the water quality detection component comprises a first water quality sensor, which is arranged in the mineralization bin;

[0011] The control component is configured to control the first water quality sensor to collect a first water quality parameter and a second water quality parameter; the first water quality parameter is a water quality parameter of water entering the mineralization bin, and the second water quality parameter is a water quality parameter of water soaked in the mineralization bin for a preset time;

[0012] Based on the water passing amount parameter, the first water quality parameter and the second water quality parameter, the trace element concentration of the mineral water is determined.

[0013] In one of the embodiments, the water quality detection component includes a second water quality sensor and a third water quality sensor; the second water quality sensor is arranged at a water inlet of the mineralization bin, and the third water quality sensor is arranged at a water outlet of the mineralization bin.

[0014] The control component is configured to control the second water quality sensor to collect a third water quality parameter and control the third water quality sensor to collect a fourth water quality parameter; the third water quality parameter is a water quality parameter of water entering the mineralization bin, and the fourth water quality parameter is a water quality parameter of water transferred from the mineralization bin to the water storage tank.

[0015] Based on the water passing amount parameter, the third water quality parameter and the fourth water quality parameter, the trace element concentration of the mineral water is determined.

[0016] In one of the embodiments, the control component is configured to determine a first coefficient and a second coefficient based on the water passing amount parameter, and determine a dissolved solid increase amount based on the real-time water quality parameter.

[0017] The trace element concentration of the mineral water is calculated according to the dissolved solid increase amount, the first coefficient and the second coefficient.

[0018] In one of the embodiments, the control component is configured to decrease the first coefficient and the second coefficient if the water passing amount parameter increases to a preset water passing amount node.

[0019] In one of the embodiments, the system further includes a heating component, a first valve body component, a second valve body component, a first power component and a second power component; the control component is connected to the heating component, the first valve body component, the second valve body component, the first power component and the second power component respectively.

[0020] The water inlet of the mineralization bin is connected to a preset water inlet pipeline through the first valve body component, the heating component and the first power component; the water outlet of the mineralization bin is connected to the water inlet of the water storage tank through the second valve body component and the second power component; and the water outlet of the water storage tank is connected to a preset water outlet pipeline.

[0021] The control component is used to control the heating component, the first valve body component, the second valve body component, the first power component, and the second power component to perform the mineral water generation step, so as to generate mineral water of a preset concentration in the mineralization chamber and transfer the mineral water to the water storage tank.

[0022] In one embodiment, the control component controls the first valve body assembly and the first power assembly to open, and the second valve body assembly and the second power assembly to close, so that a preset water body is connected from the preset water inlet pipeline, heated to the target extraction temperature by the heating component, and then enters the mineralization chamber;

[0023] When the pumping volume of the first power component is greater than or equal to a preset water volume threshold, the first valve body component and the first power component are controlled to close, so that the mineralization chamber can perform thermal extraction to obtain mineral water of a preset concentration.

[0024] When the thermal extraction time in the mineralization chamber is greater than or equal to the target extraction time, the second valve assembly and the second power assembly are controlled to open so that the mineral water in the mineralization chamber is transferred to the water storage tank.

[0025] When the opening duration of the second power component is greater than or equal to a preset time, the second valve body component and the second power component are controlled to close, and it is determined whether the liquid level information in the water storage tank is greater than or equal to the high liquid level threshold.

[0026] If the liquid level in the water storage tank is less than the high liquid level threshold, the system will switch to control the first valve assembly and the first power assembly to open, and the second valve assembly and the second power assembly to close, so that the preset water body can be connected from the preset water inlet pipe, heated to the target extraction temperature by the heating assembly, and then enter the mineralization chamber.

[0027] If the liquid level in the water storage tank is greater than or equal to the high liquid level threshold, the mineral water generation step is completed.

[0028] In one embodiment, the system further includes an alarm component;

[0029] The control component is used to control the alarm component to sound an alarm when the water flow parameter is greater than or equal to the alarm water flow threshold, so as to prompt the user to replace the filter element.

[0030] In one embodiment, the water storage tank is equipped with a first liquid level detector and a second liquid level detector, both of which are connected to the control component;

[0031] The first liquid level detector is used to send a high liquid level trigger signal to the control component when the liquid level information in the water storage tank is greater than or equal to the high liquid level threshold.

[0032] The second liquid level detector is used to send a low liquid level trigger signal to the control component when the liquid level information in the water storage tank is less than or equal to the low liquid level threshold.

[0033] The control component is used to stop executing the mineral water generation step if it receives a high liquid level trigger signal from the first liquid level detector.

[0034] The control component is used to start executing the mineral water generation step if it receives a low liquid level trigger signal from the second liquid level detector.

[0035] In one embodiment, the mineralization chamber includes a mineralization filter element and a membrane shell, wherein the membrane shell is provided with an atmospheric vent, which is used to balance the pressure inside the mineralization chamber with the external air pressure.

[0036] Secondly, this application also provides a mineralization equipment control method, applied to the mineralization equipment control system described in the first aspect, comprising:

[0037] Acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component;

[0038] The trace element concentration of the mineral water is determined based on the water flow rate parameter and the real-time water quality parameter.

[0039] In one embodiment, the water quality detection component includes a first water quality sensor disposed within the mineralization chamber; the method further includes:

[0040] The first water quality sensor is controlled to collect a first water quality parameter and a second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber for a preset time;

[0041] The trace element concentration of the mineral water is determined based on the water flow rate parameter, the first water quality parameter, and the second water quality parameter.

[0042] In one embodiment, the water quality detection component includes a second water quality sensor and a third water quality sensor, wherein the second water quality sensor is disposed at the inlet of the mineralization tank, and the third water quality sensor is disposed at the outlet of the mineralization tank; the method further includes:

[0043] The second water quality sensor is controlled to collect a third water quality parameter, and the third water quality sensor is controlled to collect a fourth water quality parameter; wherein, the third water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber to the water storage tank;

[0044] The trace element concentration of the mineral water is determined based on the water flow rate parameter, the third water quality parameter, and the fourth water quality parameter.

[0045] In one embodiment, the method further includes:

[0046] The first coefficient and the second coefficient are determined based on the water flow parameters, and the increase in dissolved solids is determined based on the real-time water quality parameters.

[0047] The trace element concentration of the mineral water is calculated based on the increase in dissolved solids, the first coefficient, and the second coefficient.

[0048] In one embodiment, the method further includes:

[0049] If the flow rate parameter is increased to a preset flow rate node, the first coefficient and the second coefficient are reduced accordingly at the preset flow rate node.

[0050] Thirdly, this application also provides a mineralization equipment control device, applied to the mineralization equipment control system described in the first aspect, comprising:

[0051] The acquisition module is used to acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow component.

[0052] The determination module is used to determine the trace element concentration of the mineral water based on the water flow parameters and the real-time water quality parameters.

[0053] Fourthly, this application also provides a mineralization device, including the mineralization device control system described in the first aspect.

[0054] Fifthly, this application also provides a computer device, including a memory and a processor, wherein the memory stores a computer program, and the processor executes the computer program to implement the steps of the mineralization equipment control method described in the second aspect.

[0055] In a sixth aspect, this application also provides a computer-readable storage medium having a computer program stored thereon, which, when executed by a processor, implements the steps of the mineralization equipment control method described in the second aspect.

[0056] In a seventh aspect, this application also provides a computer program product, which includes a computer program that, when executed by a processor, implements the steps of the mineralization equipment control method described in the second aspect.

[0057] In summary, this application proposes a mineralization equipment control system, method, apparatus, and mineralization equipment, including: a control component, a flow component, and a water quality detection component; the mineralization equipment includes a mineralization chamber and a water storage tank; the control component is used to acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow component; based on the flow rate parameters and the real-time water quality parameters, the trace element concentration of the mineralized water is determined. This application achieves real-time acquisition of the trace element concentration of the mineralized water by monitoring the flow rate of the mineralization chamber and the real-time water quality parameters, and calculating the trace element concentration of the mineralized water based on the real-time water quality parameters and flow rate parameters. Furthermore, this application does not require the addition of complex trace element measuring equipment, resulting in lower costs. Attached Figure Description

[0058] Figure 1 This is a structural block diagram of a mineralization device in one embodiment;

[0059] Figure 2 This is a structural block diagram of the control system of a mineralization equipment in one embodiment;

[0060] Figure 3 This is a schematic diagram of the control system of a mineralization equipment in one embodiment;

[0061] Figure 4 This is a schematic diagram of the control system of the mineralization equipment in another embodiment;

[0062] Figure 5 This is a flowchart illustrating a mineralization equipment control method in one embodiment;

[0063] Figure 6 This is a schematic diagram of the steps for determining trace element concentration in one embodiment;

[0064] Figure 7 This is a flowchart illustrating the steps for determining trace element concentrations in another embodiment;

[0065] Figure 8 This is a flowchart illustrating the steps for determining trace element concentrations in yet another embodiment;

[0066] Figure 9 This is a structural block diagram of the mineralization equipment control device in one embodiment;

[0067] Figure 10 This is an internal structural diagram of a computer device in one embodiment.

[0068] Summary of attached image labels:

[0069] Mineralization equipment control system - 100; Control component - 110; Flow component - 120; Water quality detection component - 130; First water quality sensor - 131; Second water quality sensor - 132; Third water quality sensor - 133; First valve body assembly - 140; Second valve body assembly - 150; First power component - 160; Second power component - 170; Heating component - 180;

[0070] Mineralization chamber - 200; Mineralization filter element - 210; Membrane housing - 220; Atmospheric vent - 230; Insulation layer - 240;

[0071] Water storage tank -300; first liquid level detector -310; second liquid level detector -320. Detailed Implementation

[0072] To make the objectives, technical solutions, and advantages of this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the scope of this application.

[0073] The mineralization equipment provided in the embodiments of this application, such as Figure 1 As shown, the mineralization equipment includes a mineralization equipment control system 100, a mineralization chamber 200, a water storage tank 300, and a display device. The mineralization equipment control system 100 is installed between the water pipes of the mineralization equipment, connecting the mineralization chamber 200 and the water storage tank 300. This system allows water to be introduced into the mineralization chamber 200, extracting minerals of a certain concentration to generate mineral water, which is then stored in the water storage tank 300. When a user draws water, the system provides the user with mineral water of a preset concentration.

[0074] In a specific embodiment, the mineralization chamber 200 includes a mineralization filter element 210 and a membrane housing 220. The membrane housing 220 is provided with an atmospheric vent 230, which is used to balance the internal pressure of the mineralization chamber 200 with the external air pressure. The mineralization filter element 210 can be a compressed form of mineralization material and carbon rods, a mixture of mineralization material and activated carbon, or a combination of mineralization material and activated carbon ceramic balls. In a specific embodiment, the mineralization material can be a certain amount of naturally selected and processed mineral material used to release some mineral elements needed by the human body into the water, such as metasilicic acid, strontium, calcium, magnesium, potassium, zinc, and other elements similar to those found in natural mineral water.

[0075] The membrane housing 220 can be made of stainless steel or high-temperature resistant plastic. In a specific embodiment, a heat insulation layer 240, made of heat insulation material, can also be attached to the membrane housing 220. The mineralizing filter element 210 is disposed inside the cavity formed by the membrane housing 220. An atmospheric vent 230 is provided on the membrane housing 220 to connect to the atmosphere, which can effectively balance the pressure inside the mineralizing chamber 200 cavity and the external atmospheric pressure, keeping the pressure inside the cavity consistent with the external atmospheric pressure. In practical applications, the atmospheric vent 230 can effectively prevent negative pressure from forming inside the mineralizing chamber 200 cavity, making it easier for the soaking liquid inside the mineralizing chamber 200 to be drawn into the water storage tank 300, effectively improving the solid-liquid separation effect inside the mineralizing chamber 200, and making the solid-liquid separation more thorough.

[0076] In this example, the water storage tank 300 is used to store the mineral water generated by the mineralization chamber 200. The water storage tank 300 can be made of stainless steel or high-temperature resistant plastic. It should be noted that the specific materials of the membrane shell 220 and the water storage tank 300 in this embodiment can be adaptively configured according to the needs of the actual application scenario. At least two liquid level detectors are installed inside the water storage tank 300, including a high liquid level detector and a low liquid level detector. The high liquid level detector is located closer to the inlet of the water storage tank 300, that is, at a position higher than the bottom plane within the internal cavity of the water storage tank 300. The low liquid level detector is located closer to the outlet of the water storage tank 300, that is, at a position lower than the bottom plane within the internal cavity of the water storage tank 300.

[0077] In a specific embodiment, the liquid level detector can also be referred to as a liquid level switch. When the high liquid level detector is triggered, it indicates that the water storage tank 300 is full of mineral water. When the low liquid level detector is triggered, it indicates that the mineral water content in the water storage tank 300 is insufficient and cannot be provided to the user immediately.

[0078] The display device can be a display screen or indicator light, or other display device that can characterize the concentration of trace elements. For example, the display device can be the display screen of a mineralization equipment, which has a display module that can display the trace element concentration of the mineral water in the storage tank 300, so as to show the user the real-time trace element concentration of the mineral water in the mineralization equipment. The display device can also be multiple indicator lights corresponding to different trace element concentration nodes. When a corresponding indicator light is lit, it indicates that the trace element concentration of the mineral water in the storage tank 300 belongs to the trace element concentration node corresponding to the indicator light. When the indicator light of the high concentration node is lit, it indicates that the trace element concentration of the mineral water in the storage tank 300 is high. When the indicator light of the medium concentration node is lit, it indicates that the trace element concentration of the mineral water in the storage tank 300 is medium. When the indicator light of the low concentration node is lit, it indicates that the trace element concentration of the mineral water in the storage tank 300 is low.

[0079] It should be noted that the specific structure of the display device can be determined based on the composition of the mineralization equipment in the actual application scenario.

[0080] To address the issues of large fluctuations in the mineral water generated by existing mineral water machines, resulting in the inability to produce mineral water of stable concentration and the inability to effectively display the real-time trace element concentration of the mineral water, this embodiment provides a mineralization equipment control system 100. This system can stably generate mineral water of the corresponding concentration and detect the trace element concentration of the mineral water in real time. Based on the service life of the mineralization filter element 210 in the mineralization chamber 200, a calculation method for adjusting the trace element concentration is used to achieve accurate measurement and display of the trace element concentration.

[0081] In one embodiment, reference Figure 2 A mineral processing equipment control system 100 is provided, which is applied to applications such as... Figure 1 The specific composition and structure of the mineralization equipment shown can be referred to the description in the foregoing embodiments, and will not be repeated here.

[0082] like Figure 2 As shown, the mineralization equipment control system 100 includes: a control component 110, a flow component 120, and a water quality detection component 130, wherein the control component 110 is connected to the flow component 120 and the water quality detection component 130 respectively.

[0083] The flow component 120 is installed at the inlet or outlet of the mineralization tank 200. The flow component 120 is used to record the flow rate parameters of the mineralization tank 200.

[0084] The water quality detection component 130 is installed inside the mineralization chamber 200, or separately installed at the inlet and outlet of the mineralization chamber 200. The water quality detection component 130 is used to record real-time water quality parameters.

[0085] The control component 110 is used to acquire real-time water quality parameters collected by the water quality detection component 130 and flow rate parameters collected by the flow rate component 120; based on the flow rate parameters and real-time water quality parameters, it determines the trace element concentration of the mineral water; and displays the trace element concentration on the display device.

[0086] In this embodiment, the control component 110 includes chips or circuits such as controllers, processors, or microprocessors that can generate and distribute control commands. This embodiment does not limit the specific type of the control component 110; it can be adaptively configured according to the needs of the actual application scenario. The control component 110 is used to acquire the flow rate parameters collected by the flow component 120 and monitor the service life of the mineralization filter element 210 in the mineralization chamber 200 based on these parameters.

[0087] The flow component 120 includes devices such as flow meters or pulse counters that can be used to monitor water flow. In this embodiment, the flow component 120 can be positioned between the inlet of the mineralization chamber 200 and the valve assembly, or it can be positioned at any location after the outlet of the mineralization chamber 200, such as between the outlet of the mineralization chamber 200 and the valve assembly, or between the valve assembly and the power assembly after the outlet of the mineralization chamber 200. The positioning of the flow component 120 enables effective monitoring of the water flow through the mineralization filter element 210 of the mineralization chamber 200. In this embodiment, the flow rate parameter refers to the total water flow, and the flow rate parameter of the mineralization chamber 200 refers to the total water flow passing through the mineralization chamber 200.

[0088] The water quality detection component 130 includes devices such as water quality sensors that can be used to monitor the concentration of total dissolved solids (TDS) in water. The TDS value is primarily used to reflect the concentration of total dissolved solids (TDS) in water. 、 、、 The concentration of plasma. In this embodiment, the water quality detection component 130 may include only one water quality sensor or two water quality sensors; the specific number can be adaptively configured according to the needs of the actual application scenario. During application, the water quality detection component 130 tests the first TDS value of the water entering the mineralization chamber 200 and the second TDS value of the water exiting the mineralization chamber 200, and calculates the difference between the second TDS value and the first TDS value. This yields the total amount of solids dissolved in the water by the mineralization filter element 210 during the mineralization extraction step in the mineralization chamber 200.

[0089] In this embodiment, when the mineralization equipment generates mineral water, it controls the pre-set water in the pre-set inlet pipe to flow into the mineralization chamber 200 after heating. Thermal extraction is performed in the mineralization chamber 200 for a certain period of time to obtain mineral water of a pre-set concentration. After thermal extraction in the mineralization chamber 200 for a certain period of time, the mineral water of the pre-set concentration is transferred to the corresponding storage tank 300 to ensure that the mineralization equipment can provide users with mineral water of the corresponding concentration in a timely manner.

[0090] During the process of generating mineral water in the mineralization equipment, the flow component 120 in this embodiment records the flow rate parameters of the mineralization chamber 200 in real time and sends these parameters to the control component 110. The control component 110 can determine the lifespan of the mineralization filter element 210 based on the correspondence between the flow rate parameters and the lifespan of the mineralization filter element 210 within the mineralization chamber 200. For example, when the flow rate parameter is between 0-250 liters (L), the mineralization filter element 210 is slightly consumed, indicating a relatively long lifespan. When the flow rate parameter is between 251-500L, the mineralization filter element 210 is moderately consumed, indicating that more than half of its lifespan has passed. When the flow rate parameter is between 501-750L, the mineralization filter element 210 is heavily consumed, indicating a relatively short lifespan.

[0091] It should be noted that the specific values ​​of the water flow parameters corresponding to light, moderate, and heavy consumption of the mineralized filter element 210 can be determined based on the needs of the actual application scenario. The specific values ​​mentioned above are only for illustrative purposes, and the preset thresholds corresponding to the water flow parameters can be set adaptively.

[0092] During the process of generating mineral water in the mineralization equipment, the water quality detection component 130 in this embodiment also records the initial water quality parameters of the water entering the mineralization chamber 200 and the extracted water quality parameters of the water that has been extracted within the mineralization chamber 200 in real time, and calculates the corresponding increase in dissolved solids based on the difference between the initial water quality parameters and the extracted water quality parameters. Since there is a linear relationship between the trace element concentration of the mineral water generated by the mineralization equipment and the increase in dissolved solids, the specific formula for this linear relationship is y=kx+b, where y represents the trace element concentration of the mineral water, x represents the increase in dissolved solids, k represents the first coefficient, and b represents the second coefficient. Both the first and second coefficients correspond to the service life of the mineralization filter element 210. For example, when the flow rate parameter is 0-250 liters (L), the first coefficient can be 0.225, and the second coefficient can be 0.125.

[0093] In practical applications, the mineralization filter element 210 is continuously consumed as the mineralization equipment is used for longer periods and the number of mineral water generation steps increases, thus reducing its lifespan. In this embodiment, the first and second coefficients should decrease accordingly as the lifespan of the mineralization filter element 210 decreases. That is, the first and second coefficients decrease as the flow rate parameter increases. This embodiment, by adaptively adjusting the specific values ​​of the first and second coefficients based on the lifespan of the mineralization filter element 210, enables the mineralization equipment to accurately detect the trace element concentration of the mineral water throughout the entire process.

[0094] In this embodiment, the trace element concentration of the mineral water determined by the flow rate parameter and the real-time water quality parameter is the trace element concentration of the mineral water after the extraction treatment in the mineralization chamber 200, or it can be the trace element concentration of the mineral water that has been transferred to the water storage tank 300.

[0095] After calculating the trace element concentration, the control component 110 sends a corresponding display command to the display device to control the display device to display the trace element concentration of the mineral water. The specific method by which the display device displays the trace element concentration can be determined based on the specific structure of the display device, and is not limited here.

[0096] In summary, this embodiment provides a mineralization equipment control system 100. By monitoring the flow rate of water flowing into the mineralization chamber 200, the system can monitor the lifespan of the mineralization filter element 210 within the chamber. Furthermore, by monitoring the real-time water quality parameters of the water flowing into and out of the chamber, the system can calculate the real-time trace element concentration of the mineralized water produced by the mineralization equipment and display this concentration on a display device. This allows users to flexibly adjust the set concentration of the mineralized water during daily use. Moreover, the mineralization equipment control system 100 provided in this embodiment can adaptively adjust the method for calculating the trace element concentration based on changes in the lifespan of the mineralization filter element 210, thereby achieving accurate measurement of the trace element concentration in the mineralized water.

[0097] In one embodiment, such as Figure 3 As shown, the water quality detection component 130 includes a first water quality sensor 131, which is disposed inside the mineralization chamber 200.

[0098] The control component 110 is used to control the first water quality sensor 131 to collect the first water quality parameter and the second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber 200, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber 200 for a preset time.

[0099] The trace element concentration of mineral water is determined based on the flow rate parameter, the first water quality parameter, and the second water quality parameter.

[0100] In this embodiment, the first water quality sensor 131 is disposed on the inner wall of the internal cavity of the mineralization tank 200, which may be the bottom, side wall or top of the mineralization tank 200. The specific placement of the first water quality sensor 131 can be adaptively configured based on the needs of the actual application scenario.

[0101] During the real-time water quality parameter collection process, the first water quality sensor 131 collects the first water quality parameter and the second water quality parameter at two different times. Specifically, the first water quality parameter is collected immediately when water begins to enter the mineralization chamber 200. The second water quality parameter is collected when the mineral water extraction is completed in the mineralization chamber 200, that is, when the soaking and extraction time in the mineralization chamber 200 reaches the preset time.

[0102] It should be noted that the real-time water quality parameters detected by the first water quality sensor 131 in this embodiment are all water quality parameters of the water inside the mineralization chamber 200. By collecting the water quality parameters of the water at different times and calculating the difference between the first water quality parameter and the second water quality parameter, the increase in dissolved solids of the mineralization filter element 210 in the current soaking and extraction process can be calculated.

[0103] In a specific embodiment, after determining the service life of the mineralization filter element 210 based on the water flow rate parameter, the trace element concentration of the mineral water generated by the mineralization chamber 200 can be further calculated based on the first water quality parameter and the second water quality parameter.

[0104] In one embodiment, such as Figure 4 As shown, the water quality detection component 130 includes a second water quality sensor 132 and a third water quality sensor 133. The second water quality sensor 132 is located at the inlet of the mineralization tank 200, and the third water quality sensor 133 is located at the outlet of the mineralization tank 200.

[0105] The control component 110 is used to control the second water quality sensor 132 to collect the third water quality parameter and to control the third water quality sensor 133 to collect the fourth water quality parameter. The third water quality parameter is the water quality parameter of the water entering the mineralization chamber 200, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber 200 to the water storage tank 300.

[0106] The trace element concentration of mineral water was determined based on the flow rate parameter, the third water quality parameter, and the fourth water quality parameter.

[0107] In this embodiment, the second water quality sensor 132 is installed inside the inlet pipe of the mineralization tank 200, and the third water quality sensor 133 is installed inside the outlet pipe of the mineralization tank 200. The second water quality sensor 132 can be used to detect a third water quality parameter of the water entering the mineralization tank 200. The third water quality sensor 133 can be used to detect a fourth water quality parameter of the water output from the mineralization tank 200.

[0108] In a specific embodiment, the control component 110 controls the second water quality sensor 132 and the third water quality sensor 133 to detect the second and third water quality parameters in real time during the mineral water generation step. When the mineral water generation step reaches the preset water inlet treatment, the second water quality sensor 132 detects the second water quality parameter; when the mineral water generation step reaches the mineral water transfer treatment, the third water quality sensor 133 detects the third water quality parameter. By calculating the difference between the third and second water quality parameters, the increase in dissolved solids in the mineral water transferred to the storage tank 300 can be calculated. After determining the service life of the mineralization filter element 210 based on the water flow parameters, the trace element concentration of the mineral water transferred to the storage tank 300 can be further calculated based on the third and fourth water quality parameters.

[0109] In this embodiment, the first water quality parameter, the second water quality parameter, the third water quality parameter, and the fourth water quality parameter can all be represented by TDS values ​​to reflect the concentration of total dissolved solids in the water.

[0110] This embodiment effectively measures the real-time concentration of trace elements in the mineralized water produced by the mineralization equipment by adding one or two water quality sensors inside the mineralization equipment. This eliminates the need for additional complex trace element concentration measurement equipment, achieving low-cost and high-accuracy real-time measurement of trace element concentration.

[0111] In one embodiment, the control component 110 is used to determine a first coefficient and a second coefficient based on the water flow rate parameter, and to determine the increase in dissolved solids based on real-time water quality parameters;

[0112] The trace element concentration of mineral water is calculated based on the increase in dissolved solids, the first coefficient, and the second coefficient.

[0113] In this embodiment, the formula for calculating the trace element concentration of mineral water is y=kx+b, where y represents the trace element concentration of mineral water, x represents the increase in dissolved solids, k represents the first coefficient, and b represents the second coefficient. Both the first and second coefficients are coefficients corresponding to the service life of the mineralization filter element 210.

[0114] The correspondence between the first and second coefficients and the flow rate parameter can be obtained through multiple experimental tests, and this embodiment does not impose specific limitations. The increase in dissolved solids can be calculated based on the difference in real-time water quality parameters. The specific method for calculating the difference can be referred to the description in the aforementioned embodiment, and will not be repeated here.

[0115] In one embodiment, the control component 110 is used to reduce the first coefficient and the second coefficient of the preset water flow rate node if the water flow rate parameter increases to the preset water flow rate node.

[0116] In this embodiment, the adaptive adjustment of the first and second coefficients can be achieved by configuring multiple preset flow rate nodes. The preset flow rate nodes can be flow rate thresholds. For example, the preset flow rate nodes can be configured as 250L, 500L, and 750L.

[0117] In a feasible embodiment, when the flow rate parameter of the flow component 120 is in the range of 0-250L, y=k1x+b1, k1=0.225, b1=0.125, where y is the trace element concentration of the mineral water, x is the increase in dissolved solids, k1 represents the first coefficient, and b1 represents the second coefficient.

[0118] When the flow rate parameter of the flow component 120 is within the range of 251-500L, y=k2x+b2, k1=0.172, b1=0.075, where y is the concentration of trace elements in the mineral water, x is the increase in dissolved solids, k2 represents the first coefficient, and b2 represents the second coefficient.

[0119] When the flow rate parameter of the flow component 120 is within the range of 501-750L, y=k3x+b3, k1=0.151, b1=0.055, where y is the concentration of trace elements in the mineral water, x is the increase in dissolved solids, k3 represents the first coefficient, and b3 represents the second coefficient.

[0120] It should be noted that this embodiment can be configured with multiple preset water flow nodes. The specific values ​​of the preset water flow nodes can be adaptively configured based on the needs of the actual application scenario. The specific values ​​mentioned above are only for illustrative purposes.

[0121] This embodiment adaptively adjusts the first and second coefficients by configuring preset water flow nodes, thereby enabling the calculation method of real-time adjustment of trace element concentration based on the service life of the mineralization filter element 210, thus achieving accurate detection of trace element concentration in mineral water by the mineralization equipment at all times.

[0122] It should be noted that after each replacement of the mineralization filter element 210, the control component 110 will reset the flow rate parameters counted by the flow component 120 in order to accurately record the service life of the mineralization filter element 210.

[0123] like Figure 2 , Figure 3 and Figure 4 As shown, the mineralization equipment control system 100 also includes a heating component 180, a first valve body component 140, a second valve body component 150, a first power component 160, and a second power component 170, wherein the control component 110 is connected to the heating component 180, the first valve body component 140, the second valve body component 150, the first power component 160, and the second power component 170 respectively.

[0124] The inlet of the mineralization chamber 200 is connected to a preset water inlet pipeline through the first valve body assembly 140, the heating assembly 180 and the first power assembly 160. The outlet of the mineralization chamber 200 is connected to the inlet of the water storage tank 300 through the second valve body assembly 150 and the second power assembly 170. The outlet of the water storage tank 300 is connected to a preset water outlet pipeline.

[0125] The control component 110 is used to control the heating component 180, the first valve body component 140, the second valve body component 150, the first power component 160, and the second power component 170 to perform the mineral water generation step.

[0126] In this embodiment, the heating component 180 is disposed between the first valve body component 140 and the first power component 160. In this embodiment, the control component 110 sends a target heating command to the heating component 180, which includes a preset temperature. The preset temperature can be between 40℃ and 100℃, and the specific setting of the preset temperature can be adaptively replaced. The heating component 180 can effectively heat the water entering the mineralization chamber 200. Since the dissolution rate of mineral materials in water is mainly determined by temperature and dissolution time, in order to accelerate the dissolution rate of mineral materials in water, such as the dissolution rate of metasilicic acid, this embodiment heats the water entering the mineralization chamber 200 to a preset temperature, which can more accurately achieve the concentration control of the mineral water. The step of using heated water for mineral water extraction in this embodiment can also be called thermal extraction.

[0127] Both the first valve body assembly 140 and the second valve body assembly 150 include switching components such as solenoid valves that can be used to control the on / off state of the water pipeline. In this embodiment, the first valve body assembly 140 is positioned before the inlet of the mineralization tank 200, and the second valve body assembly 150 is positioned after the outlet of the mineralization tank 200, for realizing the control of water inflow and outflow from the mineralization tank 200. In this embodiment, the water flow state includes a conducting state and a closed state. When the corresponding valve body assembly is open, the water pipeline is in a conducting state, and water can flow through the pipe to the corresponding device. When the corresponding valve body assembly is closed, the water pipeline is in a closed state, and water can no longer flow through the pipe.

[0128] The first power assembly 160 and the second power assembly 170 include pump bodies such as self-priming pumps that can provide power to the water body. In this embodiment, the first power assembly 160 can control the flow of preset water body sequentially through the heating assembly 180, the first valve assembly 140, and the flow component 120 into the mineralization tank 200. It can also control the flow of preset water body sequentially through the heating assembly 180, the first valve assembly 140, the flow component 120, the mineralization tank 200, the second valve assembly 150, and the second power assembly 170 into the water storage tank 300. The second power assembly 170 can control the flow of water in the mineralization tank 200 sequentially through the second valve assembly 150 and the second power assembly 170 into the water storage tank 300.

[0129] In this embodiment, when generating mineral water, the control component 110 first controls the corresponding power component and valve component to open, allowing water to flow through the flow component 120 into the mineralization chamber 200, where extraction is completed for a preset time. Then, the corresponding valve component and power component are controlled to transfer the mineral water of a certain concentration generated in the mineralization chamber 200 to the storage tank 300. The above extraction control and mineral water transfer control are repeated until the mineral water level in the storage tank 300 is greater than or equal to a high-level threshold.

[0130] It should be noted that the volume of the water storage tank 300 in this embodiment is larger than the volume of the mineralization chamber 200. The volume of the water storage tank 300 can be several times the volume of the mineralization chamber 200, and can be configured according to the actual application scenario.

[0131] In this embodiment, the preset water body can be pure water or distilled water with low mineral concentration, and the preset water inlet pipe can be connected to a water purification device. It should be noted that this embodiment does not limit the specific location of the preset water inlet pipe; it can be adaptively configured according to the needs of the actual application scenario.

[0132] In one embodiment, such as Figure 3 As shown, the complete execution flow of the mineral water generation step is as follows:

[0133] The control component 110 controls the first valve body component 140 and the first power component 160 to open, and the second valve body component 150 and the second power component 170 to close, so that the preset water body is connected from the preset water inlet pipe, heated to the target extraction temperature by the heating component 180 and then enters the mineralization chamber 200.

[0134] When the pumping volume of the first power component 160 is greater than or equal to the preset water volume threshold, the first valve body component 140 and the first power component 160 are controlled to close, so that the mineralization chamber 200 can perform thermal extraction to obtain mineral water of a preset concentration.

[0135] When the thermal extraction time in the mineralization chamber 200 is greater than or equal to the target extraction time, the second valve assembly 150 and the second power assembly 170 are opened to transfer the mineral water in the mineralization chamber 200 to the water storage tank 300.

[0136] When the opening duration of the second power component 170 is greater than or equal to a preset time, the second valve body component 150 and the second power component 170 are controlled to close, and it is determined whether the liquid level information in the water storage tank 300 is greater than or equal to the high liquid level threshold.

[0137] If the liquid level in the water storage tank 300 is less than the high liquid level threshold, the system will switch to control the opening of the first valve body assembly 140 and the first power assembly 160, and the closing of the second valve body assembly 150 and the second power assembly 170, so that the preset water body can be connected from the preset water inlet pipe, heated to the target extraction temperature by the heating assembly 180, and then enter the mineralization chamber 200.

[0138] If the liquid level in the water storage tank 300 is greater than or equal to the high liquid level threshold, the mineral water generation step is completed.

[0139] In this embodiment, the mineral water generation step is divided into two parts: an extraction part and a transfer part.

[0140] During the extraction process, the control component 110 controls the opening of the first valve assembly 140 and the first power assembly 160, and the closing of the second valve assembly 150 and the second power assembly 170, based on a low liquid level signal. The first power assembly 160 directs the preset water to the heating assembly, which heats the water to the target extraction temperature (40℃-100℃). The hot water then flows through the first valve assembly 140 and the flow component 120 into the mineralization chamber 200. When the first power assembly 160 detects that the amount of hot water injected into the mineralization chamber 200 has reached a set volume (180-1000ml), the control component 110 closes the first valve assembly 140 and the first power assembly 160. It should be noted that the pumping flow rate of the first power assembly 160 at this time is the same as the volume of the cavity inside the mineralization chamber 200. The mineralization chamber 200 performs thermal extraction (15s-30min) to obtain mineral water with a certain concentration.

[0141] During the transfer process, after the target extraction time for thermal extraction is completed in the mineralization chamber 200, the completion of thermal extraction is confirmed. The control component 110 controls the first power component 160, the heating component, and the first valve body component 140 to close, and controls the second valve body component 150 and the second power component 170 to open. The second power component 170 transfers the extracted mineral water from the mineralization chamber 200 to the storage tank 300. After the second power component 170 has run for a preset time (10s-60s), the control component 110 controls the second valve body component 150 and the second power component 170 to close. It should be noted that the running time of the second power component 170 can be determined based on the cavity volume of the mineralization chamber 200. However, the running time of the second power component 170 should not be too long to avoid wasting its function. If the control component 110 does not receive a high liquid level trigger signal when completing one transfer step, the extraction and transfer steps are re-executed until the liquid level in the storage tank 300 is greater than or equal to the high liquid level threshold.

[0142] In this embodiment, the water input to the mineralization chamber 200 is heated by the heating component 180, which enables thermal extraction of mineral water, thereby generating mineral water of the corresponding concentration more stably.

[0143] In this embodiment, the control component 110 can determine the target extraction time and target extraction temperature in the mineral water generation step based on the water flow parameter.

[0144] The target extraction time and target extraction temperature are both correlated with the water flow rate parameter; the larger the water flow rate parameter, the longer the target extraction time and the higher the target extraction temperature. By determining the target extraction parameters based on the water flow rate parameter, and then controlling the heating component 180 and the corresponding valve and power components to implement the corresponding mineral water generation steps, the correlation between the mineral water generation steps and the lifespan of the mineralization filter element 210 can be effectively realized. By monitoring the lifespan of the mineralization filter element 210 within the mineralization chamber 200 and adjusting the execution logic of the mineral water generation steps in real time based on the lifespan of the mineralization filter element 210, the stability of the mineral water generated by the mineralization equipment is greatly improved.

[0145] In one embodiment, the mineralization equipment control system 100 further includes an alarm component, which is connected to the control component 110.

[0146] The control component 110 is used to control the alarm component to sound an alarm when the water flow parameter is greater than or equal to the alarm water flow threshold, so as to prompt the user to replace the filter element.

[0147] In this embodiment, the alarm water overflow threshold can be set to 500L, and the alarm water overflow threshold can also be adaptively set according to the needs of the actual application scenario. The alarm component in this embodiment may include devices such as a buzzer, control panel, or faucet ring light, which can be configured according to the specific type of mineralization equipment in the actual application scenario.

[0148] The control component 110 can control the alarm component to directly sound an alarm, prompting the user to replace the mineralization filter element 210 of the mineralization equipment. It can also control the alarm component to display a message indicating that the filter element needs replacement on the display panel of the mineralization equipment. This embodiment, by using the alarm component in conjunction with the alarm, can effectively monitor the lifespan of the mineralization filter element 210 and promptly remind the user to replace it when the filter element 210 has been used for an extended period.

[0149] In one embodiment, such as Figure 3 and Figure 4 As shown, the water storage tank 300 is equipped with a first liquid level detector 310 and a second liquid level detector 320, both of which are connected to the control component 110.

[0150] The first liquid level detector 310 is used to send a high liquid level trigger signal to the control component 110 when the liquid level information in the water storage tank 300 is greater than or equal to the high liquid level threshold.

[0151] The second liquid level detector 320 is used to send a low liquid level trigger signal to the control component 110 when the liquid level information in the water storage tank 300 is less than or equal to the low liquid level threshold.

[0152] The control component 110 is used to stop executing the mineral water generation step if it receives a high liquid level trigger signal from the first liquid level detector 310.

[0153] The control component 110 is used to start executing the mineral water generation step if it receives a low liquid level trigger signal from the second liquid level detector 330.

[0154] In this embodiment, the control component 110 can start and stop the mineral water generation step according to the liquid level in the water storage tank 300. By configuring a first liquid level detector 310 and a second liquid level detector 320 in the water storage tank 300, it is also possible to effectively ensure that the mineral water content in the water storage tank 300 is always greater than or equal to a preset liquid level threshold, thereby providing mineral water to the user at any time.

[0155] It should be noted that the first liquid level detector 310 is positioned at a certain distance from the bottom surface of the water storage tank 300 to ensure that a certain amount of mineral water is always stored in the water storage tank 300, and to promptly remind the control component 110 to extract mineral water, thereby achieving automatic replenishment of mineral water. The second liquid level detector 320 is positioned at a certain distance from the top surface of the water storage tank 300 to ensure that the water storage tank 300 does not become full of mineral water, thus preventing mineral water from remaining in the mineralization chamber 200, effectively protecting the mineralization filter element 210 inside the mineralization chamber 200, and extending the service life of the mineralization filter element 210.

[0156] In one embodiment, the mineralization chamber 200 includes a mineralization filter element 210 and a membrane housing 220. The membrane housing 220 is provided with an atmospheric vent 230, which is used to balance the pressure inside the mineralization chamber 200 with the external air pressure.

[0157] In this embodiment, the membrane housing 220 on which the mineralization filter element 210 is placed is provided with a corresponding atmospheric vent 230, which allows the extract in the mineralization chamber 200 to flow more thoroughly to the water storage tank 300, thereby achieving solid-liquid separation in the mineralization chamber 200 and effectively extending the service life of the mineralization filter element 210.

[0158] In summary, this embodiment provides a mineralization equipment control system 100, which not only enables thermal extraction of mineral water but also allows for real-time detection of trace element concentrations in the mineral water within the mineralization equipment. It also controls the display device of the mineralization equipment to display the trace element concentrations in real time. Furthermore, the control component 110 can adjust the calculation method for trace element concentrations according to the service life of the mineralization filter element 210, ensuring the accuracy of the component's trace element concentration detection. Simultaneously, this embodiment also provides an atmospheric vent in the cavity of the mineralization chamber 200, enabling smoother solid-liquid separation and significantly extending the service life of the mineralization filter element 210.

[0159] In one embodiment, such as Figure 5 As shown, a method for controlling a mineralization device is provided, which can be applied to... Figure 2 Taking the mineral processing equipment control system as an example, the explanation includes the following steps:

[0160] S501, acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow component;

[0161] S502, based on flow rate parameters and real-time water quality parameters, determines the trace element concentration of mineral water;

[0162] S503 displays the concentration of trace elements on a display device.

[0163] In one embodiment, the water quality detection component includes a first water quality sensor, which is disposed within a mineralization chamber; such as Figure 6 As shown, the control method for mineralization equipment also includes:

[0164] S601, control the first water quality sensor to collect the first water quality parameter and the second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber for a preset time;

[0165] S602, based on the flow rate parameter, the first water quality parameter, and the second water quality parameter, determines the trace element concentration of mineral water.

[0166] In one embodiment, the water quality detection component includes a second water quality sensor and a third water quality sensor, wherein the second water quality sensor is located at the inlet of the mineralization chamber, and the third water quality sensor is located at the outlet of the mineralization chamber; for example Figure 7 As shown, the control method for mineralization equipment also includes:

[0167] S701, control the second water quality sensor to collect the third water quality parameter, and control the third water quality sensor to collect the fourth water quality parameter; wherein, the third water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber to the water storage tank.

[0168] S702 determines the trace element concentration of mineral water based on the flow rate parameter, the third water quality parameter, and the fourth water quality parameter.

[0169] In one embodiment, such as Figure 8 As shown, the control method for mineralization equipment also includes:

[0170] S801, the first and second coefficients are determined based on the water flow parameters, and the increase in dissolved solids is determined based on real-time water quality parameters;

[0171] S802, the trace element concentration of mineral water is calculated based on the increase in dissolved solids, the first coefficient, and the second coefficient.

[0172] In one embodiment, the mineralization equipment control method further includes:

[0173] If the flow rate parameter is increased to the preset flow rate node, the first and second coefficients of the corresponding preset flow rate node will be reduced.

[0174] In this embodiment, the specific implementation method of the mineralization equipment control method can be referred to the specific implementation method in the foregoing system embodiment, and will not be repeated here.

[0175] In summary, this embodiment provides a control method for mineralization equipment. It not only enables thermal extraction of mineral water but also allows real-time detection of trace element concentrations in the mineral water within the equipment. The control system can control the display device to show the trace element concentrations in real time. Furthermore, the control component can adjust the calculation method for trace element concentrations based on the lifespan of the mineralization filter element, ensuring the accuracy of the detected concentrations. Simultaneously, this embodiment also incorporates an atmospheric vent in the mineralization chamber, facilitating smoother solid-liquid separation and significantly extending the lifespan of the mineralization filter element.

[0176] It should be understood that although the steps in the flowcharts of the above embodiments are shown sequentially according to the arrows, these steps are not necessarily executed in the order indicated by the arrows. Unless explicitly stated herein, there is no strict order restriction on the execution of these steps, and they can be executed in other orders. Moreover, at least some steps in the flowcharts of the above embodiments may include multiple steps or multiple stages. These steps or stages are not necessarily completed at the same time, but can be executed at different times. The execution order of these steps or stages is not necessarily sequential, but can be performed alternately or in turn with other steps or at least some of the steps or stages of other steps.

[0177] Based on the same inventive concept, this application also provides a mineralization equipment control device for implementing the above-described mineralization equipment control method. The solution provided by this device is similar to the solution described in the above method; therefore, the specific limitations in one or more embodiments of the mineralization equipment control device provided below can be found in the limitations of the mineralization equipment control method described above, and will not be repeated here.

[0178] In one embodiment, such as Figure 9As shown, a mineralization equipment control device 900 is provided, applied to the mineralization equipment control system in the aforementioned embodiments. The mineralization equipment control device 900 includes: an acquisition module 910, a determination module 920, and an extraction module 930, wherein:

[0179] The acquisition module 910 is used to acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow component;

[0180] The determination module 920 is used to determine the trace element concentration of the mineral water based on the water flow parameters and the real-time water quality parameters.

[0181] Display module 930 is used to display the concentration of the trace elements on a display device.

[0182] In one embodiment, the acquisition module 910 is specifically used to control the first water quality sensor to collect the first water quality parameter and the second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber for a preset time;

[0183] The determination module 920 is specifically used to determine the trace element concentration of mineral water based on the flow rate parameter, the first water quality parameter, and the second water quality parameter.

[0184] In one embodiment, the acquisition module 910 is specifically used to control the second water quality sensor to collect the third water quality parameter and control the third water quality sensor to collect the fourth water quality parameter; wherein, the third water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber to the water storage tank.

[0185] The determination module 920 is specifically used to determine the trace element concentration of mineral water based on the flow rate parameter, the third water quality parameter, and the fourth water quality parameter.

[0186] In one embodiment, the determining module 920 is specifically used to determine a first coefficient and a second coefficient based on the water flow parameters, and to determine the increase in dissolved solids based on real-time water quality parameters; and to calculate the trace element concentration of the mineral water based on the increase in dissolved solids, the first coefficient, and the second coefficient.

[0187] In one embodiment, the determining module 920 is specifically used to reduce the first coefficient and the second coefficient of the preset water flow node if the water flow parameter increases to the preset water flow node.

[0188] Each module in the aforementioned mineralization equipment control device can be implemented entirely or partially through software, hardware, or a combination thereof. These modules can be embedded in or independent of the processor in a computer device, or stored in the computer device's memory as software, so that the processor can call and execute the operations corresponding to each module.

[0189] In one embodiment, a computer device is provided, which may be a terminal, and its internal structure diagram may be as follows: Figure 10 As shown, the computer device includes a processor, memory, input / output interface, communication interface, display unit, and input device. The processor, memory, and input / output interface are connected via a system bus, and the communication interface, display unit, and input device are also connected to the system bus via the input / output interface. The processor provides computing and control capabilities. The memory includes non-volatile storage media and internal memory. The non-volatile storage media stores the operating system and computer programs. The internal memory provides an environment for the operation of the operating system and computer programs in the non-volatile storage media. The input / output interface is used for exchanging information between the processor and external devices. The communication interface is used for wired or wireless communication with external terminals; wireless communication can be achieved through Wi-Fi, mobile cellular networks, NFC (Near Field Communication), or other technologies. When the computer program is executed by the processor, it implements a method for controlling a mineralization device. The display unit is used to form a visually visible image and can be a display screen, projection device, or virtual reality imaging device. The display screen can be an LCD screen or an e-ink screen. The input device of the computer device can be a touch layer covering the display screen, or buttons, trackballs, or touchpads set on the casing of the computer device, or external keyboards, touchpads, or mice, etc.

[0190] Those skilled in the art will understand that Figure 10 The structure shown is merely a block diagram of a portion of the structure related to the present application and does not constitute a limitation on the computer device to which the present application is applied. Specific computer devices may include more or fewer components than those shown in the figure, or combine certain components, or have different component arrangements.

[0191] In one embodiment, a computer device is provided, including a memory and a processor, wherein the memory stores a computer program, and the processor executes the computer program to perform the following steps:

[0192] Acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component;

[0193] The concentration of trace elements in mineral water was determined based on the flow rate parameters and real-time water quality parameters.

[0194] The concentration of trace elements is displayed on the display device.

[0195] In one embodiment, a computer-readable storage medium is provided having a computer program stored thereon, the computer program performing the following steps when executed by a processor:

[0196] Acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component;

[0197] The concentration of trace elements in mineral water was determined based on the flow rate parameters and real-time water quality parameters.

[0198] The concentration of trace elements is displayed on the display device.

[0199] In one embodiment, a computer program product is provided, including a computer program that, when executed by a processor, performs the following steps:

[0200] Acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component;

[0201] The concentration of trace elements in mineral water was determined based on the flow rate parameters and real-time water quality parameters.

[0202] The concentration of trace elements is displayed on the display device.

[0203] Those skilled in the art will understand that all or part of the processes in the above embodiments can be implemented by a computer program instructing related hardware. The computer program can be stored in a non-volatile computer-readable storage medium. When executed, the computer program can include the processes of the embodiments described above. Any references to memory, databases, or other media used in the embodiments provided in this application can include at least one of non-volatile and volatile memory. Non-volatile memory can include read-only memory (ROM), magnetic tape, floppy disk, flash memory, optical memory, high-density embedded non-volatile memory, resistive random access memory (ReRAM), magnetic random access memory (MRAM), ferroelectric random access memory (FRAM), phase change memory (PCM), graphene memory, etc. Volatile memory can include random access memory (RAM) or external cache memory, etc. By way of illustration and not limitation, RAM can take many forms, such as Static Random Access Memory (SRAM) or Dynamic Random Access Memory (DRAM). The databases involved in the embodiments provided in this application may include at least one type of relational database and non-relational database. Non-relational databases may include, but are not limited to, blockchain-based distributed databases. The processors involved in the embodiments provided in this application may be general-purpose processors, central processing units, graphics processing units, digital signal processors, programmable logic devices, quantum computing-based data processing logic devices, etc., and are not limited to these.

[0204] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0205] The embodiments described above are merely illustrative of several implementation methods of this application, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of this patent application. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this application should be determined by the appended claims.

Claims

1. A control system for mineral processing equipment, characterized in that, The system includes a control component, a flow component, and a water quality detection component, wherein the control component is connected to the flow component and the water quality detection component respectively; the mineralization equipment includes a mineralization chamber and a water storage tank; The flow rate component is installed at the inlet or outlet of the mineralization tank, and the flow rate component is used to record the flow rate parameters of the mineralization tank. The water quality detection component is installed inside the mineralization chamber, or separately installed at the inlet and outlet of the mineralization chamber. The water quality detection component is used to record real-time water quality parameters. The real-time water quality parameters include at least the water quality parameters of the water flowing into the mineralization chamber and the water quality parameters of the water flowing out of the mineralization chamber. The control component is used to acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component; The first coefficient and the second coefficient are determined based on the water flow parameters, and the increase in dissolved solids is determined based on the real-time water quality parameters. The trace element concentration of the mineral water is calculated based on the increase in dissolved solids, the first coefficient, and the second coefficient. The formula for calculating the trace element concentration of the mineral water is y=kx+b, where y represents the trace element concentration of the mineral water, x represents the increase in dissolved solids, k represents the first coefficient, and b represents the second coefficient.

2. The system according to claim 1, characterized in that, The water quality detection component includes a first water quality sensor, which is disposed inside the mineralization chamber. The control component is used to control the first water quality sensor to collect a first water quality parameter and a second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber for a preset time; The increase in dissolved solids is determined based on the first water quality parameter and the second water quality parameter.

3. The system according to claim 1, characterized in that, The water quality detection component includes a second water quality sensor and a third water quality sensor. The second water quality sensor is located at the inlet of the mineralization chamber, and the third water quality sensor is located at the outlet of the mineralization chamber. The control component is used to control the second water quality sensor to collect a third water quality parameter and to control the third water quality sensor to collect a fourth water quality parameter; wherein, the third water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber to the water storage tank; The increase in dissolved solids is determined based on the third and fourth water quality parameters.

4. The system according to claim 1, characterized in that, The control component is used to reduce the first coefficient and the second coefficient corresponding to the preset water flow rate node if the water flow rate parameter increases to the preset water flow rate node.

5. The system according to claim 1, characterized in that, The system further includes: a heating component, a first valve body component, a second valve body component, a first power component, and a second power component, wherein the control component is connected to the heating component, the first valve body component, the second valve body component, the first power component, and the second power component respectively; The inlet of the mineralization chamber is connected to a preset water inlet pipeline through the first valve body assembly, the heating assembly and the first power assembly; the outlet of the mineralization chamber is connected to the inlet of the water storage tank through the second valve body assembly and the second power assembly; and the outlet of the water storage tank is connected to a preset water outlet pipeline. The control component is used to control the heating component, the first valve body component, the second valve body component, the first power component, and the second power component to perform the mineral water generation step, so as to generate mineral water of a preset concentration in the mineralization chamber and transfer the mineral water to the water storage tank.

6. The system according to claim 5, characterized in that, The control component controls the opening of the first valve body assembly and the first power assembly, and the closing of the second valve body assembly and the second power assembly, so that a preset water body is connected from the preset water inlet pipeline, heated to the target extraction temperature by the heating component, and then enters the mineralization chamber; When the pumping volume of the first power component is greater than or equal to a preset water volume threshold, the first valve body component and the first power component are controlled to close, so that the mineralization chamber can perform thermal extraction to obtain mineral water of a preset concentration. When the thermal extraction time in the mineralization chamber is greater than or equal to the target extraction time, the second valve assembly and the second power assembly are controlled to open so that the mineral water in the mineralization chamber is transferred to the water storage tank. When the opening duration of the second power component is greater than or equal to a preset time, the second valve body component and the second power component are controlled to close, and it is determined whether the liquid level information in the water storage tank is greater than or equal to the high liquid level threshold. If the liquid level in the water storage tank is less than the high liquid level threshold, the system will switch to control the first valve assembly and the first power assembly to open, and the second valve assembly and the second power assembly to close, so that the preset water body can be connected from the preset water inlet pipe, heated to the target extraction temperature by the heating assembly, and then enter the mineralization chamber. If the liquid level in the water storage tank is greater than or equal to the high liquid level threshold, the mineral water generation step is completed.

7. The system according to claim 1, characterized in that, The system also includes: an alarm component; The control component is used to control the alarm component to sound an alarm when the water flow parameter is greater than or equal to the alarm water flow threshold, so as to prompt the user to replace the filter element.

8. The system according to claim 5, characterized in that, The water storage tank is equipped with a first liquid level detector and a second liquid level detector, both of which are connected to the control component. The first liquid level detector is used to send a high liquid level trigger signal to the control component when the liquid level information in the water storage tank is greater than or equal to the high liquid level threshold. The second liquid level detector is used to send a low liquid level trigger signal to the control component when the liquid level information in the water storage tank is less than or equal to the low liquid level threshold. The control component is used to stop executing the mineral water generation step if it receives a high liquid level trigger signal from the first liquid level detector. The control component is used to start executing the mineral water generation step if it receives a low liquid level trigger signal from the second liquid level detector.

9. The system according to claim 1, characterized in that, The mineralization chamber includes a mineralization filter element and a membrane shell. The membrane shell is provided with an atmospheric vent, which is used to balance the pressure inside the mineralization chamber with the external air pressure.

10. A method for controlling mineralization equipment, characterized in that, The control system for the mineralization equipment according to any one of claims 1-9 includes: The system acquires real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow rate component; wherein, the real-time water quality parameters include at least the water quality parameters of the water flowing into the mineralization chamber and the water quality parameters of the water flowing out of the mineralization chamber. The first coefficient and the second coefficient are determined based on the water flow parameters, and the increase in dissolved solids is determined based on the real-time water quality parameters. The trace element concentration of the mineral water is calculated based on the increase in dissolved solids, the first coefficient, and the second coefficient. The formula for calculating the trace element concentration of the mineral water is y=kx+b, where y represents the trace element concentration of the mineral water, x represents the increase in dissolved solids, k represents the first coefficient, and b represents the second coefficient.

11. The method according to claim 10, characterized in that, The water quality detection component includes a first water quality sensor, which is disposed within the mineralization chamber; the method further includes: The first water quality sensor is controlled to collect a first water quality parameter and a second water quality parameter; wherein, the first water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the second water quality parameter is the water quality parameter of the water after soaking in the mineralization chamber for a preset time; The increase in dissolved solids is determined based on the first water quality parameter and the second water quality parameter.

12. The method according to claim 10, characterized in that, The water quality detection component includes a second water quality sensor and a third water quality sensor, wherein the second water quality sensor is disposed at the inlet of the mineralization tank, and the third water quality sensor is disposed at the outlet of the mineralization tank; the method further includes: The second water quality sensor is controlled to collect a third water quality parameter, and the third water quality sensor is controlled to collect a fourth water quality parameter; wherein, the third water quality parameter is the water quality parameter of the water entering the mineralization chamber, and the fourth water quality parameter is the water quality parameter of the water transferred from the mineralization chamber to the water storage tank; The increase in dissolved solids is determined based on the third and fourth water quality parameters.

13. The method according to claim 10, characterized in that, The method further includes: If the flow rate parameter is increased to a preset flow rate node, the first coefficient and the second coefficient are reduced accordingly at the preset flow rate node.

14. A control device for mineralization equipment, characterized in that, The control system for the mineralization equipment according to any one of claims 1-9 includes: The acquisition module is used to acquire real-time water quality parameters collected by the water quality detection component and flow rate parameters collected by the flow component; wherein, the real-time water quality parameters include at least the water quality parameters of the water flowing into the mineralization tank and the water quality parameters of the water flowing out of the mineralization tank; The determination module is used to determine a first coefficient and a second coefficient based on the water flow parameters, and to determine the increase in dissolved solids based on the real-time water quality parameters; and to calculate the trace element concentration of the mineral water based on the increase in dissolved solids, the first coefficient, and the second coefficient. The formula for calculating the trace element concentration of the mineral water is y=kx+b, where y represents the trace element concentration of the mineral water, x represents the increase in dissolved solids, k represents the first coefficient, and b represents the second coefficient.

15. A mineralization device, characterized in that, Includes the mineralization equipment control system as described in any one of claims 1-9.

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