A healthy drinking water pipeline system

Abstract

A kind of healthy drinking water waterway system, the system includes: pure water tank: by water purification equipment is connected to pure water tank, pure water tank is supplied to mineralization module by waterway;Mineralization module: including mineralization water tank, mineralization pump, mineralization filter core and TDS sensor, mineralization outlet is equipped at the bottom of mineralization water tank, mineralization backflow port is equipped at the upper portion of mineralization water tank, mineralization pump extracts water in mineralization water tank to mineralization filter core by mineralization outlet, then is connected to the mineralization backflow port of upper portion of mineralization water tank, second TDS sensor is arranged at the bottom of mineralization water tank;The system is also configured instant heating component and refrigeration component, and mineralized water through mineralization outlet can be heated or refrigerated and supplied.The utility model relates to a kind of healthy drinking water waterway system is configured mineralization module, and mineral element is increased by mineral matter control filter core, and the system is also provided with waterway cleaning module, instant heating component, refrigeration component can provide different use demand drinking water effect under the premise of meeting health requirement.

Description

[Technical Field] This utility model relates to the technical field of water purifiers and water purification equipment, and in particular to the technology of adding a mineralization module to a drinking water system to enhance the cleaning effect and achieve healthy drinking water. [Background Technology] With the improvement of people's living standards, water purifiers and water purification equipment have become common household appliances. These devices integrate various reverse osmosis filters, mineral filters, or cooling and heating units. As people's health awareness continues to rise, their drinking habits are gradually shifting from focusing on water safety to focusing on water health. Existing water purification equipment includes a water purification system and a drinking water system. The water purification system typically filters tap water using filter media such as PP cotton, activated carbon, and RO to ensure drinking water safety, but it also filters out beneficial mineral ions. The drinking water system usually heats the purified water to provide users with water at different temperatures. However, this entire system only focuses on comprehensive filtration and water temperature, neglecting the human body's need to obtain trace elements and minerals from food and water. Long-term consumption of fully filtered purified water, which excludes minerals, deprives the body of essential minerals from drinking water, potentially harming health. [Summary of the Invention] This invention addresses the above problems by proposing a drinking water system equipped with a mineralization module. This system can precisely control the proportion, concentration, and types of minerals in purified water that has already been filtered to remove heavy metal ions and impurities. The system also includes a water path cleaning module, an instant heating component, and a cooling component, which can provide drinking water for different user needs while meeting health requirements.

[0001] The healthy drinking water system involved in this utility model is characterized in that the system includes: Pure water tank: Connected to the pure water tank via water purification equipment, the pure water tank supplies water to the mineralization module through a water circuit; Mineralization Module: Includes mineralization water tank, mineralization pump, mineralization filter element and TDS sensor. There is a connecting water passage between the pure water tank and the mineralization water tank of the mineralization module. There is a mineralization outlet at the bottom of the mineralization water tank and a mineralization return port at the top of the mineralization water tank. The mineralization pump draws water from the mineralization water tank through the mineralization outlet to the mineralization filter element. The water passage flowing through the mineralization filter element is connected to the mineralization return port at the top of the mineralization water tank. A second TDS sensor is installed at the bottom of the mineralization water tank. Instant heating component: The water from the outlet of the pure water tank or mineralized water tank is connected to the instant heating component through the first water pump and solenoid valve, and then connected to the drinking water outlet through the instant heating component; Cooling component: The water from the outlet of the pure water tank or mineralized water tank is connected to the cooling component through the second water pump, and then connected to the drinking water outlet through the cooling component.

[0002] The mineralized water tank is equipped with three liquid level sensors, namely high liquid level, medium liquid level and low liquid level sensors, which are respectively set at the high water level, medium water level and low water level of the mineralized water tank.

[0003] The system also includes a water purification device, which is connected to a pure water tank via a water circuit through its outlet.

[0004] A first TDS sensor is installed at the outlet of the water purification equipment.

[0005] A first water pump is provided in the water pumping line of the instant heating component. A reversing solenoid valve is provided between the first water pump and the pure water tank or between the first water pump and the mineralized water tank. The reversing solenoid valve switches the water path between the first water pump and the pure water tank or between the first water pump and the mineralized water tank.

[0006] The present invention relates to a healthy drinking water system equipped with a mineralization module, which can add mineral elements to pure water that has been filtered out of heavy metal ions and impurities through a mineral control filter. It is a drinking water system that can precisely control the proportion, concentration and corresponding mineral types. The system is also equipped with a water cleaning module, an instant heating component and a cooling component, which can provide drinking water effects for different user needs while meeting health requirements. [Attached Image Description] Figure 1 This is a schematic diagram of the overall structure of the healthy drinking water circuit involved in this utility model; Among them: 10, pure water tank; 20, mineralization module; 21, mineralization water tank; 211, high liquid level sensor; 212, medium liquid level sensor; 213, low liquid level sensor; 22. Mineralizing pump; 23. Mineralizing filter element; 24. Mineralizing outlet; 25. Mineralizing reflux outlet; 26. Water outlet; 31. First TDS sensor; 32. Second TDS sensor; 40. Instantaneous heating components; 50. Refrigeration components; 61. First water pump; 62. Reversing solenoid valve; 63. Second water pump;

Detailed Implementation Methods

[0007] In the description of this utility model, it should be understood that the terms "center", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0008] Please refer to the attached document. Figure 1 The healthy drinking water system involved in this utility model is characterized in that the system includes: Pure water tank 10: Connected to the pure water tank through the water purification equipment, the pure water tank 10 supplies water to the mineralization module 20 through the water circuit; Mineralization module 20: includes mineralization water tank 21, mineralization pump 22, mineralization filter element 23 and TDS sensor. A connecting water passage is provided between the pure water tank 10 and the mineralization water tank 21 of the mineralization module 20. A mineralization outlet 24 is provided at the bottom of the mineralization water tank 21, and a mineralization return port 25 is provided at the top of the mineralization water tank 21. The mineralization pump 22 draws water from the mineralization water tank 21 through the mineralization outlet 24 to the mineralization filter element 23. The water passage flowing through the mineralization filter element 23 is connected to the mineralization return port 25 at the top of the mineralization water tank 21. A second TDS sensor 32 is provided at the bottom of the mineralization water tank 21. Instantaneous heating component 40: The water path from the outlet 26 of the pure water tank 10 or the mineralized water tank 21 is connected to the instantaneous heating component 40 via the first water pump 61 and the reversing solenoid valve 62, and then connected to the drinking water outlet via the instantaneous heating component 40. The reversing solenoid valve 62 on this water path of the instantaneous heating component 40 is a two-inlet, one-outlet solenoid valve. It can be controlled by a switch to determine whether the first water pump draws water from the pure water tank 10 or the mineralized water tank 21. When the reversing solenoid valve is switched to the pure water tank end, the first water pump 61, the reversing solenoid valve, and the pure water tank 10 are connected, and the mineralized water tank 21 end is closed; the pure water is directly pumped to the instantaneous heating component for heating by the first water pump 61. When switched to the mineralized water tank end, the first water pump 61, the reversing solenoid valve, and the mineralized water tank are connected, and the pure water tank end is closed; the mineralized water is directly pumped to the instantaneous heating component for heating by the first water pump 61.

[0009] Cooling Component 50: The water path from the outlet 26 of the pure water tank 10 or the mineralized water tank 21 is connected to the cooling component 50 via the second water pump 62, and then connected to the drinking water outlet via the cooling component 50. The water path design of the cooling component 50 can refer to the design of the instant heating component 40. It can draw water from either the pure water tank 10 or the mineralized water tank 21, or it can be designed to draw water solely from the outlet 26 of the mineralized water tank 21. In this specific implementation case, there is actually only one water path connecting to the mineralized water tank 21; that is, the second water pump 62 is only connected to the outlet 26 of the mineralized water tank 21 and draws water from the mineralized water tank 21 to the cooling component for cooling and then for drinking.

[0010] The mineralization water tank 21 is equipped with three liquid level sensors: a high liquid level sensor 211, a medium liquid level sensor 212, and a low liquid level sensor 213, which are respectively located at the high, medium, and low water levels of the mineralization water tank. The installation of these three liquid level sensors in the mineralization water tank provides the necessary hardware support for subsequent water replenishment and mineralization process control.

[0011] The system also includes a water purification device, which is connected to a pure water tank via a water circuit through its outlet.

[0012] A first TDS sensor is installed at the outlet of the water purification equipment. This first TDS sensor is used to detect the TDS value of the water entering the pure water tank 10, which is also the water entering the mineralized water tank 21 without mineralization.

[0013] A first water pump 61 is provided in the water pumping line of the instant heating component. A reversing solenoid valve 62 is provided between the first water pump 61 and the pure water tank 10 or between the first water pump 61 and the mineralized water tank 21. The reversing solenoid valve 62 switches the water path between the first water pump 61 and the pure water tank 10 or between the first water pump 61 and the mineralized water tank 21.

[0014] The healthy drinking water system can control mineral concentration through this mineralization module, and the process includes the following steps: S1, Water Inlet: Add filtered clean water into the mineralized water tank until the liquid level is reached, and detect the current TDS value data through the first TDS sensor and record it as T1. T1 is the TDS concentration value of the current inlet water. S2. The current TDS value in the mineralized water tank is detected by the second TDS sensor and recorded as T2. Then T2 is the current TDS concentration value in the mineralized water tank. S3, Preset target TDS value: The preset target TDS concentration in the mineralized water tank is TY; S4. After continuously adding water to the high water level, calculate the TDS value T3' of the mineralized water tank: When the water level in the mineralization water tank is at the medium liquid level, the water volume is h, and when the water level in the mineralization water tank is at the high liquid level, the water volume is H; if the mineralization process is not performed, and the water inlet solenoid valve is continuously opened to continuously add water into the mineralization water tank until the high water level of the mineralization water tank is reached, it can be known through calculation that the TDS value of the TDS concentration in the mineralization water tank is T3', then T3'=(H−h)*T1 / H + T2*h / H S5. Comparison with preset mineralized TDS value: compare T3' obtained in step S4 with the preset value TY, and turn to different operation procedures according to different comparison results; If T3'≥TY−2 (2 is the tolerance value): open the water inlet solenoid valve to replenish water to the high water level, and complete the mineralization; If T3'<TY−2: enter the mineralization process; S6. Mineralization process: the system needs to set a minimum unit mineralization action, that is, start the mineralization pump to operate for a minimum unit time, turn off the mineralization pump after starting it for S seconds. The mineralization pump pumps water with a low TDS value into the mineralization filter element, the low TDS value water mixes with the high TDS value water in the filter element and then flows into the mineralization water tank through the mineralization return port, so as to increase the TDS value of the water in the mineralization water tank; S7. After completing the minimum unit mineralization action, open the water inlet solenoid valve to replenish the water in the mineralization water tank to the high water level; read the value detected by the second TDS sensor and record it as the current TDS concentration T3 of the water in the mineralization water tank; Compare T3 with TY; If T3≥TY−2 (2 is the tolerance value): open the water inlet solenoid valve to replenish the water in the mineralization water tank to the high water level, and complete the mineralization; If T3<TY−2: calculate the pumping time of the mineralization water pump ST=S*(TY−T3) / {T3−[(H−h)*T1 / H +T2*h / H]} Then turn off the mineralization water pump after turning it on for ST seconds according to the calculation result; S8. Final completion of mineralization: After the water in the mineralization water tank completes mineralization, the user can take the mineralized water for use: turn on the first water pump or the second water pump, the completed mineralized water flows out from the water outlet of the mineralization water tank, and enters the instant heating component or the refrigeration component according to the user's demand, correspondingly outputting heated water or refrigerated water.

[0015] When the system detects that the water level of the mineralization water tank is at a low level, it will restart a mineralization and water replenishment process.

[0016] When the mineralization process is in progress, the water intake function is disabled, and can only be used after the mineralization is completed.

[0017] The present invention relates to a healthy drinking water system equipped with a mineralization module, which can add mineral elements to pure water that has been filtered out of heavy metal ions and impurities through a mineral control filter. It is a drinking water system that can precisely control the proportion, concentration and corresponding mineral types. The system is also equipped with a water cleaning module, an instant heating component and a cooling component, which can provide drinking water effects for different user needs while meeting health requirements.

[0018] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Although the present utility model has been disclosed above with reference to a preferred embodiment, it is not intended to limit the present utility model. Any person skilled in the art can make some changes or modifications to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present utility model. Any simple modifications, equivalent changes, and modifications made to the above embodiments based on the present utility model without departing from the scope of the present utility model shall fall within the scope of the present utility model.

Claims

1. A healthy drinking water system, characterized in that, The system includes: Pure water tank: Connected to the pure water tank via water purification equipment, the pure water tank supplies water to the mineralization module through a water circuit; Mineralization Module: Includes mineralization water tank, mineralization pump, mineralization filter element and TDS sensor. There is a connecting water passage between the pure water tank and the mineralization water tank of the mineralization module. There is a mineralization outlet at the bottom of the mineralization water tank and a mineralization return port at the top of the mineralization water tank. The mineralization pump draws water from the mineralization water tank through the mineralization outlet to the mineralization filter element. The water passage flowing through the mineralization filter element is connected to the mineralization return port at the top of the mineralization water tank. A second TDS sensor is installed at the bottom of the mineralization water tank. Instant heating component: The water from the outlet of the pure water tank or mineralized water tank is connected to the instant heating component through the first water pump and solenoid valve, and then connected to the drinking water outlet through the instant heating component; Cooling component: The water from the outlet of the pure water tank or mineralized water tank is connected to the cooling component through the second water pump, and then connected to the drinking water outlet through the cooling component.

2. The healthy drinking water system according to claim 1, characterized in that, The mineralized water tank is equipped with three liquid level sensors, namely high liquid level, medium liquid level and low liquid level sensors, which are respectively set at the high water level, medium water level and low water level of the mineralized water tank.

3. The healthy drinking water system according to claim 2, characterized in that, The system also includes a water purification device, which is connected to a pure water tank via a water circuit through its outlet.

4. The healthy drinking water system according to claim 3, characterized in that, A first TDS sensor is installed at the outlet of the water purification equipment.

5. The healthy drinking water system according to any one of claims 1-4, characterized in that, A first water pump is provided in the water pumping line of the instant heating component. A reversing solenoid valve is provided between the first water pump and the pure water tank or between the first water pump and the mineralized water tank. The reversing solenoid valve switches the water path between the first water pump and the pure water tank or between the first water pump and the mineralized water tank.

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