Waterway system of mineral spring mineralization water purifier and mineral spring mineralization water purifier
By introducing a mineralization filter and a heating device into the water purification equipment, the filter is heated first and then mineralized, which solves the problem of traditional water purification equipment filtering out beneficial minerals and achieves the effect of healthy mineralized drinking water.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-19
- Publication Date
- 2026-04-21
AI Technical Summary
Traditional household water purifiers remove harmful substances from water through reverse osmosis filtration, but they also filter out beneficial minerals, failing to meet the demand for high-end healthy drinking water.
By introducing mineralization filter cartridges and heating devices into water purification equipment, the water is first heated to a set temperature and then passed through the mineralization filter cartridge, which retains beneficial mineral components and prevents scale buildup in the heating device.
Maintain the taste of drinking water and increase the mineral content that is beneficial to human health to meet the demand for high-end healthy drinking water and extend the life of equipment.
Smart Images
Figure CN224147827U_ABST
Abstract
Description
Technical Field
[0001] This application relates to a mineralization filtration device, and more particularly to a water circuit system and a mineralization water purifier. Background Technology
[0002] Traditional household water purifiers primarily use conventional filter cartridges. After activated carbon adsorption, reverse osmosis filtration is applied to obtain purified water suitable for direct drinking. This is currently the most common filtration method used in household water purifiers on the market. Based on the working mechanism of reverse osmosis, it intercepts and filters all substances except water molecules. In other words, while removing contaminants from the water, reverse osmosis also filters out beneficial minerals. Long-term consumption of such water is detrimental to health and fails to meet people's high-end demands for health-promoting drinking water equipment. Utility Model Content
[0003] This utility model provides a water system and a mineral water purifier, which includes a heating device and a mineralization filter element. The water can be heated to a set temperature before flowing through the mineralization filter element, avoiding scale buildup in the heating device and pipes, and ensuring that the water contains minerals beneficial to human health, thus meeting people's high-end demand for health-friendly drinking water equipment.
[0004] This utility model provides a water system for a mineral water purifier, including a mineralization filter element and a heating device, wherein the heating device is used to heat the water before it enters the mineralization filter element;
[0005] The mineralizing filter element has a filter element inlet and a filter element outlet, and the heating device has a heating inlet and a heating outlet. The heating outlet of the heating device is connected to the filter element inlet of the mineralizing filter element through a filter element inlet pipe; or, the heating outlet of the heating device is connected to the filter element inlet of the mineralizing filter element.
[0006] This utility model also provides a mineral water purifier, including the above-mentioned water system. The water system includes an inlet pipe and an outlet pipe. The direction from the inlet pipe to the outlet pipe is from upstream to downstream. The heating device and the mineralization filter element are connected between the inlet pipe and the outlet pipe. The mineralization filter element is located downstream of the heating device.
[0007] Optionally, the water system further includes an inlet diversion valve located upstream of the heating device. The inlet diversion valve is connected to a first diversion pipe and a second diversion pipe. The first diversion pipe is connected to the heating device, and the second diversion pipe is connected to the water inlet end of the mineralization filter element. Alternatively, the second diversion pipe is connected downstream of the mineralization filter element.
[0008] Optionally, the water inlet pipeline is equipped with a first water inlet valve.
[0009] Optionally, the mineral water purifier includes a pre-filter component, the inlet pipe is connected to the inlet end of the pre-filter component, and the heating device is located downstream of the outlet end of the pre-filter component.
[0010] Optionally, the outlet of the pre-filter is connected to the inlet diversion valve via a purified water pipeline, and the purified water pipeline is equipped with a second inlet valve and a flow sensor.
[0011] The outlet of the pre-filter is connected to a return pipe, which is connected to the inlet of the pre-filter.
[0012] The return pipeline is connected to a first TDS sensor;
[0013] The purified water pipeline is connected to a first temperature sensor;
[0014] The water outlet pipe is connected to a second TDS sensor and a second temperature sensor.
[0015] The pre-filter component is equipped with a wastewater discharge pipe at its outlet.
[0016] Optionally, the heating device includes a hot tank and a heater, wherein the heater is disposed in or outside the hot tank.
[0017] Optionally, one mineralization filter element is provided;
[0018] Alternatively, at least two mineralizing filter elements may be provided, with the at least two mineralizing filter elements connected in parallel, and the heating device may be provided upstream of one of the mineralizing filter elements.
[0019] Optionally, the mineralized filter element includes a first filter body and a second filter body; the first filter body and the second filter body are integrally formed or separately formed, or the first filter body and the second filter body are integrally formed or separately formed.
[0020] Optionally, the first filter body is brucite or sepiolite; the second filter body is calcite or brucite.
[0021] Alternatively, the first filter material may be smithsonite or malachite; the second filter material may be brucite, sepiolite, or calcite.
[0022] Alternatively, the first filter material may be amphibole, magnesia ore, or dolomite; and the second filter material may be brucite, sepiolite, or calcite.
[0023] Alternatively, the first filter material may be amphibole, magnesium ore, or dolomite; and the second filter material may be iron ore or silicate ore.
[0024] The present invention provides a water circuit system and a mineral water purifier. The upstream of the mineralization filter element has a heating device, which can heat the water to a set range before it enters the mineralization filter element for mineralization. This avoids scale buildup inside the heating device, helps maintain the taste of drinking water, and ensures that the water contains minerals beneficial to human health, thus meeting people's high-end demand for health-friendly drinking water equipment. Attached Figure Description
[0025] Figure 1 A basic water circuit diagram of the water circuit system of the mineral water purifier provided in this embodiment of the utility model;
[0026] Figure 2 A schematic diagram of the water circuit of the mineral water purifier provided in this embodiment of the utility model;
[0027] Figure 3 A three-dimensional cross-sectional view of the filter element (upper and lower structure of the filter body) in the mineral water purifier provided in this embodiment of the utility model;
[0028] Figure 4 This is a three-dimensional cross-sectional view of the filter element (internal and external structure of the filter body) in the mineral water purifier provided in this embodiment of the utility model. Detailed Implementation
[0029] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.
[0030] It should be noted that the terms "setup" and "connection" should be interpreted broadly. For example, they can refer to direct setup or connection, or indirect setup or connection through centered components or centered structures.
[0031] Furthermore, in embodiments of this utility model, terms such as "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer" are used to indicate orientation or positional relationships based on the orientation or positional relationships shown in the accompanying drawings, or in a conventional placement or usage state. These terms are merely for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the structure, feature, device, or element referred to must have a specific orientation or positional relationship, nor that it must be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model. In the description of this utility model, unless otherwise stated, "multiple" means two or more.
[0032] The various specific technical features and embodiments described in the detailed embodiments can be combined in any suitable manner without contradiction. For example, different implementation methods can be formed by combining different specific technical features / embodiments. In order to avoid unnecessary repetition, the various possible combinations of the various specific technical features / embodiments in this utility model will not be described separately.
[0033] This utility model embodiment provides a water circuit system for a mineral spring water purifier, such as... Figure 1 As shown, the device includes a mineralizing filter element 300 and a heating device 200. The heating device 200 heats the water before it enters the mineralizing filter element 300. The mineralizing filter element 300 has a filter element inlet and a filter element outlet, and the heating device 200 has a heating inlet and a heating outlet. The heating outlet of the heating device 200 is connected to the filter element inlet of the mineralizing filter element 300 via a filter element inlet pipe 120. Alternatively, the heating outlet of the heating device 200 can be connected to the filter element inlet of the mineralizing filter element 300. In this way, the heating device 200 is located upstream of the mineralizing filter element 300, allowing the water to be heated to a set range before entering the mineralizing filter element 300 for mineralization. This prevents scale buildup inside the heating device 200 and helps maintain the taste of the drinking water. In specific applications, an inlet pipe 110 can be installed upstream of the heating device 200, and an outlet pipe 130 can be installed downstream of the mineralizing filter element 300. The inlet pipe 110 can be connected to the water purification pipe and is equipped with a control valve, and the outlet pipe 130 can be connected to a faucet.
[0034] This embodiment also provides a mineral water purifier, such as... Figure 2As shown, the water system includes the above-mentioned water system, which includes an inlet pipe 110 and an outlet pipe 130. The direction from the inlet pipe 110 to the outlet pipe 130 is from upstream to downstream. The heating device 200 and the mineralizing filter element 300 are connected between the inlet pipe 110 and the outlet pipe 130. The mineralizing filter element 300 is located downstream of the heating device 200. The heating device 200 is located upstream of the mineralizing filter element 300. The water can be boiled (or heated to a set temperature) before entering the mineralizing filter element 300 for mineralization, so as to avoid scale buildup in the heating device 200 and the inside of the water system, and to help maintain the taste of drinking water.
[0035] Specifically, the water system further includes an inlet diversion valve 180, which is located upstream of the heating device 200. The inlet diversion valve 180 is connected to a first diversion pipe 181 and a second diversion pipe 182. The first diversion pipe 181 is connected to the heating device 200, and the second diversion pipe 182 is connected to the inlet end of the mineralizing filter element 300. Alternatively, the second diversion pipe 182 can be selectively connected downstream of the mineralizing filter element 300, i.e., the first diversion pipe 181 is connected to the heating device 200, and the heating device 200 and the mineralizing filter element 300 are connected in series. The first water distribution pipe 181 and the second water distribution pipe 182 are connected in parallel with the heating device 200. In specific applications, one end of the second water distribution pipe 182 is connected to the inlet diversion valve 180, and the other end can be connected to the water inlet of the mineralizing filter element 300. When the user does not need hot water, the water flow can be switched entirely to the second water distribution pipe 182, so that room temperature water flows through the mineralizing filter element 300 for mineralization. Of course, the water flow can also be partially switched to the second water distribution pipe 182, so that room temperature water flows through the mineralizing filter element 300 for mineralization, and is mixed with the mineralized water from the heating device 200 and the mineralizing filter element 300 to adjust to the required temperature of mineralized water. In this way, one end of the second water distribution pipe 182 is connected to the inlet water distribution valve 180, and the other end can be connected to the water outlet of the mineralization filter element 300 or its downstream. When the user does not need to drink hot water, a certain amount of water can be switched to the second water distribution pipe 182 so that the room temperature water flow and the mineralized hot water passing through the mineralization filter element 300 are mixed to obtain mineralized water at the required temperature.
[0036] Specifically, the water inlet pipe 110 is equipped with a first water inlet valve 111, which is used to control the on / off state and / or flow rate of the water inlet.
[0037] Specifically, the mineral water purifier includes a pre-filter component 400, with a first inlet valve 111 located upstream of the pre-filter component 400. The inlet pipe 110 is connected to the inlet end of the pre-filter component 400, and the heating device 200 is located downstream of the outlet end of the pre-filter component 400. The pre-filter component 400 may include an RO membrane filter element, which can be integrated into the mineral water purifier. Alternatively, the pre-filter component 400 may include a composite filter element, which can be located upstream of the RO membrane filter element.
[0038] Specifically, the outlet of the pre-filter component 400 is connected to the inlet diversion valve 180 via a purified water pipe 170. The purified water pipe 170 is equipped with a second inlet valve 171 and a flow sensor 172 to control the incoming water and detect the flow rate. The flow sensor can be electrically connected to the control module, and the control module can be electrically connected to the heating device 200. In specific applications, the heating device 200 can be an instant heater (e.g., an electric heating element, an electromagnetic heater, a thick film heater, etc.). Alternatively, the heating device 200 can also be a hot water tank that can hold a certain amount of hot water. A heater 210 can be installed inside the tank to heat the water to a set temperature. The hot water in the tank can flow through the mineralization filter element 300.
[0039] Specifically, the outlet end of the pre-filter component 400 is connected to a return pipe 140, which may be equipped with a return control valve 141. The outlet end of the pre-filter component 400 is also equipped with a wastewater discharge pipe 150, which may be equipped with a wastewater discharge valve 151 to discharge wastewater as needed. The return pipe 140 is connected to the inlet end of the pre-filter component 400; the return pipe 140 is connected to a first TDS sensor 142; the purified water pipe 170 is connected to a first temperature sensor 173 to obtain the temperature of the purified water pipe 170; and the outlet pipe 130 is connected to a second TDS sensor 131 and a second temperature sensor 132 to obtain the TDS value and temperature of the outlet water. In practical applications, a TDS sensor can also be installed in the water purification pipeline 170. By installing TDS sensors upstream and downstream of the mineralization filter element 300, the mineralization performance of the mineralization filter element 300 can be directly reflected. In practical applications, a temperature sensor (NTC sensor) can also be installed in the return pipeline 140.
[0040] In this embodiment, the heating device 200 includes a hot tank and a heater 210. The heater 210 is located in or outside the hot tank. The hot tank can hold a certain amount of hot water to meet the demand for large-flow hot water output. In specific applications, the heating device 200 may also include an instantaneous heater 210 located downstream of the hot tank for secondary heating of the water flowing out of the hot tank. When the temperature of the hot water in the hot tank drops during continuous large-flow water output, the water temperature can be raised to a set range by the series-connected instantaneous heater 210 before entering the mineralization filter element 300 for mineralization. The structure and quantity of the heating device 200 can be set according to actual conditions. The hot tank may be connected to a temperature sensor and a temperature control module, which can be connected to the heater 210. The heater 210 can be disconnected when the temperature inside the hot tank is too high, ensuring good safety and reliability. A temperature sensor may be installed between the heating device 200 and the mineralization filter element 300.
[0041] Specifically, one mineralizing filter element 300 is provided; or, at least two mineralizing filter elements 300 are provided, with at least two mineralizing filter elements 300 connected in parallel, and the heating device 200 is provided upstream of one of the mineralizing filter elements 300. In this way, hot water and room temperature water can flow through the two mineralizing filter elements 300 respectively to meet the user's needs for hot mineral water and room temperature mineral water.
[0042] Specifically, the mineralized filter element 300 may include a housing 210, a first filter body 110, and a second filter body 120; the first filter body 110 and the second filter body 120 are either integrally formed or separately arranged (e.g., Figure 3 (as shown), or, the first filter body 110 and the second filter body 120 are either integrally formed inside and out or separately formed inside and out (as shown). Figure 4 (As shown). Of course, the first filter body 110 and the second filter body 120 can also be combined in other ways. A series water passage can be provided inside the housing 210, with the water flowing through the first filter body 110 and the second filter body 120 sequentially. Alternatively, a parallel water passage can be provided inside the housing 210, with the water flowing through the first filter body 110 and the second filter body 120 respectively.
[0043] Specifically, as a first optional combination scheme for the mineralizing filter element 300, the first filter body 110 is a mineralizing filter material capable of dissolving minerals, and the second filter body 120 is a promoting filter material used to facilitate the dissolution of minerals from the mineralizing filter material. The water in the filter element can first pass through the promoting filter material and then through the mineralizing filter material; that is, the water flow can also first pass through the second filter body 120 and then through the first filter body 110. This promotes the dissolution of minerals in the mineralizing filter material, resulting in a faster dissolution rate that can meet the needs of users with high-flow-rate water usage. In other words, even at high flow rates, the mineral content can still meet national or industry standards, avoiding insufficient mineral dissolution leading to low mineral content. In specific applications, the promoting filter material can also be selectively connected in series upstream of the mineralizing filter material. Of course, the first filter body 110 and the second filter body 120 can be arranged in the same cavity. The water can pass through the second filter body 120 and the first filter body 110 sequentially (i.e., the filter bodies are connected in series), or the water can pass through the second filter body 120 and the first filter body 110 separately (i.e., the filter bodies are connected in parallel) to meet different usage requirements. In specific applications, the first filter body 110 is a mineralized filter material containing calcium and / or magnesium, and the second filter body 120 is an acidic filter material. The second filter body 120 includes weakly acidic ore or is a weakly acidic ore, and the first filter body 110 includes ore rich in calcium and magnesium. The acidic substances dissolved from the second filter body 120 can promote the dissolution of calcium and magnesium elements from the first filter body 110.
[0044] Alternatively, as a second optional combination of the mineralizing filter element 300, the first filter element 110 is a mineralizing filter material that can dissolve minerals, and the second filter element 120 is an anti-antagonistic filter material that can inhibit the dissolution of minerals from the mineralizing filter material. That is, the second filter element 120 can dissolve an anti-antagonistic substance used to inhibit the precipitation of minerals in the first filter element 110. In some scenarios, when the filter elements are in a soaking state, the dissolution of certain minerals may exceed the set standards, which is detrimental to health if consumed directly. This combination solution, by setting an anti-antagonistic filter material, allows the anti-antagonistic filter material to inhibit the dissolution of minerals from the mineralizing filter material, thereby preventing the mineral content from exceeding the corresponding safety standards. The first filter element 110 and the second filter element 120 can be disposed in the same cavity, with the first filter element 110 positioned above the second filter element 120. When the filter element is immersed, due to the presence of gas (trapped gas) within the filter element, the first filter element 110 is not completely immersed; that is, the liquid level in the filter cartridge may not completely submerge the first filter element 110, thus reducing the dissolution of minerals in the first filter element 110 during immersion. Furthermore, the second filter element 120 can be completely immersed below the liquid surface, allowing for more thorough dissolution of its antagonistic substances and effectively inhibiting the dissolution of minerals in the first filter element 110. In specific applications, the first filter element 110 is a weakly alkaline filter material, and the second filter element 120 is a strongly alkaline filter material. The relative alkalinity between the weakly and strongly alkaline filter materials is a relative concept, meaning the alkalinity of the second filter element 120 is higher than that of the first filter element 110. In specific applications, strongly alkaline filter media (made of strongly alkaline materials), such as brucite, with the chemical composition Mg(OH)2, can directly release (dissolve) OH- in water. - (Reaction a: Mg(OH)2=Mg) 2+ +2OH - This increases the alkalinity of the water, while weakly alkaline filter media (made of weakly alkaline materials), such as calcite, whose chemical composition is CaCO3, need to release CO3 into the water first. 2- (Reaction b: CaCO3 = Ca) 2+ +CO3 2- Then CO3 2- It undergoes a hydrolysis reaction with H2O to produce OH- - (reaction c: Strongly alkaline materials can produce OH- in just one reaction step. - Weakly basic materials require two steps of reaction to obtain OH. - Furthermore, the rate of reaction c is much lower than the rate of reaction a, therefore the strongly alkaline material preferentially releases OH-. - Reaction c is a reversible reaction. When reaction a occurs preferentially, the chemical equilibrium of reaction c shifts to the left. Therefore, strongly basic materials can suppress the OH- of weakly basic materials. -Release. In this combination, strong alkaline materials and weak alkaline materials can be assembled in the same filter element. The inhibitory effect of the strong alkaline material on the weak alkaline material can be utilized. During the entire service life of the filter element, the strong alkaline material releases OH- in the early stage. - In the middle and later stages, it releases OH- along with weakly alkaline materials. - The two can work synergistically to greatly extend the lifespan of the filter element, thus achieving a longer filter element lifespan. In specific applications, one, two, or more strongly alkaline filter elements and weakly alkaline filter elements can be respectively set. Of course, they can also be combined with moderately alkaline materials, that is, two or more alkaline filter elements can be set along the axial direction of the filter element. For example, a first alkaline filter element, a second alkaline filter element, and a third alkaline filter element can be set from top to bottom along the axial direction. The alkalinity of the first alkaline filter element is greater than that of the second alkaline filter element, and the alkalinity of the second alkaline filter element is greater than that of the third alkaline filter element. Alternatively, in specific applications, the first filter element 110 is a zinc mineralized filter material or a copper mineralized filter material, that is, the first filter element 110 is a zinc-containing and / or copper-containing mineralized filter material, and the second filter element 120 is an alkaline filter material. The alkaline substances dissolved in the second filter element 120 (alkaline filter material) can inhibit the precipitation of zinc and copper elements in the first filter element 110. Specifically, the dissolution reaction of zinc (containing zinc-containing materials, such as smithsonite) in water is: ZnCO3 = Zn 2+ +CO3 2- Under normal conditions (pure water obtained after RO membrane filtration), Zn 2+ The saturated solubility of Zn in water can reach 6.0 mg / L, far exceeding the national standard limit of 1.0 mg / L; when the water quality remains unchanged, Zn 2+ and CO3 2- It is released simultaneously, releasing CO3. 2- By controlling the concentration of Zn to the lowest possible level, 2+ The saturated precipitation concentration is controlled to the lowest level; from H2CO3-HCO3 - -CO3 2- The equilibrium diagram in water shows that when the pH value (approximately) is 8.3, CO3... 2- The concentration of Zn is at its lowest level, at which point... 2+ The concentration of Zn in the soaking water was also at the lowest level, theoretically calculated to be 0.36 mg / L, which meets the standard limit; that is, by adjusting the pH of the water soaked in the zinc-containing filter to around 8.3, the Zn concentration can be reduced. 2+ The concentration is precisely controlled between 0.2-1.0 mg / L.
[0045] Alternatively, as a third optional combination of the mineralizing filter element 300, the first filter element 110 is a mineralizing filter material for adjusting the pH value of the water, and the second filter element 120 is a neutralizing filter material for neutralizing the pH value of the water. The mineralizing filter material of the first filter element 110 can raise the pH value of the water; in specific applications, the pH value of the water can be adjusted by the water flow rate. The second filter element 120 is used to neutralize the pH value of the water, such as... Figure 2 , Figure 3 As shown, the first filter body 110 and the second filter body 120 can be connected in parallel in the water circuit. By adjusting the water flow of the first filter body 110 and the second filter body 120 respectively, the pH value of the overall effluent can be stabilized within the set pH range (generally 7.0 to 9.0).
[0046] In specific applications, as a fourth optional combination scheme for the mineralized filter element 300, the first filter body 110 is a first mineralized filter material that can dissolve a first mineral, and the second filter body 120 is a second mineralized filter material that can dissolve a second mineral. The first and second mineralized filter materials are used in combination to provide different minerals. Of course, a third or fourth mineralized filter body can also be set to form a filter element structure with richer minerals. In this combination, a filter element rich in minerals can be formed. Through the combination and matching of various filter bodies, the high-end demand of users for healthy drinking water can be better met. Moreover, the one-piece molded filter body is easier to assemble, reduces the use of adhesives, and is healthier and more environmentally friendly.
[0047] In specific applications, as the fifth optional combination scheme of the mineralized filter element 300, the first filter body 110 is a first mineralized filter material that can dissolve the first mineral, and the second filter body 120 is a non-mineralized filter material, that is, the second filter body 120 can be a pure carbon rod or a ceramic filter body, etc., used to adsorb larger impurities and remove odors. It can be integrally formed or fixedly connected with the first filter body 110, so that the functions of mineralizing water quality and adsorbing and removing odors can be realized simultaneously in the same filter element.
[0048] In specific applications, the first filter body 110 is a mineralized filter material containing calcium and / or magnesium, and the second filter body 120 is an alkaline filter material. In specific applications, the second filter body 120 contains alkaline minerals with different contents, and the first filter body 110 contains minerals with different contents of calcium and magnesium. The first water flow channel entering the filter element flows through the first alkaline mineral of the second filter body 120 and the first filter body 110, and the second water flow channel entering the filter element flows through the second alkaline mineral of the second filter body 120 and the first filter body 110. The concentration of different mineralized elements precipitated can be adjusted by different flow rates in the first water flow channel and the second water flow channel.
[0049] In specific applications, the first filter body 110 includes at least one of brucite and sepiolite; the second filter body 120 includes at least one of calcite and brucite.
[0050] Alternatively, the first filter body 110 may include at least one of smithsonite and malachite; the second filter body 120 may include at least one of brucite, sepiolite, calcite, and brucite.
[0051] Alternatively, the first filter body 110 may include at least one of amphibole, magnesia ore, and dolomite; and the second filter body 120 may include at least one of brucite, sepiolite, calcite, and brucite.
[0052] Alternatively, the first filter body 110 may include at least one of amphibole, magnesium ore, and dolomite; and the second filter body 120 may include at least one of iron ore and silicate ore.
[0053] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions or improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.
Claims
1. A waterway system of a mineral spring mineralization water purifier, characterized in that, It includes a mineralizing filter element and a heating device, wherein the heating device is used to heat the water before it enters the mineralizing filter element; The mineralizing filter element has a filter element inlet and a filter element outlet, and the heating device has a heating inlet and a heating outlet. The heating outlet of the heating device is connected to the filter element inlet of the mineralizing filter element through a filter element inlet pipe; or, the heating outlet of the heating device is connected to the filter element inlet of the mineralizing filter element.
2. A mineral spring mineralization water purifier, characterized in that, The mineral water purifier includes the water system as described in claim 1, the water system includes an inlet pipe and an outlet pipe, the direction from the inlet pipe to the outlet pipe is upstream to downstream, the heating device and the mineralization filter are connected between the inlet pipe and the outlet pipe, and the mineralization filter is located downstream of the heating device.
3. A mineral water mineralizer water purifier as claimed in claim 2, wherein, The water system also includes an inlet diversion valve located upstream of the heating device. The inlet diversion valve is connected to a first diversion pipe and a second diversion pipe. The first diversion pipe is connected to the heating device, and the second diversion pipe is connected to the water inlet end of the mineralization filter element, or the second diversion pipe is connected downstream of the mineralization filter element.
4. A mineral water mineralizer water purifier as claimed in claim 2, wherein, The water inlet pipeline is equipped with a first water inlet valve.
5. A mineral water mineralizer water purifier as claimed in claim 3, wherein, The mineral water purifier includes a pre-filter component, the inlet pipe is connected to the inlet end of the pre-filter component, and the heating device is located downstream of the outlet end of the pre-filter component.
6. A mineral water mineralizing water purifier as claimed in claim 5, wherein, The outlet of the pre-filter is connected to the inlet diversion valve via a purified water pipeline, and the purified water pipeline is equipped with a second inlet valve and a flow sensor. The outlet of the pre-filter is connected to a return pipe, which is connected to the inlet of the pre-filter. The return pipeline is connected to a first TDS sensor; The purified water pipeline is connected to a first temperature sensor; The water outlet pipe is connected to a second TDS sensor and a second temperature sensor. The pre-filter component is equipped with a wastewater discharge pipe at its outlet.
7. A mineral water mineralizer water purifier as claimed in claim 2, wherein, The heating device includes a hot tank and a heater, wherein the heater is disposed in or outside the hot tank.
8. A mineral water purifier as described in any one of claims 2 to 7, characterized in that, The mineralized filter element is provided with one; Alternatively, at least two mineralizing filter elements may be provided, with the at least two mineralizing filter elements connected in parallel, and the heating device may be provided upstream of one of the mineralizing filter elements.
9. A mineral water mineralizing water purifier as claimed in any one of claims 2 to 7, characterized in that, The mineralized filter element includes a first filter body and a second filter body; the first filter body and the second filter body are integrally formed or separately formed, or the first filter body and the second filter body are integrally formed or separately formed.
10. A mineral water mineralizer water purifier as claimed in claim 9, wherein, The first filter element is brucite or sepiolite; the second filter element is calcite or brucite. Alternatively, the first filter material may be smithsonite or malachite; the second filter material may be brucite, sepiolite, or calcite. Alternatively, the first filter material may be amphibole, magnesia ore, or dolomite; the second filter material may be brucite, sepiolite, or calcite. Alternatively, the first filter material may be amphibole, magnesium ore, or dolomite; and the second filter material may be iron ore or silicate ore.