Man-machine interaction multi-PH value comprehensive water treatment equipment

Abstract

The utility model provides man-machine interaction multi-PH-value comprehensive water treatment equipment which comprises a shell, a water purifying assembly, a PH adjusting assembly and a control assembly, and the man-machine interaction multi-PH-value comprehensive water treatment equipment is communicated with the water purifying assembly by designing the PH adjusting assembly. The PH adjusting assembly can adjust the PH value of the purified drinking water according to a preset PH value range or specific requirements of users through specific technical means (such as regulator adding, ion exchange, electrolysis and the like), so that the equipment can produce the drinking water meeting the specific PH value requirement.

Description

Technical Field

[0001] This application relates to the field of water treatment equipment, and more particularly to a human-computer interactive multi-pH integrated water treatment device. Background Technology

[0002] In the current water treatment technology field, the main functions of water treatment equipment are usually focused on purifying water, removing impurities and harmful substances, and improving the taste of water. However, with the increasing demands for drinking water quality and the specific requirements for pH levels in certain application scenarios, traditional water treatment equipment has gradually shown its limitations.

[0003] Specifically, most existing water treatment equipment only has a single water purification function, that is, removing impurities such as suspended solids, organic matter, and heavy metals from water through physical or chemical methods, thereby improving the cleanliness and safety of the water. However, these devices often neglect the important indicator of drinking water's acidity or alkalinity (pH value) during the treatment process. In fact, the pH value of drinking water not only affects the taste and flavor of the water, but also directly affects its effectiveness in specific usage environments.

[0004] For example, in the process of decocting traditional Chinese medicine, water with different pH values ​​has a significant impact on the dissolution and extraction of medicinal components. Studies have shown that using weakly alkaline water to decoct traditional Chinese medicine can better preserve the effective components in the herbs, improve efficacy, and thus enhance therapeutic effects. However, because existing water treatment equipment lacks the function of adjusting pH value, users often find it difficult to obtain drinking water that meets their specific needs, which to some extent limits the application scope and effectiveness of water treatment equipment.

[0005] Therefore, in order to meet the needs of adjusting the pH value of drinking water in specific application scenarios, it is particularly important to develop a water treatment device that can comprehensively treat water quality and flexibly adjust the pH value. Utility Model Content

[0006] In view of this, it is necessary to provide a human-computer interactive multi-pH integrated water treatment device to solve the above problems.

[0007] Embodiments of this application provide a human-computer interactive multi-pH integrated water treatment device, comprising:

[0008] case;

[0009] A water purification component is disposed inside the housing and is connected to the original water source. The original water is converted into drinking water after flowing through the water purification component.

[0010] A pH adjustment component is disposed inside the housing and is connected to the water purification component. The pH adjustment component is used to change the pH value of drinking water.

[0011] A control component is located inside the housing, and both the water purification component and the pH adjustment component are electrically connected to the control component.

[0012] In at least one embodiment of this application, the pH adjusting component includes:

[0013] The first molecular tube is connected to the water purification component and is used to adjust the pH value of the drinking water flowing through the first molecular tube to 7.5.

[0014] The second molecular tube is connected to the water purification component and is used to adjust the pH value of the drinking water flowing through the second molecular tube to 8.5.

[0015] In at least one embodiment of this application, the pH adjustment component further includes:

[0016] An electrically controlled valve is disposed between the first molecular tube and the water purification component, and the electrically controlled valve is electrically connected to the control component. The pH adjustment component allows the electrically controlled valve to cut off or open the connection between the first molecular tube and the water purification component.

[0017] The electrically controlled valve is simultaneously located between the second molecular tube and the water purification component, and the pH adjustment component allows the electrically controlled valve to cut off or open the connection between the second molecular tube and the water purification component.

[0018] In at least one embodiment of this application, the pH adjustment component has a plurality of first molecular tubes connected in series.

[0019] In at least one embodiment of this application, the pH adjustment component has a plurality of second molecular tubes connected in series.

[0020] In at least one embodiment of this application, the human-computer interactive multi-pH integrated water treatment device further includes:

[0021] The water storage component is connected to both the first molecular tube and the second molecular tube. The human-machine interactive multi-pH integrated water treatment equipment allows the water storage component to simultaneously store drinking water with a pH of 7.5 and drinking water with a pH of 8.5.

[0022] In at least one embodiment of this application, the water storage component includes:

[0023] The first water tank is connected to the first molecular tube and is used to store drinking water with a pH of 7.5.

[0024] The second water tank is connected to the second molecular tube and is used to store drinking water with a pH of 8.5.

[0025] In at least one embodiment of this application, the water purification component includes multiple water purification tanks, which are connected in series, and the raw water is converted into drinking water after flowing through the multiple water purification tanks;

[0026] The human-computer interactive multi-pH integrated water treatment equipment also includes a glass window, which is located on the housing, allowing light to pass through the glass window to enter or leave the housing.

[0027] In at least one embodiment of this application, a water intake component is provided on the housing, the water intake component is simultaneously connected to the first water tank and the second water tank, the water intake component is electrically connected to the control component, and the human-machine interactive multi-pH integrated water treatment device allows the water intake component to take water from the first water tank or the second water tank.

[0028] In at least one embodiment of this application, the human-computer interactive multi-pH integrated water treatment device further includes:

[0029] A heating assembly is disposed within the housing and is electrically connected to the control assembly;

[0030] The heating assembly is activated when the temperature inside the housing is below zero degrees Celsius.

[0031] The aforementioned human-computer interactive multi-pH integrated water treatment equipment is designed with a pH adjustment component connected to the water purification component. The pH adjustment component, through specific technical means (such as adding regulators, ion exchange, electrolysis, etc.), can adjust the pH of the purified drinking water according to a preset pH range or the user's specific needs, enabling the equipment to produce drinking water that meets specific pH requirements. Attached Figure Description

[0032] Figure 1 A three-dimensional structural diagram of a human-computer interactive multi-pH integrated water treatment equipment;

[0033] Figure 2 A 3D view of the structure behind the glass window of the human-computer interactive multi-pH integrated water treatment equipment;

[0034] Figure 3 A 3D view of the structure behind the glass window of the human-computer interactive multi-pH integrated water treatment equipment;

[0035] Figure 4 An exploded view of the structure behind the glass window of the human-computer interactive multi-pH integrated water treatment equipment;

[0036] Figure 5 An exploded view of the structure behind the glass window of the human-computer interactive multi-pH integrated water treatment equipment;

[0037] Figure 6 A three-dimensional view of the structure when the water purification component, pH adjustment component, and water storage component are connected together;

[0038] Figure 7 This is a structural block diagram illustrating the connection relationships between the water purification component, pH adjustment component, water storage component, and control component;

[0039] Figure 8 This is a structural block diagram of the pH adjustment component.

[0040] Explanation of main component symbols

[0041] 100. Human-machine interactive multi-pH integrated water treatment equipment; 1. Shell; 2. Water purification component; 21. Water purification tank; 3. pH adjustment component; 31. First molecular tube; 32. Second molecular tube; 33. Electrically controlled valve; 4. Control component; 5. Water storage component; 51. First water tank; 52. Second water tank; 6. Water intake component; 7. Glass window; 8. Heating component. Detailed Implementation

[0042] The embodiments of this application will now be described with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments.

[0043] It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or may also have an intervening component. When a component is considered to be "placed" on another component, it can be directly placed on the other component or may also have an intervening component. The terms "top," "bottom," "upper," "lower," "left," "right," "front," "back," and similar expressions used in this article are for illustrative purposes only.

[0044] Embodiments of this application provide a human-computer interactive multi-pH integrated water treatment device, comprising:

[0045] case;

[0046] A water purification component is disposed inside the housing and is connected to the original water source. The original water is converted into drinking water after flowing through the water purification component.

[0047] A pH adjustment component is disposed inside the housing and is connected to the water purification component. The pH adjustment component is used to change the pH value of drinking water.

[0048] A control component is housed within the housing, and both the water purification component and the pH adjustment component are electrically connected to the control component. The aforementioned human-machine interface multi-pH integrated water treatment equipment is designed with a pH adjustment component connected to the water purification component. The pH adjustment component, through specific technical means (such as adding regulators, ion exchange, electrolysis, etc.), can adjust the pH of the purified drinking water according to a preset pH range or the user's specific needs, enabling the equipment to produce drinking water that meets specific pH requirements.

[0049] The following detailed description of some embodiments of this application is provided in conjunction with the accompanying drawings. Unless otherwise specified, the following embodiments and features can be combined with each other.

[0050] Please see Figures 1-8 This application provides an embodiment of a human-computer interactive multi-pH integrated water treatment device 100, comprising:

[0051] Casing 1;

[0052] Water purification component 2 is disposed inside the housing 1. The water purification component 2 is connected to the original water source. After the original water flows through the water purification component 2, it is converted into drinking water.

[0053] A pH adjustment component 3 is disposed inside the housing 1. The pH adjustment component 3 is connected to the water purification component 2. The pH adjustment component 3 is used to change the pH value of drinking water.

[0054] The control component 4 is located inside the housing 1, and the water purification component 2 and the pH adjustment component 3 are both electrically connected to the control component 4.

[0055] Specifically, the housing 1 is the protective shell of the entire device, used to house and protect key components such as the water purification component 2, pH adjustment component 3, and control component 4. It provides a closed and safe working environment, preventing external pollution and interference. The water purification component 2 is connected to the raw water source and is responsible for purifying the raw water (such as tap water or well water) to remove impurities and harmful substances, thus transforming it into drinking water that meets drinking water standards. Raw water enters the water purification component 2 through the inlet pipe, undergoes multiple layers of filtration and adsorption processes, and finally outputs purified drinking water. The pH adjustment component 3 is connected to the water purification component 2 and is responsible for changing the pH value of the drinking water to meet the specific needs of different users, providing diverse drinking water options to satisfy the tastes and health needs of different groups. The purified drinking water enters the pH adjustment component 3, where, through specific chemical reactions or physical treatments, the pH value of the drinking water is adjusted to a set range (such as 7.5 or 8.5), applicable to health and wellness, treatment of specific diseases (such as excessive or insufficient stomach acid), and beauty and skincare. Control component 4 is the "brain" of the entire device, responsible for receiving user commands, monitoring device status, and controlling the operation of water purification component 2 and pH adjustment component 3, thus achieving intelligent and automated control of the device. Users input commands through a human-machine interface (such as a touchscreen or buttons). After receiving the commands, control component 4 controls water purification component 2 and pH adjustment component 3 to perform corresponding operations according to preset programs and algorithms. Simultaneously, control component 4 is also responsible for monitoring parameters such as temperature, pressure, and water quality inside the device to ensure its normal operation and safety.

[0056] In one specific example, the pH adjustment component 3 includes:

[0057] The first molecular tube 31 is connected to the water purification component 2. The first molecular tube 31 is used to adjust the pH value of the drinking water flowing through the first molecular tube 31 to 7.5.

[0058] The second molecular tube 32 is connected to the water purification component 2, and the second molecular tube 32 is used to adjust the pH value of the drinking water flowing through the second molecular tube 32 to 8.5.

[0059] Specifically, the first molecular tube 31 is directly connected to the water purification component 2, ensuring that the purified drinking water can smoothly enter the first molecular tube 31 for pH adjustment. The first molecular tube 31 contains a specific pH adjusting medium or chemical reactant, which reacts with the flowing drinking water to precisely adjust its pH to 7.5. When the purified drinking water enters the first molecular tube 31, it comes into contact with and reacts with the pH adjusting medium inside the tube. These media may be acid-base neutralizers, ion exchange resins, or other chemical substances that can alter water quality. By precisely controlling the type and quantity of the medium, as well as the residence time and flow rate of the water in the tube, the first molecular tube 31 can stably adjust the pH of the drinking water to 7.5, meeting the needs of some users for slightly alkaline water. Similar to the first molecular tube 31, the second molecular tube 32 is also directly connected to the water purification component 2, ensuring that the purified drinking water can enter the second molecular tube 32 for pH adjustment. Unlike the first molecular tube 31, the second molecular tube 32 contains a pH adjusting medium or chemical reactant that can adjust the pH of drinking water to 8.5, meeting users' needs for higher pH drinking water. The working principle of the second molecular tube 32 is similar to that of the first molecular tube 31, but the pH adjusting medium and process may differ. When purified drinking water enters the second molecular tube 32, it reacts with a specific medium inside the tube, thereby changing its pH value. Through precise design of the medium and adjustment process, the second molecular tube 32 can stably raise the pH of drinking water to 8.5, making it suitable for applications requiring more alkaline water.

[0060] In one specific example, the pH adjustment component 3 further includes:

[0061] An electrically controlled valve 33 is disposed between the first molecular tube 31 and the water purification component 2, and the electrically controlled valve 33 is electrically connected to the control component 4. The pH adjustment component 3 allows the electrically controlled valve 33 to cut off or open the connection between the first molecular tube 31 and the water purification component 2.

[0062] The electrically controlled valve 33 is simultaneously disposed between the second molecular tube 32 and the water purification component 2, and the pH adjustment component 3 allows the electrically controlled valve 33 to cut off or open the connection between the second molecular tube 32 and the water purification component 2.

[0063] Specifically, the electrically controlled valve 33 is an electrically controlled valve that can be opened and closed by electromagnetic force. This electrically controlled valve 33 is cleverly positioned in two key locations: one is on the pipeline between the first molecular tube 31 and the water purification component 2, and the other is on the pipeline between the second molecular tube 32 and the water purification component 2. This design allows the electrically controlled valve 33 to simultaneously control two different pH adjustment paths. The main function of the electrically controlled valve 33 is as a switch, controlling whether purified drinking water flows into the first molecular tube 31 or the second molecular tube 32. When the electrically controlled valve 33 is open, drinking water can smoothly flow into the corresponding molecular tube for pH adjustment; when the electrically controlled valve 33 is closed, the path is cut off, and drinking water will not enter the molecular tube. The operating state of the electrically controlled valve 33 is controlled by the control component 4 via electrical signals. When the control component 4 receives a user command or determines according to a preset program that the pH value of the drinking water needs to be adjusted, it sends an opening or closing electrical signal to the electrically controlled valve 33. Upon receiving a signal, the electromagnet inside the solenoid valve 33 generates magnetic force, attracting or releasing the valve core, thereby changing the valve's opening state. The design of the solenoid valve 33 allows users or equipment to flexibly control the pH adjustment path of drinking water according to actual needs. For example, when a user needs weakly alkaline water, the solenoid valve 33 leading to the first molecular tube 31 can be opened; when a user needs stronger alkaline water, the solenoid valve 33 leading to the second molecular tube 32 can be opened. By precisely controlling the opening and closing of the solenoid valve 33, the equipment can avoid unnecessary energy consumption and waste. When pH adjustment is not required, the solenoid valve 33 can be closed, thereby saving energy and extending the equipment's lifespan. Precise control of the solenoid valve 33 also ensures the safe operation of the equipment. For example, in the event of a malfunction or abnormal situation, the control component 4 can quickly close the solenoid valve 33 to prevent drinking water from continuing to flow into the potentially problematic molecular tube, thus protecting the user's drinking water safety.

[0064] In one specific example, the pH adjustment component 3 has a plurality of first molecular tubes 31 connected in series.

[0065] Specifically, in the pH adjustment component 3, multiple first molecular tubes 31 are connected together via pipes to form a series adjustment system. Each molecular tube contains a specific pH adjustment medium or chemical reactant to adjust the flowing drinking water to a specific pH range. When purified drinking water enters this series system, it flows sequentially through each first molecular tube 31. Within each molecular tube, the drinking water reacts with the pH adjustment medium, gradually changing its pH value. By using multiple first molecular tubes 31 in series, the device can more precisely adjust the pH value of the drinking water. Each molecular tube can make minute adjustments to the pH value of the drinking water; the combined action of multiple molecular tubes achieves more refined pH adjustment. The series structure allows users to flexibly configure the number and type of molecular tubes according to actual needs. For example, when a user requires drinking water with a specific pH value, they can meet the requirement by increasing or decreasing the number of molecular tubes or replacing molecular tubes with different pH adjustment media. The series use of multiple first molecular tubes 31 also provides multiple safeguards. Even if one molecular tube malfunctions or fails, the other molecular tubes can continue to operate, ensuring that the pH value of the drinking water is adjusted. This design improves the reliability and stability of the equipment.

[0066] In one specific example, the pH adjustment component 3 has a plurality of second molecular tubes 32 connected in series.

[0067] Specifically, in the pH adjustment component 3, multiple second molecular tubes 32 are connected sequentially via pipes to form a series adjustment link. Each second molecular tube 32 contains a specific pH adjustment medium that reacts with the flowing drinking water to change its pH value. When purified drinking water enters this series system, it flows through each second molecular tube 32 in a predetermined order. Within each molecular tube, the drinking water fully contacts and reacts with the pH adjustment medium, gradually adjusting its pH value until it reaches the user-set target value. By using multiple second molecular tubes 32 in series, the device can achieve a wider and more precise adjustment of the drinking water's pH value. Each molecular tube can adjust the pH value of the drinking water to a certain extent; the combined effect of multiple molecular tubes can cover a wider pH range, meeting the needs of more users. The series structure allows each second molecular tube 32 to fine-tune the drinking water after the previous stage of adjustment, thereby achieving more precise pH control. This progressive and gradually approximating adjustment method helps improve the overall system's adjustment accuracy and stability. Compared to a single second molecular tube 32, multiple second molecular tubes 32 connected in series offer more configuration options. Users can select different numbers of molecular tubes with different pH adjustment media to combine according to actual needs to achieve the best pH adjustment effect.

[0068] In a specific example, the human-computer interactive multi-pH integrated water treatment device 100 further includes:

[0069] The water storage component 5 is simultaneously connected to the first molecular tube 31 and the second molecular tube 32. The human-machine interactive multi-pH integrated water treatment device 100 allows the water storage component 5 to simultaneously store drinking water with a pH value of 7.5 and drinking water with a pH value of 8.5.

[0070] Specifically, the water storage component 5 typically consists of a storage tank, an inlet pipe, and an outlet pipe. The storage tank stores drinking water, while the inlet and outlet pipes are responsible for introducing treated drinking water into and removing it from the storage tank, respectively. In the human-machine interface multi-pH integrated water treatment device 100, the water storage component 5 is cleverly designed downstream of the first molecular tube 31 and the second molecular tube 32. This means that drinking water adjusted to pH 7.5 by the first molecular tube 31 and drinking water adjusted to pH 8.5 by the second molecular tube 32 can both flow smoothly into the water storage component 5 for storage. The design of the water storage component 5 allows it to store two different pH values ​​of drinking water simultaneously. This is usually achieved by dividing the interior of the storage tank into different areas or by using multiple independent storage tanks. Each area or tank can store drinking water with a specific pH value, ensuring that users can choose suitable drinking water according to their preferences and needs. During the storage of drinking water, the water storage component 5 also takes a series of measures to ensure water quality safety. For example, the water storage tank is typically made of food-grade materials to avoid contaminating drinking water; the inlet and outlet pipes are also equipped with filters and valves to prevent impurities and microorganisms from entering the storage tank. To facilitate users' access to drinking water with different pH levels, the water storage component 5 is usually equipped with an outlet pipe and a dispensing valve. Users can easily obtain drinking water with the desired pH level simply by opening the corresponding dispensing valve. The water storage component 5 can store drinking water with different pH levels simultaneously, providing users with more choices. Whether users prefer slightly alkaline or more alkaline water, they can find suitable drinking water on this device. Through the storage function of the water storage component 5, the device can utilize treated drinking water more efficiently. When users need drinking water with different pH levels, the device can quickly retrieve the corresponding drinking water from the water storage component 5 without reprocessing. The convenience and versatility of the water storage component 5 not only improves the practicality of the device but also enhances the user experience. Users can access the drinking water they need at any time according to their preferences and needs without worrying about water quality or waiting time.

[0071] In one specific example, the water storage component 5 includes:

[0072] The first water tank 51 is connected to the first molecular tube 31 and is used to store drinking water with a pH of 7.5.

[0073] The second water tank 52 is connected to the second molecular tube 32 and is used to store drinking water with a pH of 8.5.

[0074] Specifically, the first water tank 51 is a sealed container, typically made of food-grade materials, to ensure that the stored drinking water is not contaminated. It is equipped with an inlet pipe and an outlet pipe. The inlet pipe is connected to the first molecular tube 31 to receive drinking water that has been adjusted to a pH of 7.5 by the first molecular tube 31; the outlet pipe is used to supply the stored drinking water to the user. The main function of the first water tank 51 is to store drinking water with a pH of 7.5. When the equipment is running, the purified drinking water, after being adjusted by the first molecular tube 31, flows into the first water tank 51 for storage. Users can take the required amount of slightly alkaline drinking water from the first water tank 51 by operating the water dispensing device on the equipment. Similar to the first water tank 51, the second water tank 52 is also a sealed container, made of food-grade materials. It is also equipped with an inlet pipe and an outlet pipe, but the inlet pipe is connected to the second molecular tube 32 to receive drinking water that has been adjusted to a pH of 8.5 by the second molecular tube 32. The main function of the second water tank 52 is to store drinking water with a pH of 8.5. This strongly alkaline drinking water is suitable for specific needs, such as the preparation of certain health drinks or water used in specific processes. Similar to the first water tank 51, users can take the required amount of strongly alkaline drinking water from the second water tank 52 by operating the water dispensing device on the equipment.

[0075] In one specific example, the water purification component 2 includes multiple water purification tanks 21, which are connected in series. Raw water is converted into drinking water after flowing through the multiple water purification tanks 21.

[0076] Specifically, the water purification tank 21 is typically a sealed container filled with different types of purification media, such as activated carbon and ion exchange resins. These media remove impurities, residual chlorine, heavy metals, bacteria, viruses, and other harmful substances from the raw water while retaining beneficial minerals. Each water purification tank 21 performs a specific purification task. For example, the activated carbon tank is mainly used to adsorb residual chlorine, odors, and pigments from the raw water; the ion exchange resin tank is used to adjust the water hardness and remove specific ions. By connecting multiple water purification tanks 21 in series, the raw water can undergo multi-stage purification. Each stage of purification removes some harmful substances while retaining beneficial components, thus ensuring that the final drinking water is of higher quality and safer. The series-connected water purification tanks 21 can be flexibly configured according to actual needs. For example, depending on the content of specific pollutants in the water source, specific types of water purification tanks 21 can be added or removed to achieve the best purification effect. The series-connected water purification tanks 21 can fully utilize the capacity of each purification media, avoiding waste. At the same time, since each stage of purification is targeted at specific pollutants, the efficiency and specificity of the purification process can be ensured. When raw water enters the water purification unit 2, it first flows through the first purification tank 21. In this tank, the raw water comes into contact with and reacts with the purification medium, removing some harmful substances. Then, the preliminarily purified water continues to flow into the next purification tank 21 for more thorough purification. This process continues until the water flows through the last purification tank 21, completing all the predetermined purification steps. Finally, the water, after multi-stage purification, becomes high-quality drinking water for users.

[0077] In one specific example, a water intake component 6 is provided on the housing 1. The water intake component 6 is simultaneously connected to the first water tank 51 and the second water tank 52. The water intake component 6 is electrically connected to the control component 4. The human-machine interactive multi-pH integrated water treatment device 100 allows the water intake component 6 to take water from the first water tank 51 or the second water tank 52.

[0078] Specifically, the water intake assembly 6 typically includes a water intake valve, a water outlet, connecting pipes, and electronic control components. The water intake valve controls the opening and closing of the water flow, while the water outlet is the direct contact point for the user when taking water. The connecting pipes connect the water intake assembly 6 to the first water tank 51 and the second water tank 52, ensuring that water flows smoothly from the tanks to the user. The electronic control components receive signals from the control assembly 4 and control the opening and closing of the water intake valve. The water intake assembly 6 is usually installed on the housing 1 of the device for easy user operation. Its location is rationally designed, neither obstructing other user operations nor hindering easy access for the user when taking water. The water intake assembly 6 is connected to both the first water tank 51 and the second water tank 52, meaning that the user can choose to take water from either tank according to their needs. This design meets the diverse needs of users for drinking water with different pH values. The water intake assembly 6 is electrically connected to the control assembly 4, enabling the device to automatically adjust the state of the water intake valve according to user commands or preset programs. For example, when a user selects drinking water with a pH of 7.5, the control component 4 sends a signal to the water dispensing component 6, causing it to draw water from the first water tank 51; when the user selects drinking water with a pH of 8.5, the water dispensing component 6 will draw water from the second water tank 52. The operation of the water dispensing component 6 is typically very simple; the user only needs to input the desired drinking water type into the device's control panel or remote control, and the water dispensing component 6 will automatically complete the water dispensing operation. This design greatly improves the ease of use of the device and the user experience.

[0079] In a specific example, the human-computer interactive multi-pH integrated water treatment equipment 100 also includes:

[0080] A glass window 7 is provided on the housing 1, through which light enters or leaves the housing 1.

[0081] Specifically, the glass window 7 is typically made of transparent or semi-transparent materials, such as glass or acrylic. These materials have good light transmittance and corrosion resistance, ensuring smooth light transmission while protecting the internal components from external environmental damage. The glass window 7 is cleverly positioned on the equipment's housing 1, usually in a location easily observable by the user and without interfering with normal operation. This design aims to allow users to intuitively understand the internal operating status of the equipment, such as water level and water quality. The main function of the glass window 7 is to allow light to pass through the housing 1 into and out of the equipment. This helps improve internal lighting conditions, allowing users to more clearly observe the various components and their operating status. Simultaneously, light penetration also aids in ventilation and heat dissipation, extending the equipment's lifespan. As an observation window, the glass window 7 provides users with a direct way to understand the internal conditions of the equipment. Users can observe key information such as the water level in the tank, water clarity, and whether the equipment is operating normally through the glass window 7. This is crucial for routine maintenance and troubleshooting. The glass window 7 also protects the internal components of the equipment from external environmental factors such as dust and moisture, ensuring the stable operation of the equipment.

[0082] In a specific example, the heating element 8 is a key component of the equipment, used to control and regulate the internal temperature. The heating element 8 typically includes components such as a temperature sensor, heater, and cooler, capable of sensing the internal temperature and performing heating or cooling operations as needed. This means that the heating element 8 is installed inside the equipment's housing 1, working alongside other components. The housing 1 is the external structure of the equipment, protecting the internal components and providing necessary installation space. The heating element 8 communicates and is controlled by the control element 4 via electrical signals. The control element 4 is the "brain" of the equipment, responsible for receiving instructions from the operator and controlling the various components of the equipment accordingly. Therefore, the heating element 8 needs to be electrically connected to the control element 4 to receive instructions from it and execute corresponding temperature control operations. This is a specific operating condition for the heating element 8. When the internal temperature of the equipment drops below zero degrees Celsius, the heating element 8 automatically activates to prevent damage or performance degradation due to low temperatures. This is typically achieved through a heater, which raises the internal temperature of the equipment to ensure it operates within its normal operating range.

[0083] The above description is merely an embodiment of this application. It should be noted that those skilled in the art can make improvements without departing from the inventive concept of this application, but these improvements all fall within the protection scope of this application.

Claims

1. A human-computer interactive multi-pH integrated water treatment device, characterized in that, include: case; A water purification component is disposed inside the housing and is connected to the original water source. The original water is converted into drinking water after flowing through the water purification component. A pH adjustment component is disposed inside the housing and is connected to the water purification component. The pH adjustment component is used to change the pH value of drinking water. The pH adjustment component includes: The first molecular tube is connected to the water purification component and is used to adjust the pH value of the drinking water flowing through the first molecular tube to 7.

5. The second molecular tube is connected to the water purification component and is used to adjust the pH value of the drinking water flowing through the second molecular tube to 8.

5. A control component is located inside the housing, and both the water purification component and the pH adjustment component are electrically connected to the control component.

2. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The pH adjustment component also includes: An electrically controlled valve is disposed between the first molecular tube and the water purification component, and the electrically controlled valve is electrically connected to the control component. The pH adjustment component allows the electrically controlled valve to cut off or open the connection between the first molecular tube and the water purification component. The electrically controlled valve is simultaneously located between the second molecular tube and the water purification component, and the pH adjustment component allows the electrically controlled valve to cut off or open the connection between the second molecular tube and the water purification component.

3. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The pH adjustment component has a plurality of first molecular tubes connected in series.

4. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The pH adjustment component has a plurality of second molecular tubes connected in series.

5. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The human-computer interactive multi-pH integrated water treatment equipment also includes: The water storage component is connected to both the first molecular tube and the second molecular tube. The human-machine interactive multi-pH integrated water treatment equipment allows the water storage component to simultaneously store drinking water with a pH of 7.5 and drinking water with a pH of 8.

5.

6. The human-computer interactive multi-pH integrated water treatment equipment according to claim 5, characterized in that, The water storage component includes: The first water tank is connected to the first molecular tube and is used to store drinking water with a pH of 7.

5. The second water tank is connected to the second molecular tube and is used to store drinking water with a pH of 8.

5.

7. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The water purification component includes multiple water purification tanks, which are connected in series. Raw water is converted into drinking water after flowing through the multiple water purification tanks. The human-computer interactive multi-pH integrated water treatment equipment also includes a glass window, which is located on the housing, allowing light to pass through the glass window to enter or leave the housing.

8. The human-computer interactive multi-pH integrated water treatment equipment according to claim 6, characterized in that, The housing is equipped with a water intake component, which is connected to both the first water tank and the second water tank. The water intake component is electrically connected to the control component. The human-machine interactive multi-pH integrated water treatment equipment allows the water intake component to take water from either the first water tank or the second water tank.

9. The human-computer interactive multi-pH integrated water treatment equipment according to claim 1, characterized in that, The human-computer interactive multi-pH integrated water treatment equipment also includes: A heating assembly is disposed within the housing and is electrically connected to the control assembly; The heating assembly is activated when the temperature inside the housing is below zero degrees Celsius.

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