An intelligent control system and control method for adjusting bath water quality

Abstract

The present application relates to a kind of intelligent control system and control method for adjusting bath water quality, and the intelligent control system includes water heater, mineralization filter core, detection device, control device and execution device;Mineralization filter core is equipped with at least two types, respectively set in water heater side;Detection device, for detecting the life data of user and sending to control device, and the life data is at least related with the utility of one type of mineralization filter core;Control device, for selecting the mineralization filter core type related with the life data from at least two types of mineralization filter core according to the received life data;Execution device, for the mineralization filter core of the selected type with water heater is communicated.The user can obtain corresponding mineral substance and carry out conditioning by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral substance can be obtained by the selected type of mineralization filter core when using the water heater connected with the required type of mineralization filter core after bath, and the corresponding mineral

Description

Technical Field

[0001] This invention relates to the field of smart home technology, specifically to an intelligent control system and method for regulating bath water quality. Background Technology

[0002] Bathing helps relieve fatigue and restore bodily functions. To enhance the bathing experience, some people add filters to their showerheads. These filters contain various trace elements that can enhance skincare benefits.

[0003] Existing technology discloses a novel high-efficiency energy-enhancing bathing device, comprising: a shell, a filter element disposed within the shell, a hollow cavity formed inside the filter element, and a nano-silver ion antibacterial coating sprayed onto the inner wall of the hollow cavity; a filter layer and a trace element additive layer disposed inside the hollow cavity; the filter layer, from top to bottom, consists of a polypropylene (PP) membrane, granular activated carbon, natural hot spring mineral essence, and sintered activated carbon; and nano-composite energy balls are disposed within the trace element additive layer, which can enhance the filtration effect, improve the user's bathing experience, and make people feel comfortable all over.

[0004] However, influenced by various factors such as lifestyle, diet, and daily routines, everyone's lifestyle data (including skin condition, etc.) is constantly changing. For different lifestyle data, using bath water of a specific quality will have a better conditioning effect on the body, which means that users' needs for bath water quality are constantly changing. Therefore, existing single-quality water is no longer sufficient to meet users' changing bathing needs. Summary of the Invention

[0005] In view of the problems existing in the prior art, the purpose of this invention is to provide an intelligent control system and control method for adjusting bath water quality, which can meet the user's changing bathing needs and produce better conditioning effects on the body.

[0006] To achieve the above objectives, the present invention adopts the following technical solution:

[0007] An intelligent control system for regulating bath water quality includes a water heater, a mineralization filter, a detection device, a control device, and an execution device;

[0008] The mineralization filter element is available in at least two types, each located on one side of the water heater;

[0009] A detection device for detecting a user’s lifestyle data and sending it to a control device, the lifestyle data being related to the utility of at least one type of mineralized filter cartridge;

[0010] A control device for selecting a mineralized filter type related to the received living data from at least two types of mineralized filter cartridges;

[0011] An actuator for connecting the water heater to the selected type of mineralized filter cartridge.

[0012] Furthermore, the lifestyle data refers to the user's sleep time data, the detection device is a smartwatch used to detect the user's sleep time data, and the mineralization filter includes a potassium-based mineralization filter. When the user's sleep time data is detected to be less than a preset value, the actuator connects the potassium-based mineralization filter to the water heater.

[0013] Furthermore, the lifestyle data refers to the user's facial skin texture data, and the detection device is a skin texture detector used to detect the user's facial skin texture data.

[0014] Furthermore, the skin texture detector is a smart mirror that can monitor the body's health status, and the mineralization filter includes mineralization filters mainly composed of magnesium and sulfur and mineralization filters mainly composed of iron and zinc.

[0015] A smart control method for regulating bath water quality includes the following steps:

[0016] Acquire user lifestyle data that is relevant to the utility of at least one type of mineralized filter cartridge;

[0017] Based on the living data, select a mineralized filter type that is relevant to the living data from at least two types of mineralized filter cartridges;

[0018] The control actuator connects the water heater to the selected type of mineralized filter cartridge.

[0019] Furthermore, the lifestyle data refers to the user's sleep time data. The user's sleep time data is detected using a smartwatch. When the user's sleep time data is detected to be less than the standard value, the control actuator connects the potassium-based mineralized filter to the water heater.

[0020] Furthermore, the life data refers to the user's facial skin texture data. The user's facial skin texture data is detected using a skin texture detector. When it is determined that there is a skin rash problem based on the user's facial skin texture data, the control execution device connects the mineralized filter element, which is mainly composed of magnesium and sulfur, to the water heater.

[0021] Furthermore, the method for determining the presence of skin rashes is to call the deep learning function of the OpenCV library, introduce a facial rash model, and use the OpenCV library to identify the user's facial image. If a rash area is found, it is marked as a confirmed rash.

[0022] Furthermore, the life data refers to the user's facial skin texture data. The user's facial skin texture data is detected using a skin texture detector. When it is determined that there is a problem with dull skin based on the user's facial skin texture data, the control execution device connects the mineralized filter element, which is mainly composed of iron and zinc elements, to the water heater.

[0023] Furthermore, the method for determining the presence of skin dullness is to calculate the color histogram of the user's face image using the OpenCV library, and then subtract the percentage of pixels within a set range of the color histogram from the average value in the database. If the difference is greater than or equal to the set value, the skin dullness is confirmed.

[0024] In summary, the present invention has the following advantages:

[0025] In use, the system first uses a detection device to obtain the user's lifestyle data, which is at least related to the effectiveness of one type of mineralizing filter provided by this invention. Then, based on this lifestyle data, it determines which minerals the user needs for conditioning. The system can then select a mineralizing filter type related to the lifestyle data from the mineralizing filter provided by this invention, and control the actuator to connect the water heater to the selected type of mineralizing filter. Thus, when the user takes a bath using the water heater connected to the required type of mineralizing filter, they can obtain the corresponding minerals for conditioning through the selected type of mineralizing filter. Compared to existing technologies where a single water quality is difficult to adapt to various physical conditions, this invention recommends the use of mineralizing filters suitable for different user physical conditions, effectively improving the conditioning effect on the body. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the intelligent control system of the present invention.

[0027] Figure 2 This is a flowchart for recommending mineralized filter cartridges based on skin type analysis.

[0028] Figure 3 Flowchart for user face image segmentation.

[0029] Figure 4 A diagram illustrating the division of the user's facial area.

[0030] Figure 5 Flowchart for identifying skin rashes.

[0031] Figure 6 Flowchart for assessing dull skin tone. Detailed Implementation

[0032] This invention focuses on the changing needs of users regarding the skincare benefits of bath water. By combining user lifestyle data collected from smart electronic products, it comprehensively analyzes the data and recommends the most suitable mineralized filter cartridge for the user's current physical condition.

[0033] The present invention will now be described in further detail.

[0034] like Figure 1 As shown, an intelligent control system for regulating bath water quality includes a water heater, a mineralization filter, a detection device, a control device, and an execution device.

[0035] There are at least two types of mineralized filter cartridges, each located on one side of the water heater; different types of mineralized filter cartridges contain different minerals, which can provide different benefits to the human body during bathing.

[0036] A detection device is used to detect a user's lifestyle data and send it to a control device. This lifestyle data is related to the effectiveness of at least one type of mineralized filter cartridge. The lifestyle data may be the user's heart rate data, skin condition data, etc. The detection device may be a smartwatch or a smart mirror, etc.

[0037] A control device for selecting a mineralized filter type related to the received living data from at least two types of mineralized filter cartridges;

[0038] An actuator is used to connect the water heater to the selected type of mineralizing filter cartridge. When detected living data is simultaneously associated with multiple mineralizing filter cartridge types, the selected mineralizing filter cartridge type can be multiple and connected in series.

[0039] The actuator can employ various existing technologies, as long as it can connect the water heater and the selected mineralization filter cartridge. This allows users to receive the corresponding mineral conditioning through the selected type of mineralization filter cartridge when showering. Compared to existing technologies where a single water quality is difficult to adapt to various physical conditions, this invention recommends the use of mineralization filter cartridges suitable for different user physical conditions, effectively enhancing the conditioning effect on the body.

[0040] In this embodiment, the user's lifestyle data includes the user's heart rate data and skin condition data.

[0041] When the user's sleep time data is the life data, the corresponding detection device is a smartwatch used to detect the user's sleep time data. The mineralization filter includes a potassium-based mineralization filter. When the user's sleep time data is detected to be less than a preset value, the actuator connects the potassium-based mineralization filter to the water heater.

[0042] When the life data is the user's facial skin texture data, the corresponding detection device is a skin texture detector used to detect the user's facial skin texture data.

[0043] The skin texture detector can be any detector with a photographic function. In this embodiment, the skin texture detector is a smart mirror that can monitor the body's health status, and the mineralization filter element also includes a mineralization filter element mainly composed of magnesium and sulfur and a mineralization filter element mainly composed of iron and zinc.

[0044] Preferably, the intelligent control system also provides an interactive interface for displaying recommended mineralizing filter cartridges to the user, who can then select the appropriate cartridge through this interface. When the user selects to activate the water heater's shower mode on the interface, the water heater will connect to the selected mineralizing filter cartridge, allowing it to function effectively.

[0045] A smart control method for regulating bath water quality, employing the aforementioned smart control system for regulating bath water quality, includes the following steps:

[0046] Acquire user lifestyle data that is relevant to the utility of at least one type of mineralized filter cartridge;

[0047] Based on the living data, select a mineralized filter type that is relevant to the living data from at least two types of mineralized filter cartridges;

[0048] The control actuator connects the water heater to the selected type of mineralized filter cartridge.

[0049] When the life data refers to the user's sleep time data, the smartwatch is used to detect the user's sleep time data. When the user's sleep time data is less than the standard value, it is determined that the user may be staying up late or sleeping too little. In this case, the user's skin will usually be dehydrated. Therefore, the control device selects a potassium-based mineral filter element from several types of mineral filter elements, which has the effect of moisturizing the skin and increasing elasticity, and controls the execution device to connect the potassium-based mineral filter element to the water heater.

[0050] like Figure 2 As shown, when the life data is the user's facial skin texture data, the skin texture detector is used to detect the user's facial skin texture data. If it is determined that there is a skin rash problem based on the user's facial skin texture data, the control execution device will connect the mineralized filter element, which is mainly composed of magnesium and sulfur, to the water heater.

[0051] In this embodiment, the skin texture detector is a smart mirror that can monitor the user's health status. The smart mirror can collect the user's facial skin data and upload it to a database for processing.

[0052] like Figure 3 , Figure 4As shown, the smart mirror captures a photo of the user's face using a monocular camera. The processor uses the OpenCV library to identify and extract the facial features from the photo. The processor then uses the dlib library to identify the facial features and mark four key points representing the facial characteristics. The processor divides the face into different regions by drawing rectangles around the four key points, and then extracts four different images from each region to determine if there are any skin problems.

[0053] like Figure 5 As shown, the method for determining the presence of skin rashes is to utilize the deep learning capabilities of the OpenCV library, introduce a pre-trained facial rash model, and use OpenCV to identify the user's facial images. If a rash area is found, the image is marked as "confirmed rash." If two or more of the four images are marked as "confirmed rash," the user is recommended to use a mineralized filter cartridge primarily composed of magnesium and sulfur, which promotes skin regeneration and has anti-inflammatory and antibacterial effects.

[0054] Alternatively, when the life data is the user's facial skin texture data, the skin texture detector is used to detect the user's facial skin texture data. When it is determined that there is a problem with dull skin based on the user's facial skin texture data, the control execution device connects the mineralized filter element, which is mainly composed of iron and zinc elements, to the water heater.

[0055] like Figure 6 As shown, the method for determining skin dullness is as follows: Different regions of the user's face are segmented and extracted into four different images. A color histogram of the user's face image is calculated using the OpenCV library. The percentage of pixels within the brightness range of 85-160 in the color histogram is defined as the "dark area." This "dark area" is then subtracted from the average "dark area" count stored in the database for the user. If the difference is greater than or equal to a set value, the image is marked as "confirmed dullness." If two or more of the four images are marked as "confirmed dullness," it is recommended that the user use a mineralized filter with iron and zinc as its main components, which nourishes skin cells.

[0056] This invention selects a mineralized filter element suitable for the user's current state based on the user's lifestyle data, which helps the user enhance the conditioning effect on the body during bathing.

[0057] The above embodiments are preferred embodiments of the present invention, but the embodiments of the present invention are not limited to the above embodiments. Any changes, modifications, substitutions, combinations, or simplifications made without departing from the spirit and principle of the present invention shall be considered equivalent substitutions and shall be included within the protection scope of the present invention.

Claims

1. An intelligent control system for regulating bath water quality, characterized in that: It includes water heaters, mineralized filter elements, detection devices, control devices, and actuators; The mineralization filter element is available in at least two types, each located on one side of the water heater; A detection device for detecting a user’s lifestyle data and sending it to a control device, the lifestyle data being related to the utility of at least one type of mineralized filter cartridge; A control device for selecting a mineralized filter type related to the received living data from at least two types of mineralized filter cartridges; An actuator for connecting the water heater to the selected type of mineralized filter cartridge.

2. The intelligent control system for regulating bath water quality according to claim 1, characterized in that: The life data refers to the user's sleep time data, the detection device is a smartwatch used to detect the user's sleep time data, and the mineralization filter includes a potassium-based mineralization filter. When the detected sleep time data of the user is less than a preset value, the actuator connects the potassium-based mineralization filter to the water heater.

3. The intelligent control system for regulating bath water quality according to claim 1, characterized in that: The life data refers to the user's facial skin texture data, and the detection device is a skin texture detector used to detect the user's facial skin texture data.

4. The intelligent control system for regulating bath water quality according to claim 3, characterized in that: The skin texture detector is a smart mirror that can monitor the body's health status. The mineralization filter includes mineralization filters mainly composed of magnesium and sulfur, and mineralization filters mainly composed of iron and zinc.

5. A smart control method for adjusting bath water quality, characterized in that: The intelligent control system for regulating bath water quality according to any one of claims 1-4 includes the following steps: Acquire user lifestyle data that is relevant to the utility of at least one type of mineralized filter cartridge; Based on the living data, select a mineralized filter type that is relevant to the living data from at least two types of mineralized filter cartridges; The control actuator connects the water heater to the selected type of mineralized filter cartridge.

6. The intelligent control method according to claim 5, characterized in that: The lifestyle data refers to the user's sleep time data. The smartwatch is used to detect the user's sleep time data. When the detected sleep time data is less than the standard value, the control device connects the potassium-based mineralized filter to the water heater.

7. The intelligent control method according to claim 5, characterized in that: The life data refers to the user's facial skin texture data. The skin texture detector is used to detect the user's facial skin texture data. When it is determined that there is a skin rash problem based on the user's facial skin texture data, the control execution device connects the mineralized filter element, which is mainly composed of magnesium and sulfur, to the water heater.

8. The intelligent control method according to claim 7, characterized in that: The method for determining the presence of skin rashes is to call the deep learning function of the OpenCV library, introduce a facial rash model, and use the OpenCV library to identify the user's face image. If a rash area is found, it is marked as a confirmed rash.

9. The intelligent control method according to claim 5, characterized in that: The life data refers to the user's facial skin texture data. The skin texture detector is used to detect the user's facial skin texture data. When it is determined that there is a problem with dull skin based on the user's facial skin texture data, the control execution device connects the mineralized filter element, which is mainly composed of iron and zinc elements, to the water heater.

10. The intelligent control method according to claim 7, characterized in that: The method for determining the presence of skin dullness is to calculate the color histogram of the user's face image using the OpenCV library, and then subtract the percentage of pixels within a set range of the color histogram from the average value in the database. If the difference is greater than or equal to the set value, the image is marked as confirmed as dull.

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