Water quality management system control method

Abstract

Disclosed in the present invention is a water quality management system control method. The method comprises: starting a water quality management application system in a user smart device, and enabling a smart device Bluetooth communication module and a positioning module; the water quality management application system controlling the smart device Bluetooth communication module to connect to a measurement device Bluetooth communication module, so as to acquire type information of water to be measured and scoring criteria for relevant water quality data of different types of water to be measured, and controlling the positioning module to locate the user smart device, so as to obtain location information thereof; after the current type of water to be measured is selected by means of the water quality management application system, receiving relevant water quality data of the water to be measured that is measured by a water quality measurement device; and the water quality management application system calculating a water quality score and a water quality grade of the water to be measured, and uploading the location information obtained by means of positioning, the relevant water quality data of the water to be measured, water quality score information and water quality grade information to a back-end server, and displaying same by means of the user smart device, such that back-end server collects water quality data of tap water in different regions for users to view and learn.

Description

A water quality management system control method [Technical Field]

[0001] This invention relates to a water quality management system control method. [Background Technology]

[0002] In modern society, people are increasingly valuing healthy lifestyles and recognizing the importance of high-quality drinking water for maintaining good health. Clean, safe water can prevent various diseases, such as intestinal diseases and chronic illnesses. However, due to different geographical environments, varying lifestyles, and different levels of industrial development in different regions, the quality of tap water varies significantly. Users often find it difficult to know the water quality in their local area or neighboring areas, or the condition of their water filters. Furthermore, when water quality abnormalities occur, they cannot promptly identify the causes and solutions. [Summary of the Invention]

[0003] This invention overcomes the shortcomings of the prior art and provides a water quality management system control method.

[0004] To achieve the above objectives, the present invention adopts the following technical solution:

[0005] A water quality management system control method, characterized by comprising: a water quality testing device for detecting water quality data related to the water to be tested, a user intelligent device, and a back-end server; the water quality testing device is equipped with a Bluetooth communication module; the user intelligent device is equipped with a Bluetooth communication module wirelessly connected to the Bluetooth communication module of the testing device, a positioning module, a mobile communication module wirelessly connected to the back-end server, and a water quality management application system; the back-end server is pre-set with information on the type of water to be tested and scoring standards for relevant water quality data of different types of water to be tested; and the control steps are as follows:

[0006] S1. Trigger the startup of the water quality management application system in the user's smart device. The water quality management application system turns on the smart device's Bluetooth communication module and positioning module.

[0007] S2, the water quality management application system controls the intelligent device Bluetooth communication module to connect to the detection device Bluetooth communication module to obtain the type information of the water to be tested and the scoring criteria of the relevant water quality data of different types of water to be tested, as well as the control positioning module to locate the location information of the user's intelligent device;

[0008] S3. The water quality management application system displays the user's choice of water type for the current test via the user's smart device.

[0009] S4. The user selects the type of water to be tested, and the water quality management application system receives the relevant water quality data of the water to be tested from the water quality testing equipment.

[0010] S5. The water quality management application system calculates the water quality score and water quality grade of the water to be tested according to the scoring standard corresponding to the selected water type. It then uploads the location information, relevant water quality data, water quality score information, and water quality grade information to the backend server and displays them through the user's smart device.

[0011] The water quality management system control method described above is characterized in that: the backend server has multiple user account information, and the water quality management application system of the user's smart device is associated with a user account; in S1, after triggering the start of the water quality management application system in the user's smart device, the user account is logged in through the water quality management application system; in S5, the location information, water quality data related to the water to be tested, water quality scoring information, and water quality grade information are uploaded to the database of the associated user account on the backend server.

[0012] The water quality management system control method described above is characterized in that: after storing multiple test data in the user account database, the water quality management application system displays historical test data and generates historical test data curves based on the historical test data in the user account database.

[0013] The water quality management system control method described above is characterized in that: the types of water to be tested include tap water, mineral water, purified water, water filtered by an ultrafiltration membrane water purifier, or water filtered by a nanofiltration membrane water purifier.

[0014] The water quality management system control method described above is characterized in that: after tap water is selected in S4, the control step further includes S6, whereby the water quality management application system reads the relevant water quality data of the water to be tested in the adjacent areas from the background server according to the location information, and compares and displays the data.

[0015] The water quality management system control method described above is characterized in that: when ultrafiltration membrane water purifier or nanofiltration membrane water purifier is selected in S4, the water quality management application system reads the water quality data related to the water to be tested from the background server of the same water purifier user, and compares and displays it with the average of the water quality data related to the water to be tested of the same water purifier user.

[0016] The water quality management system control method described above is characterized in that: after a user installs a water purifier, the user account database associated with the water quality management application system of the user's smart device records relevant information about the water purifier, calculates the filter cartridge usage time, and periodically sends filter cartridge replacement or cleaning reminders to the water quality management application system.

[0017] The water quality management system control method described above is characterized in that: when the water quality score of the water to be tested calculated by the water quality management application system in S5 exceeds the scoring standard, the back-end server judges that the water quality data is abnormal, and handles it through the water purifier customer service department, and prompts the water quality management application system with a water quality abnormality.

[0018] The water quality management system control method described above is characterized in that: the backend server obtains water quality data related to tap water detected by users in nearby areas based on the location information in the user account database, and periodically sends it to the associated water quality management application system.

[0019] The water quality management system control method described above is characterized in that: upon receiving abnormal water quality data related to tap water from the background server, the system immediately sends the abnormal water quality data to the water quality management application system associated with the user account database in the same region and provides a notification based on the location information in the user account database.

[0020] The beneficial effects of this invention are:

[0021] This invention includes a water quality testing device for detecting water quality data related to the water to be tested, a user smart device, and a backend server. The user smart device sends location information and water quality data of the tap water at that location to the backend server, enabling the backend server to collect water quality data of tap water from different regions for users to view and understand. Simultaneously, the water quality management application system of the user smart device is associated with a user account, and stores the water quality data of different types of water detected by the user in the associated user account database for analysis. It periodically pushes the user's water quality data and water purifier filter replacement reminders, and pushes anomaly alerts to users in the same region when water quality data is abnormal, along with notifications of the cause of the anomaly and solutions. [Image Description]

[0022] Figure 1 is a schematic diagram of the water quality management system control of the present invention. [Detailed Implementation]

[0023] The technical solutions in the embodiments of the present invention will now be clearly and completely described in conjunction with the accompanying drawings.

[0024] It should be noted that all directional indications (such as up, down, left, right, front, back, etc.) in the embodiments of the present invention are only used to explain the relative positional relationship and movement of the components in a specific posture (as shown in the accompanying drawings). If the specific posture changes, the directional indication will also change accordingly. Furthermore, descriptions involving "preferred," "second-best," etc., in this invention are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "preferred" or "second-best" may explicitly or implicitly include at least one of those features.

[0025] As shown in Figure 1, a water quality management system control method includes a water quality testing device 1 for detecting water quality data related to the water to be tested, a user smart device 2, and a backend server 3. The water quality testing device 1 is equipped with a Bluetooth communication module 11. The user smart device 2 is equipped with a smart device Bluetooth communication module 21 wirelessly connected to the Bluetooth communication module 11, a positioning module 22, a mobile communication module 23 wirelessly connected to the backend server 3, and a water quality management application system. The backend server 3 is preset with information on the type of water to be tested and scoring standards for relevant water quality data of different types of water to be tested. The control steps are as follows:

[0026] S1. Trigger the startup of the water quality management application system in the user's smart device 2. The water quality management application system turns on the smart device's Bluetooth communication module 21 and positioning module 22.

[0027] S2, the water quality management application system controls the intelligent device Bluetooth communication module 21 to connect the detection device Bluetooth communication module 11 to obtain the type information of the water to be tested and the scoring standards of the relevant water quality data of different types of water to be tested, and the control positioning module 22 to locate the location information of the user intelligent device 2;

[0028] S3. The water quality management application system displays the user's choice of water type for the current test via the user's smart device 2; the water type to be tested includes tap water, mineral water, purified water, water filtered by an ultrafiltration membrane water purifier, or water filtered by a nanofiltration membrane water purifier.

[0029] S4. The user selects the type of water to be tested, and the water quality management application system receives the relevant water quality data of the water to be tested from the water quality testing device 1.

[0030] S5. The water quality management application system calculates the water quality score and grade of the water to be tested according to the scoring standard corresponding to the selected water type. It then uploads the location information, relevant water quality data, water quality score, and water quality grade information to the backend server. The system also displays the relevant water quality data, water quality score, water quality grade, and the range of high-quality water indicators on the user's smart device 2, allowing the user to intuitively view the actual situation of the tested water quality. Simultaneously, the backend server collects water quality data from tap water in different regions, which can be used by water purifier manufacturers to analyze and improve their purifiers to optimize water filtration. The smart device 2 includes devices such as mobile phones and tablets. The relevant water quality data includes TDS (Total Dissolved Solids), TOC (Total Organic Carbon), COD (Chemical Oxygen Demand), UV (Ultraviolet Transmittance), EC (Electrochemical Conductivity), and temperature data.

[0031] In this case, the backend server 3 has multiple user account information. The water quality management application system of the user's smart device 2 is associated with one user account. This user account can log in via WeChat and can be bound to the user's identity via phone number. In S1, after triggering the launch of the water quality management application system in the user's smart device 2, the user account logs in through the water quality management application system. In S5, the location information, water quality data related to the water to be tested, water quality score information, and water quality grade information are uploaded to the database associated with the user account in the backend server 3. At the same time, after storing multiple test data in the user account database, the water quality management application system can display historical test data and generate historical test data curves based on the historical test data in the user account database for the user to view.

[0032] In this case, when the user tests the tap water quality data, after selecting tap water in S4, the control step also includes S6, where the water quality management application system reads the relevant water quality data of the water to be tested in the adjacent area from the background server 3 according to the location information, and compares and displays the comparison information.

[0033] In this case, when a user tests the water quality data of the filtered water, they can select ultrafiltration membrane water or nanofiltration membrane water in S4 according to the actual test. The water quality management application system reads the water quality data of the same water purifier user in the background server 3, and compares and displays it with the average of the water quality data of the same water purifier user as an indicator of the filter health.

[0034] In this case, after the user installs the water purifier, the user account database associated with the water quality management application system of the user's smart device 2 records information related to the water purifier model, calculates the filter cartridge usage time, and periodically sends filter cartridge replacement reminders to the water quality management application system based on the usage records. The water purifier-related information includes information such as the installed water purifier, installation address, filter cartridge usage records, filter cartridge replacement records, cleaning records, and maintenance history.

[0035] In this case, the backend server 3 obtains the tap water quality data detected by users in the nearby area based on the location information in the user account database, and sends it to the associated water quality management application system on a regular basis. At the same time, it regularly pushes the average water quality data of the water filtered by the relevant water purifiers so that users can understand the health status of the filter cartridges they are using.

[0036] In this case, when the water quality score of the water to be tested calculated by the water quality management application system in S5 exceeds the scoring standard, the backend server 3 determines that the water quality data is abnormal, and handles it through the water purifier customer service department, and notifies the water quality management application system of the water quality abnormality. Specifically, when the backend server 3 receives the tap water-related water quality abnormality data, it immediately sends the tap water-related water quality abnormality data to the water quality management application system associated with the user account database in the same region and provides a notification based on the location information sent. At the same time, the water purifier customer service department proactively arranges a time with the user to provide professional re-inspection service. If the water to be tested is filtered water and the filtered water quality data is determined to be abnormal, the filter cartridge is reminded to be replaced.

[0037] In this case, the water quality testing device 1 is equipped with a central processing unit (CPU). The CPU is connected to a Bluetooth communication component for wireless communication with the user's smart device, a display component for displaying water quality testing information, a TDS electrode component, an ultraviolet transceiver component, a temperature sensor, and a button component. During testing, the water quality testing device 1 is placed in the water to be tested, and the testing is started via the button component. After the testing is completed, the display component shows relevant water quality data such as TDS (Total Dissolved Solids), TOC (Total Organic Carbon), COD (Chemical Oxygen Demand), UV (Ultraviolet Transmittance), EC (Electrochemical Conductivity), and temperature.

[0038] The temperature data detection principle of the water quality testing equipment 1 is as follows: the central processing unit has a temperature lookup table that corresponds to the digital water temperature signal generated by the temperature sensor; the temperature sensor comes into contact with the water to be tested and generates different analog voltage outputs according to the water temperature to be tested, which are converted into digital water temperature signals after the A / D conversion of the temperature sensor and sent to the central processing unit; the central processing unit looks up the temperature data according to the digital water temperature signal and the temperature lookup table.

[0039] The detection principle of EC conductivity and TDS total dissolved solids (TDS) data by water quality testing equipment 1 is as follows: The central processing unit (CPU) has a pre-set temperature compensation algorithm relating TDS, EC conductivity, and temperature. The TDS electrode assembly contacts the water to be tested and generates different currents based on the distribution of ions in the water. These currents are converted into corresponding voltage signals by the conversion circuit of the TDS electrode assembly. After A / D conversion by the TDS electrode assembly, the EC conductivity data of the water to be tested is obtained and sent to the CPU. The CPU calculates the TDS total dissolved solids data based on the temperature data, EC conductivity data, temperature compensation algorithm, and the calibration values ​​of the corresponding water quality parameters. The temperature compensation algorithm is a relationship between temperature, conductivity, and TDS obtained through curve fitting after multi-point sampling.

[0040] The detection principle of UV transmittance, TOC (Total Organic Carbon), and COD (Chemical Oxygen Demand) data for water quality testing equipment 1 is as follows: The central processing unit (CPU) has a pre-set relationship between UV transmittance and TOC / COD. The UV transceiver unit contacts the water to be tested and emits 275nm UV light. The receiving end of the transceiver unit receives the UV light and converts the light intensity into a corresponding voltage signal via its conversion circuit. After A / D conversion, the UV transmittance data of the water to be tested is obtained and sent to the CPU. The CPU calculates the TOC and COD data based on the relationship between UV transmittance and TOC / COD, along with the calibration values ​​of the corresponding water quality parameters. The relationship between UV transmittance and TOC / COD is obtained through curve fitting after multi-point sampling.

[0041] The above are merely preferred embodiments of the present invention and do not limit the patent scope of the present invention. All equivalent structural transformations made using the contents of the present invention's specification and drawings under the inventive concept of the present invention, or direct or indirect applications in other related technical fields, are included within the patent protection scope of the present invention.

Claims

1. A water quality management system control method characterized by: The system includes a water quality testing device (1) for detecting water quality data related to the water to be tested, a user smart device (2), and a back-end server (3). The water quality testing device (1) is equipped with a testing device Bluetooth communication module (11). The user smart device (2) is equipped with a smart device Bluetooth communication module (21) wirelessly connected to the testing device Bluetooth communication module (11), a positioning module (22), a mobile communication module (23) wirelessly connected to the back-end server (3), and a water quality management application system. The back-end server (3) is pre-set with the type information of the water to be tested and the scoring standards of the relevant water quality data of different types of water to be tested. Its control steps are as follows: S1. Trigger the startup of the water quality management application system in the user's smart device (2). The water quality management application system opens the Bluetooth communication module (21) and the positioning module (22) of the smart device. S2, Water quality management application system control intelligent device Bluetooth communication module (21) connects to detection device Bluetooth communication module (11) to obtain the type information of the water to be tested and the scoring criteria of the relevant water quality data of different types of water to be tested, and control positioning module (22) to locate the user intelligent device (2) location information; S3. The water quality management application system displays the water type options for the user to select through the user's smart device (2); S4. The user selects the type of water to be tested, and the water quality management application system receives the water quality data related to the water to be tested from the water quality testing equipment (1). S5. The water quality management application system calculates the water quality score and water quality grade of the water to be tested according to the scoring standard corresponding to the selected water type to be tested, and uploads the location information, water quality data related to the water to be tested, water quality score information and water quality grade information to the backend server, and displays them through the user's smart device (2).

2. The water quality management system control method of claim 1, wherein: The backend server (3) has multiple user account information. The water quality management application system of the user's smart device (2) is associated with a user account. In S1, after triggering the start of the water quality management application system in the user's smart device (2), the user account is logged in through the water quality management application system. In S5, the location information, water quality data related to the water to be tested, water quality score information and water quality grade information are uploaded to the associated user account database in the backend server (3).

3. The water quality management system control method of claim 2, wherein: After storing multiple test data in the user account database, the water quality management application system displays historical test data and generates historical test data curves based on the historical test data in the user account database.

4. The water quality management system control method of claim 1, wherein: The types of water to be tested include tap water, mineral water, purified water, water filtered by ultrafiltration membrane water purifier, or water filtered by nanofiltration membrane water purifier.

5. The water quality management system control method of claim 4, wherein: After selecting tap water in S4, the control steps also include S6, where the water quality management application system reads the relevant water quality data of the water to be tested in the adjacent area from the background server (3) based on the location information, and compares and displays the data.

6. The water quality management system control method of claim 4, wherein: When ultrafiltration or nanofiltration is selected in S4, the water quality management application system reads the water quality data of the same water purifier user in the background server (3) and compares and displays it with the average of the water quality data of the same water purifier user.

7. The water quality management system control method of claim 6, wherein: After a user installs a water purifier, the user account database associated with the user's smart device (2) contains information about the water purifier model and calculates the filter cartridge usage time, and periodically sends filter cartridge replacement or cleaning reminders to the water quality management application system.

8. The water quality management system control method of claim 7, wherein: When the water quality score of the water to be tested calculated by the water quality management application system in S5 exceeds the scoring standard, the back-end server (3) judges that the water quality data is abnormal, and handles it through the water purifier customer service department, and prompts the water quality management application system that the water quality is abnormal.

9. The water quality management system control method of claim 1, wherein: The backend server (3) obtains the tap water quality data detected by users in the nearby area of ​​the backend server (3) based on the location information in the user account database, and sends it to the associated water quality management application system on a regular basis.

10. The water quality management system control method of claim 8, wherein: Upon receiving abnormal water quality data related to tap water from the background server (3), the server immediately sends the abnormal water quality data to the water quality management application system associated with the user account database in the same region and provides a notification, based on the location information in the user account database.

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