Self-adaptive control method and device for interactive hydrogen-rich water cup, water cup and medium

Abstract

The invention relates to the technical field of hydrogen-rich water cup control, and discloses a self-adaptive control method and device for an interactive hydrogen-rich water cup, the water cup and a medium, and the method comprises the steps: obtaining a water treatment instruction based on an interaction module; acquiring a current time period according to the water treatment instruction; according to the current time period and a scheme library corresponding to a target user identifier in the water treatment instruction, a target water treatment control scheme is obtained, and the scheme library corresponding to the target user identifier is determined based on an interaction module; according to the target water treatment control scheme, the hydrogen-rich water cup is controlled to conduct water treatment, and a water treatment ending signal is obtained. Based on the interaction module, the water treatment instruction is obtained, the current time period is determined, then the target water treatment control scheme corresponding to the current time period and the target user identifier is obtained, and flexible and accurate control over the water treatment process of the hydrogen-rich water cup is achieved through the target water treatment control scheme; therefore, the hydrogen-rich water cup can better adapt to water drinking requirements in different scenes.

Description

Technical Field

[0001] The present invention relates to the technical field of hydrogen-rich water cup control, and in particular to a method, device, water cup and medium for interactive hydrogen-rich water cup adaptive control. Background Art

[0002] In modern society, people are paying more and more attention to health and wellness. As the source of life, the quality and function of water are also receiving more and more attention. Hydrogen-rich water cups came into being, aiming to provide people with a kind of drinking water with special functions. Traditional water cups are only satisfied with holding ordinary drinking water, while hydrogen-rich water cups are committed to preparing hydrogen-rich water through specific technical means. However, existing hydrogen-rich water cups often adopt fixed control schemes, which makes hydrogen-rich water cups insufficiently adaptable when facing different scenarios. Summary of the invention

[0003] Based on this, it is necessary to propose an adaptive control method for an interactive hydrogen-rich water cup to address the technical problem that the hydrogen-rich water cup in the prior art often adopts a fixed control scheme, which makes the hydrogen-rich water cup lack adaptability when facing different scenarios.

[0004] In a first aspect, a method for adaptively controlling an interactive hydrogen-rich water cup is provided, the method being used to control a hydrogen-rich water cup, the hydrogen-rich water cup being provided with an interactive module, the method comprising: Based on the interaction module, obtaining water treatment instructions; According to the water treatment instruction, obtaining the current time period; Acquire a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; According to the target water treatment control scheme, the hydrogen-rich water cup is controlled to perform water treatment and a water treatment end signal is obtained.

[0005] Furthermore, after the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the method further includes: In response to the water treatment end signal, obtaining the current actual ambient temperature and using it as the first temperature; determining target interval data according to the first temperature; According to the target interval data, the current water volume in the hydrogen-rich water cup is obtained; If the current water volume of the hydrogen-rich water cup is greater than the water volume threshold, the current actual ambient temperature is obtained and used as the second temperature. According to the second temperature, the supplementary water treatment scheme corresponding to the target water treatment control scheme is updated to obtain the water treatment scheme to be treated. According to the water treatment scheme to be treated, the hydrogen-rich water cup is controlled to perform water treatment, a supplementary treatment end signal is obtained, and in response to the supplementary treatment end signal, the target interval data is initialized to a null value; If the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the target interval data is initialized to a null value.

[0006] Furthermore, the step of acquiring the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction includes: Determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction; Obtain the current actual ambient temperature, current water quality data and historical drinking water data; Generate first adjustment data according to the initial water treatment control scheme, the current actual ambient temperature, the current water quality data and the historical drinking water data; The initial water treatment control scheme is updated according to the first adjustment data to obtain the target water treatment control scheme.

[0007] Furthermore, before the step of determining an initial water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: Based on the interaction module, obtaining a solution generation instruction; Based on the interaction module, the solution library corresponding to the target user identifier is acquired and stored, wherein the solution library corresponding to the target user identifier is generated according to basic user information, physical data and disease data.

[0008] Furthermore, before the step of determining an initial water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: Based on the interaction module, obtaining a solution sharing instruction; Based on the interactive module, a water treatment control solution is obtained according to the target solution group identifier in the solution sharing instruction, and a solution library corresponding to the target user identifier in the water treatment instruction is updated.

[0009] Furthermore, after the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the method further includes: Based on the interactive module, obtaining drinking water evaluation data corresponding to the water treatment instruction; generating second adjustment data according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme; The solution library corresponding to the target user identifier is updated according to the second adjustment data.

[0010] Furthermore, the target water treatment control scheme includes first control data and second control data, the first control data includes: one or more of music control data, vibration control data, heating control data, and hydrogen preparation control data, and the second control data is a null value or the second control data is color control data.

[0011] In a second aspect, a device for adaptively controlling an interactive hydrogen-rich water cup is provided, wherein the device is used to control the hydrogen-rich water cup, the hydrogen-rich water cup is provided with an interactive module, and the device comprises: An instruction acquisition module, used for acquiring water treatment instructions based on the interaction module; A time period determination module, used to obtain a current time period according to the water treatment instruction; A solution acquisition module, used to acquire a target water treatment control solution according to the current time period and a solution library corresponding to the target user identifier in the water treatment instruction, wherein the solution library corresponding to the target user identifier is determined based on the interaction module; The water treatment control module is used to control the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtain a water treatment end signal.

[0012] In a third aspect, a hydrogen-rich water cup is provided, comprising an interactive module, a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor is communicatively connected to the interactive module, and the processor implements the steps of the above-mentioned method for adaptive control of an interactive hydrogen-rich water cup when executing the computer program.

[0013] In a fourth aspect, a computer-readable storage medium is provided, wherein the computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the steps of the above-mentioned method for adaptive control of an interactive hydrogen-rich water cup are implemented.

[0014] The interactive hydrogen-rich water cup adaptive control method, device, water cup and medium of the present application obtain water treatment instructions based on the interactive module, obtain the current time period according to the water treatment instructions, obtain the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, and control the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme to obtain a water treatment end signal. By obtaining water treatment instructions and determining the current time period based on the interactive module, and then obtaining the target water treatment control scheme corresponding to the current time period and the target user identifier, the target water treatment control scheme realizes flexible and accurate control of the water treatment process of the hydrogen-rich water cup, and realizes interactive-based adaptive control of the hydrogen-rich water cup, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0016] in: Figure 1 An application environment diagram for an interactive hydrogen-rich water cup adaptive control method in one embodiment; Figure 2 is a flow chart of an adaptive control method for an interactive hydrogen-rich water cup in one embodiment; Figure 3 is a flow chart of an adaptive control method for an interactive hydrogen-rich water cup in one embodiment; Figure 4 is a structural block diagram of an adaptive control device for an interactive hydrogen-rich water cup in one embodiment; Figure 5 Schematic diagram of the structure of a hydrogen-rich water cup in one embodiment. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] The adaptive control method for an interactive hydrogen-rich water cup provided in the embodiment of the present invention can be applied in the following aspects: Figure 1In an application environment, the application environment includes a client 1, a server 3 and a hydrogen-rich water cup 2, the client 1 communicates with the server 3 through a network, and the client 1 communicates with the hydrogen-rich water cup 2.

[0019] Optionally, the client 1 is used to obtain water treatment instructions based on the interactive module; obtain the current time period according to the water treatment instructions; obtain the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instructions; send a control instruction to the hydrogen-rich water cup 2 according to the target water treatment control scheme, thereby controlling the hydrogen-rich water cup 2 to perform water treatment through the control instruction, and obtaining a water treatment end signal.

[0020] Optionally, the hydrogen-rich water cup 2 is used to: obtain water treatment instructions based on the interaction module; obtain the current time period according to the water treatment instructions; obtain the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; according to the target water treatment control scheme, control the hydrogen-rich water cup to perform water treatment and obtain a water treatment end signal.

[0021] Optionally, the client 1 is used to obtain a water treatment instruction based on the interaction module, and send the water treatment instruction to the server 3.

[0022] Based on the interactive module, water treatment instructions are obtained and the current time period is determined, and then the target water treatment control scheme corresponding to the current time period and the target user identifier is obtained. Through the target water treatment control scheme, flexible and precise control of the water treatment process of the hydrogen-rich water cup is achieved, and interactive adaptive control of the hydrogen-rich water cup is achieved, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios.

[0023] The hydrogen-rich water cup 2 is a cup that can produce hydrogen-rich water. Hydrogen-rich water refers to water containing a certain concentration of hydrogen.

[0024] See also Figure 5Optionally, the hydrogen-rich water cup 2 includes a cup cover 21, a cup body 22, a cup base 23, a control unit, a hydrogen preparation component, a music playing component, a vibration component, a heating component and a lighting component, and the control unit is used to control the hydrogen preparation component, the music playing component, the vibration component, the heating component and the lighting component. The control unit includes a memory, a processor and a computer program stored in the memory and executable on the processor, and the processor implements the steps of the adaptive control method for an interactive hydrogen-rich water cup of the present application when executing the computer program. The hydrogen preparation component is a component for preparing hydrogen. The music playing component uses a speaker. The vibration component is a component that generates vibration. The heating component is a component for heating. The lighting component is a component for emitting light.

[0025] The cup cover 21 is movably connected to the cup body 22, and a water holding cavity is provided inside the cup cover 21 and the cup body 22. The cup body 22 is installed above the cup seat 23, the control unit, the hydrogen preparation component, the music playing component, the vibration component and the heating component are installed in the installation cavity inside the cup seat, and the lighting component is installed on the cup cover 21 and / or the cup body 22. The vibration component is used to vibrate the water in the water holding cavity, and the heating component is used to heat the water in the water holding cavity.

[0026] The hydrogen-rich water cup 2 also includes: an operation button 232 and a display screen 231, both of which are mounted on the outer surface of the cup holder 23, and the control unit is also used to control the operation button 232 and the display screen 231. The display screen 231 is a liquid crystal display screen with a touch function. The operation button 232, the display screen 231, the hydrogen preparation component, the music playing component, the vibration component, the heating component, and the lighting component all communicate with the control unit.

[0027] The hydrogen-rich water cup is provided with an interactive module. The interactive module includes: one or more of an operation button 232, a display screen 231, and a communication component. The communication component includes a module using wired communication technology and / or a module using wireless communication technology. The module using wireless communication technology may be a module using Bluetooth communication technology.

[0028] The music playing component mainly plays music of specific frequency and melody, and the sound waves of the music act on the water in the hydrogen-rich water cup 2 to affect the molecular structure of the water, thereby affecting the crystal form of the water. From a physical point of view, sound is a wave. When music is played, the sound waves propagate in the water, causing the vibration of the water molecules. This vibration may change the hydrogen bonding between water molecules, thereby adjusting the arrangement of water molecules. Different music frequencies and melodies may cause water molecules to form different arrangement structures, such as more regular and orderly arrangement structures, thereby changing the crystal form of water. From an experimental point of view, there are relevant water crystallization experimental studies. For example, the water crystallization experiment conducted by Dr. Masaru Emoto of Japan, although this experiment is somewhat controversial, it shows to a certain extent the influence of different music on water crystallization. In the experiment, when classical music was played, the water crystals showed regular and beautiful shapes; while when heavy metal music was played, the water crystals became messy. Although the scientific community has not yet reached a complete consensus on the precise mechanism behind this phenomenon, from the existing experimental phenomena, music does have an effect on the crystal form of water. Theoretically, regular crystal forms may mean that the structure of water is more ordered. This ordered structure may be more conducive to the human body's absorption and utilization of water, because human cells themselves are also highly ordered structures. Ordered water structures may be easier to exchange substances and energy with cells.

[0029] The vibration component generates mechanical vibration through the motor, and this vibration is directly transmitted to the water in the hydrogen-rich water cup, so that the water in the hydrogen-rich water cup vibrates. When water is vibrated, the distance and interaction between water molecules will change. Vibration will intensify the movement of water molecules, thereby reducing the size of water molecule clusters. Under normal circumstances, water molecules will form larger molecular clusters, and vibration will break up these molecular clusters to form smaller molecular clusters. Small molecular cluster water has higher activity and is easier to pass through the cell membrane into the cell, thereby improving the utilization efficiency of water in the human body. From the perspective of physical property measurement, the surface tension of small molecular cluster water will decrease. Through experimental measurements, it was found that the surface tension of water treated with vibration was lower than that of untreated water. The reduction in surface tension indicates that the interaction force between water molecules has changed, which indirectly proves that vibration makes water molecule clusters smaller. In addition, the conductivity of small molecular cluster water will increase because small molecular cluster water is easier to ionize, which is also an evidence of the increased activity of water after treatment with the vibration component. In actual applications, some users have reported that after drinking vibration-treated water, they felt that their body's metabolism had improved, for example, their digestive function had improved. This may be because small molecular clusters of water are more easily absorbed by cells, thereby promoting the body's metabolic process.

[0030] The client 1 may be, but is not limited to, various personal computers, laptops, smart phones, tablet computers, and portable wearable devices. The client 1 has application software installed therein.

[0031] The server 3 can be implemented by an independent server or a server cluster composed of multiple servers.

[0032] The present invention is described in detail below through specific embodiments.

[0033] See also Figure 2 As shown, Figure 2 A flow chart of an interactive hydrogen-rich water cup adaptive control method provided in an embodiment of the present invention is provided. The method is used to control a hydrogen-rich water cup, and the hydrogen-rich water cup is provided with an interactive module. The method includes: S1: Based on the interaction module, obtain water treatment instructions; The water treatment instruction is a notification instruction to control the hydrogen-rich water cup to perform water treatment.

[0034] Specifically, the water treatment instruction input by the user through the interactive module may be obtained, or the water treatment instruction sent by a third-party application through the interactive module may be obtained.

[0035] Among them, the water treatment instruction sent by the user through the client can be obtained, or the water treatment instruction triggered by the user by pressing the operation button 232 (that is, the interaction module), or the water treatment instruction triggered by the user by touching the display screen 231 (that is, the interaction module).

[0036] Optionally, the hydrogen-rich water cup can be set with a unique identification (hereinafter referred to as the factory identification) when it leaves the factory. During the interaction process of the hydrogen-rich water cup, when the user triggers a water treatment instruction by pressing the operation button 232 or touching the display screen 231, the controller of the hydrogen-rich water cup uses the factory identification as the target user identification in the water treatment instruction.

[0037] Optionally, the user can register an account on the client 1 and use the account ID as the user identifier; when the user sends a water treatment instruction through the client, the client uses the account ID of the user's login account as the target user identifier in the water treatment instruction. It can be understood that at this time, each client corresponds to a hydrogen-rich water cup.

[0038] Optionally, the user can register an account on client 1, bind a hydrogen-rich water cup on client 1, and set a water cup identifier for each bound hydrogen-rich water cup on client 1; the water cup identifier is stored in the storage space of the hydrogen-rich water cup, and the correspondence between the water cup identifier and the account is stored on client 1 and server 3; the user sends a water treatment instruction to the hydrogen-rich water cup through the client, and the client uses the water cup identifier corresponding to the hydrogen-rich water cup as the target user identifier in the water treatment instruction. It can be understood that at this time, each client corresponds to one or more hydrogen-rich water cups.

[0039] S2: Obtaining the current time period according to the water treatment instruction; Specifically, according to the generation time of the water treatment instruction, a query is performed from a preset time period table to find out the time period corresponding to the generation time, and the found time period is used as the current time period.

[0040] Optionally, the current time period is one of a morning time period, an afternoon time period and an evening time period.

[0041] Optionally, the current time period is one of: a morning wake-up time period, a breakfast time period, a morning activity time period, a lunch time period, an afternoon activity time period, a dinner time period, and an evening activity time period.

[0042] S3: acquiring a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; Specifically, according to the current time period, a water treatment control scheme is screened from a scheme library corresponding to the target user identifier in the water treatment instruction, and the screened water treatment control scheme is used as the target water treatment control scheme.

[0043] By setting up an independent solution library for the target user ID, highly personalized and precise water treatment control can be achieved, and each water treatment control solution in the solution library corresponds to an independent time period, which allows the water treatment process to be flexibly adjusted according to the specific needs and actual conditions of different users. This can better meet the different requirements of users for water treatment at different time stages and improve the quality and effect of water treatment.

[0044] The solution library stores the associated data of time periods and water treatment control solutions.

[0045] The water treatment control scheme describes the control data of each component of the hydrogen-rich water cup.

[0046] The target user identifier is the user identifier of the user who triggers the water treatment instruction. The user identifier can be data that uniquely identifies a user, such as a user name or user ID.

[0047] The solution library corresponding to the target user identifier is determined based on the interaction module, that is, the solution library corresponding to the target user identifier is determined in advance by the interaction module and stored in the storage space (ie, memory) of the hydrogen-rich water cup.

[0048] The solution library corresponding to the target user identifier can be obtained from the client through the interactive module. Alternatively, multiple water treatment control schemes can be pre-stored in the storage space of the hydrogen-rich water cup, and the user can select a water treatment control scheme from the pre-stored multiple water treatment control schemes through the interactive module, and each selected water treatment control scheme is used as the solution library corresponding to the target user identifier.

[0049] S4: According to the target water treatment control scheme, the hydrogen-rich water cup is controlled to perform water treatment and a water treatment end signal is obtained.

[0050] The water treatment end signal is a signal that the water treatment is completed.

[0051] Specifically, according to each control data in the target water treatment control scheme, each component of the hydrogen-rich water cup (e.g., hydrogen preparation component, music playing component, vibration component, and heating component) is controlled to perform water treatment, and a water treatment end signal is generated after the water treatment is completed. The water after water treatment is more in line with the drinking needs of the user corresponding to the target user identifier.

[0052] The hydrogen preparation component can add hydrogen to the water in the hydrogen-rich water cup. The music played by the music playing component affects the crystal form of the water in the hydrogen-rich water cup. In addition, the music can adjust the user's mood. The vibration component can vibrate the water in the hydrogen-rich water cup, thereby causing the movement of water molecules to intensify, affecting the physical properties of the water to a certain extent. The heating component can heat the water in the hydrogen-rich water cup.

[0053] This embodiment obtains water treatment instructions and determines the current time period based on the interactive module, and then obtains the target water treatment control scheme corresponding to the current time period and the target user identifier. The target water treatment control scheme realizes flexible and precise control of the water treatment process of the hydrogen-rich water cup, and realizes interactive adaptive control of the hydrogen-rich water cup, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios.

[0054] See also Figure 3 In one embodiment, after the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the method further includes: S51: In response to the water treatment end signal, obtaining the current actual ambient temperature and taking it as the first temperature; Specifically, when the water treatment end signal is obtained, the temperature of the environment where the hydrogen-rich water cup is located (that is, the current actual ambient temperature) is obtained in real time in response to the water treatment end signal, and the obtained actual ambient temperature is used as the first temperature.

[0055] Optionally, a temperature sensor may be installed in the hydrogen-rich water cup to detect the temperature of the environment in which the hydrogen-rich water cup is located. When the water treatment end signal is obtained, the temperature detected in real time by the temperature sensor is obtained as the first temperature.

[0056] Optionally, the current actual ambient temperature may be obtained from a third-party application (such as an Internet of Things system) and used as the first temperature.

[0057] S52: determining target interval data according to the first temperature; Optionally, the target interval data is determined by using a table lookup method based on the first temperature.

[0058] The target interval data includes at least one time interval.

[0059] S53: Obtaining the current water volume in the hydrogen-rich water cup according to the target interval data; Specifically, when the interval between the current time and the generation time of the water treatment end signal is greater than or equal to the target interval data, the amount of water (that is, the volume) in the water holding chamber is obtained and the amount of water is used as the current amount of water in the hydrogen-rich water cup.

[0060] Optionally, a water level detection sensor can be installed in the water holding chamber, and the amount of water in the water holding chamber can be calculated based on the water level data detected by the water level detection sensor and the size data of the water holding chamber, and the amount of water can be used as the current amount of water in the hydrogen-rich water cup. It can be understood that the method of calculating the amount of water in the water holding chamber based on the water level data detected by the water level detection sensor and the size data of the water holding chamber can be selected from the existing technology and will not be elaborated here.

[0061] Optionally, a pressure sensor can be installed on the bottom wall of the water holding chamber (referring to the bottom of the water holding chamber when the hydrogen-rich water cup is placed on the platform), and the amount of water in the water holding chamber can be calculated by the difference between the data detected by the pressure sensor when the water holding chamber is filled with water and the data detected by the pressure sensor when there is no water in the water holding chamber.

[0062] S54: If the current water volume in the hydrogen-rich water cup is greater than the water volume threshold, the current actual ambient temperature is obtained and used as the second temperature. According to the second temperature, the supplementary water treatment scheme corresponding to the target water treatment control scheme is updated to obtain the water treatment scheme to be treated. According to the water treatment scheme to be treated, the hydrogen-rich water cup is controlled to perform water treatment, a supplementary treatment end signal is obtained, and in response to the supplementary treatment end signal, the target interval data is initialized to a null value; Specifically, if the current water volume in the hydrogen-rich water cup is greater than the water volume threshold, this means that water treatment is required, and the current actual ambient temperature of the hydrogen-rich water cup is obtained as the second temperature; the supplementary data is determined by a table lookup method according to the second temperature, and the supplementary water treatment scheme corresponding to the target water treatment control scheme is replaced and updated according to the supplementary data, and the supplementary water treatment scheme that has completed the replacement and update this time is used as the water treatment scheme to be processed; according to the various control data in the water treatment scheme to be processed, the various components of the hydrogen-rich water cup (such as hydrogen preparation components, music playback components, vibration components and heating components) are controlled to re-treat the water, and the supplementary treatment end signal is generated when the water treatment is completed; when the supplementary treatment end signal is obtained, the target interval data is initialized to a null value to complete the re-water treatment this time, and stop monitoring whether the water treatment needs to be re-processed.

[0063] The supplementary water treatment plan describes the control data of each component of the hydrogen-rich water cup.

[0064] S55: If the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the target interval data is initialized to a null value.

[0065] Specifically, if the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, it means that water re-treatment is not required. Therefore, the target interval data is initialized to a null value and monitoring is stopped to determine whether water re-treatment is required.

[0066] After water has been left for a period of time, the water will change in temperature, lose hydrogen, and cause the hydrogen concentration to become lower, etc., so that the water in the hydrogen-rich water cup does not meet the user's original expected drinking needs. In order to solve this problem, this embodiment determines the target interval data based on the first temperature, thereby achieving different target interval data for different ambient temperatures, so that the re-water treatment monitoring meets the requirements of the ambient temperature; when the current water volume in the hydrogen-rich water cup is greater than the water volume threshold, the water is re-treated to ensure that the water in the hydrogen-rich water cup meets the user's needs; and when the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the water is not re-treated, thereby effectively avoiding unnecessary waste of resources; if the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the target interval data is initialized to a null value to achieve active stop. Monitor whether water re-treatment is needed; if the current water volume in the hydrogen-rich water cup is greater than the water volume threshold, respond to the supplementary processing end signal and initialize the target interval data to a null value, so that monitoring whether water re-treatment is needed is stopped only when the water re-treatment is completely completed, and step S53 is re-executed after the water re-treatment is interrupted and when the hydrogen-rich water cup is ready, thereby ensuring the continuity and stability of the water treatment process, avoiding monitoring and processing anomalies caused by interruptions, and further improving the reliability and user experience of the present application, so that the hydrogen-rich water cup can continuously and effectively provide users with water that meets their needs.

[0067] In one embodiment, the step of acquiring the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction includes: S31: determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction; Specifically, according to the current time period and the solution library corresponding to the target user identifier in the water treatment instruction, the screened water treatment control solution is used as the initial water treatment control solution.

[0068] S32: Obtaining the current actual ambient temperature, current water quality data and historical drinking water data; The temperature of the environment where the hydrogen-rich water cup is located is obtained, and the obtained actual ambient temperature is used as the current actual ambient temperature.

[0069] Optionally, a water quality sensor may be installed in the hydrogen-rich water cup, and the water quality of the water in the water holding chamber may be detected by the water quality sensor. Therefore, the data detected in real time by the water quality sensor may be obtained as the current water quality data.

[0070] The historical drinking water data can be obtained from the preset storage space, from the client, or from a third-party application.

[0071] Historical drinking water data describes the drinking water data in history.

[0072] Optionally, historical drinking water data includes: time and water treatment control scheme.

[0073] Optionally, the historical drinking water data includes: time, water treatment control scheme and drinking water evaluation data. The drinking water evaluation data is the user's evaluation data on the water in the hydrogen-rich water cup.

[0074] S33: Generate first adjustment data according to the initial water treatment control scheme, and the current actual ambient temperature, the current water quality data and the historical drinking water data acquired in step S32; Optionally, the first adjustment data is determined by a table lookup method based on the initial water treatment control scheme, the current actual ambient temperature, the current water quality data and the historical drinking water data.

[0075] Optionally, a regular expression is used to calculate the index value of each evaluation index according to the initial water treatment control scheme, the current ambient temperature, the current water quality data and the historical drinking water data; and a table lookup method is used to determine the first adjustment data according to each index value.

[0076] Optionally, the initial water treatment control scheme, the current ambient temperature, the current water quality data and the historical drinking water data are spliced ​​and input into a pre-trained adjustment data prediction model for classification prediction, and the vector element with the largest value is selected from the predicted vector, and the classification category corresponding to the vector element is used as the first adjustment data.

[0077] The pre-trained adjustment data prediction model is a pre-trained multi-classification model. The model structure and model training method of the adjustment data prediction model can be selected from the existing technology and will not be described in detail here.

[0078] S34: updating the initial water treatment control scheme according to the first adjustment data to obtain the target water treatment control scheme.

[0079] Specifically, the initial water treatment control scheme is replaced and updated according to the first adjustment data, and the initial water treatment control scheme that has been replaced and updated is used as the target water treatment control scheme.

[0080] This embodiment updates the initial water treatment control scheme according to the initial water treatment control scheme, the current ambient temperature, the current water quality data and the historical drinking water data, so that the target water treatment control scheme is more in line with the time period, water quality, ambient temperature, and water usage habits, and meets the water demand in different scenarios.

[0081] In one embodiment, before the step of determining the initial water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: S3111: Based on the interaction module, obtain a solution generation instruction; The solution generation instruction is an instruction for generating a solution library for a user corresponding to the target user identifier in the water treatment instruction.

[0082] Specifically, the solution generation instruction input by the user through the interaction module may be obtained, or the solution generation instruction sent by a third-party application may be obtained through the interaction module.

[0083] S3112: Based on the interaction module, obtain and store the solution library corresponding to the target user identifier, wherein the solution library corresponding to the target user identifier is generated according to user basic information, physical data and disease data.

[0084] The basic information of the user includes: gender, age, occupation. Physical data is data describing the physical constitution of the user. Disease data is data describing the disease condition of the user.

[0085] Different genders, ages, and occupations have different needs for water, and thus different needs for water treatment control solutions. The determination of the amount of hydrogen added is based on the study of the absorption and utilization capacity of hydrogen by gender and age. The effect of music on the crystal form of water is obtained through multiple comparative experiments. When playing a specific type of music, the water crystals are observed under a microscope and found to have a more regular structure. At the same time, from a psychological perspective, the positive impact of music types on emotions is also supported by a large number of psychological studies. The setting of the vibration frequency is based on the study of the laws of motion of water molecules. For example, for young men (20-30 years old) with good physical fitness (no disease, strong body), the water treatment control plan includes: setting it to a medium hydrogen addition amount, adding 1.5-2.0ppm hydrogen per liter of water. This is because young men have a faster metabolism, and an appropriate amount of hydrogen helps to improve the body's antioxidant capacity and reduce the damage of free radicals to cells. The music player component plays music with a brisk rhythm and vitality. From a scientific research point of view, this type of music can make the crystal form of water more regular and beautiful. Psychologically, it can also stimulate young men's positive emotions and enhance their sense of vitality. The vibration component is set to low-intensity vibration with a vibration frequency of 100-150 times per minute. This low-intensity vibration can make water molecules move moderately and increase the activity of water, but it will not be too drastic to affect the stability of water.

[0086] Different diseases have different requirements for water, and thus different requirements for water treatment control solutions. For example, for diabetic patients (of any age and gender), the amount of hydrogen added is increased to 2.5-3.0ppm per liter of water. Hydrogen has antioxidant and anti-inflammatory effects. For diabetic patients, water with high hydrogen content helps to reduce oxidative stress and inflammatory response in the body and improve insulin resistance. The music player plays steady, moderately rhythmic light music, which can make the crystals of water present a more stable form. For diabetic patients, steady music helps to stabilize the emotional changes caused by blood sugar fluctuations, and is also conducive to the stability of the physical properties of water, making it more conducive to patients drinking. The vibration component is set to low-intensity vibration with a vibration frequency of 80-120 times per minute. The microvasculature of diabetic patients may have lesions. Low-intensity vibration can increase the activity of water without increasing the burden on the body, which helps to improve the water absorption of cells and relieve cell dehydration caused by high blood sugar. In diabetic animal model experiments, it was found that water with high hydrogen content can lower blood sugar levels and improve insulin sensitivity. Its mechanism is related to hydrogen reducing oxidative stress and inflammatory response and protecting the function of pancreatic β cells. The effect of light music on water crystallization is obtained through experimental observation. Steady music can keep water crystallization stable for a certain period of time. From the perspective of the emotional impact on diabetic patients, this kind of music helps to reduce the anxiety caused by blood sugar fluctuations in patients, thereby indirectly affecting the stability of blood sugar. This is based on the results of psychological intervention research on diabetic patients. The setting of the vibration frequency takes into account the microvascular lesions of diabetic patients. Low-intensity vibration affects the movement of water molecules. In cell experiments, it was found that it can improve the water absorption capacity of diabetic cells and improve cell dehydration.

[0087] Different systems have different demands for water, and thus different demands for water treatment control solutions. For example, for young male office workers (in good physical condition and without diseases), in the morning (6:00-8:00), the hydrogen preparation component adds hydrogen to the water at a lower hydrogen generation rate, for example, it is set to produce 5 ml of hydrogen per minute. This is because young male office workers have relatively good body metabolism and do not need excessively high concentrations of hydrogen supplementation. The right amount of hydrogen can play an antioxidant role and remove free radicals in the body; the music playing component plays classical music with a brisk rhythm. Brisk classical music helps water form a more regular crystal form. In theory, this crystal form may be more beneficial to the human body. Brisk music can make users start the day's work with a positive mood in the morning; the vibration component intensifies the movement of water molecules at a lower vibration frequency (such as 100 vibrations per minute). Appropriate vibration can make water molecules smaller, increase the activity of water, and make it easier to be absorbed by human cells. For another example, for a young male office worker (with good physique and no disease), the hydrogen generation rate of the hydrogen preparation component during the noon period (12:00-13:00) is slightly increased to 8 ml of hydrogen per minute. After lunch, the body needs more energy to digest food, and an appropriate increase in the amount of hydrogen can help reduce the body's oxidative stress response; the music playing component plays soothing light music, which helps to relax the user's body and mind and maintain the good crystal form of water; the vibration component maintains a frequency of 100 vibrations per minute to continuously maintain the activity of water. For another example, for a young male office worker (with good physique and no disease), the hydrogen generation rate of the hydrogen preparation component during the evening period (19:00-21:00) is reduced to 3 ml of hydrogen per minute. The body's metabolism gradually slows down at night, and there is no need for excessive hydrogen supplementation; the music playing component plays soft classical music, which helps water form a good crystal form and helps users relax and relieve fatigue from a day's work; the vibration component reduces the vibration frequency to 80 vibrations per minute to adapt to the slowed metabolism of the body at night, while maintaining a certain activity of water.

[0088] Optionally, the program generation instruction is parsed to obtain basic user information, physical data and disease data.

[0089] Optionally, in response to the solution generation instruction, basic user information, physical data and disease data input by the user are obtained.

[0090] Optionally, in response to the solution generation instruction, basic information, physical data and disease data of the user are obtained from a third-party application or a preset storage space.

[0091] The target solution group identifier is determined according to the user basic information, the physical data and the disease data. The water treatment control schemes for each time period are obtained from a preset standard library according to the target solution group identifier, and the obtained water treatment control schemes for each time period are stored in the solution library corresponding to the target user identifier.

[0092] Optionally, a table for basic user information, physical data and disease data may be generated in advance based on limited research and experiments, and then in actual application, a table lookup method may be used to determine the target solution group identifier based on the actual basic user information, physical data and disease data.

[0093] Optionally, training data can be obtained in advance based on limited research and experiments, and a solution recommendation model can be trained based on the obtained training data. Then, in the actual application process, the user basic information, the physical data and the disease data are spliced ​​and input into the pre-trained solution recommendation model for classification prediction, and the vector element with the largest value is extracted from the vector obtained by classification prediction, and the classification category (solution group identifier) ​​corresponding to the extracted vector element is used as the target solution group identifier.

[0094] The scheme group identifier includes at least one scheme identifier, which may be data uniquely identifying a water treatment control scheme, such as a scheme name and a scheme ID.

[0095] The solution library corresponding to the target user identifier is obtained from the client through the communication connection between the interaction module and the client, and the solution library corresponding to the target user identifier is stored in the storage space of the hydrogen-rich water cup.

[0096] This embodiment generates the solution library corresponding to the target user identifier based on the user basic information, the physical data and the disease data. By fully integrating the user basic information, the physical data and the disease data to construct the solution library, the initial water treatment control solution can be accurately tailored for different users to ensure that the solution is highly adapted to the user's unique condition. Both the particularity of the physical constitution and the influencing factors of the disease can be fully considered in the solution library, thereby making the water treatment control solution more scientific, reasonable and targeted, and can meet the personalized needs of users to a great extent.

[0097] In one embodiment, before the step of determining the initial water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: S3121: Based on the interaction module, obtain a solution sharing instruction; The solution sharing instruction is an instruction to obtain water treatment control solutions recommended by other users or management users.

[0098] Specifically, the solution sharing instruction input by the user through the interaction module may be obtained, or the solution sharing instruction sent by a third-party application may be obtained through the interaction module.

[0099] S3122: Based on the interactive module, a water treatment control solution is obtained according to the target solution group identifier in the solution sharing instruction, and a solution library corresponding to the target user identifier in the water treatment instruction is updated.

[0100] Specifically, through the interactive module, a water treatment control scheme is obtained from a client or other hydrogen-rich water cup according to the target scheme group identifier in the scheme sharing instruction, and the obtained water treatment control scheme is replaced and updated for the scheme library corresponding to the target user identifier in the water treatment instruction. Thus, all or part of the water treatment control schemes are updated for the scheme library corresponding to the target user identifier in the water treatment instruction.

[0101] This embodiment obtains the water treatment control scheme according to the target scheme group identifier in the scheme sharing instruction, and updates the scheme library corresponding to the target user identifier in the water treatment instruction, thereby realizing the sharing of the water treatment control scheme, and achieving efficient and accurate sharing of the water treatment control scheme among different users, so that users can easily obtain and use specific water treatment control schemes, thereby promoting the circulation of information and the sharing of resources.

[0102] In one embodiment, after the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the step further includes: S61: Based on the interaction module, obtaining drinking water evaluation data corresponding to the water treatment instruction; The drinking water evaluation data corresponding to the water treatment instruction is evaluation data of the water in the hydrogen-rich water cup (water obtained by water treatment based on the water treatment instruction) by the user corresponding to the water treatment instruction.

[0103] Optionally, the drinking water evaluation data describes a grade.

[0104] Optionally, the drinking water evaluation data describes an evaluation score.

[0105] Optionally, the user inputs drinking water evaluation data through the client.

[0106] Optionally, the user inputs drinking water evaluation data through the display screen of the hydrogen-rich water cup.

[0107] Optionally, the user inputs drinking water evaluation data through the operation button 232 and / or the display screen 231 of the hydrogen-rich water cup (for example, pressing once indicates an evaluation score of 1, and pressing twice indicates an evaluation score of 2).

[0108] S62: generating second adjustment data according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme; Specifically, the second adjustment data is determined by using a table lookup method according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme.

[0109] S63: updating the solution library corresponding to the target user identifier according to the second adjustment data.

[0110] Specifically, according to the second adjustment data, the water treatment control scheme corresponding to the target water treatment control scheme in the scheme library corresponding to the target user identifier is replaced and updated.

[0111] This embodiment generates second adjustment data according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme to update the scheme library corresponding to the target user identifier, thereby realizing self-learning of the scheme, which is beneficial to improving the adaptability of the scheme to the user.

[0112] In one embodiment, the target water treatment control scheme includes first control data and second control data, the first control data includes: one or more of music control data, vibration control data, heating control data, and hydrogen preparation control data, and the second control data is a null value or the second control data is color control data.

[0113] The music control data is data for controlling the music playing component to play music.

[0114] The vibration control data is data for controlling the vibration of the vibration component.

[0115] The heating control data is data for controlling the heating of the heating member.

[0116] The hydrogen production control data is data for controlling the hydrogen production component to produce hydrogen.

[0117] The color control data is data for controlling the operation of the light component of the hydrogen-rich water cup. The control unit controls the light component. The light component is controlled by the color control data to emit light, thereby indicating that the hydrogen-rich water cup is in water treatment through light emission, and providing interest for water treatment.

[0118] The target water treatment control scheme of this embodiment includes: first control data and second control data, thereby meeting different water treatment requirements.

[0119] See also Figure 4 As shown, in one embodiment, a device for adaptively controlling an interactive hydrogen-rich water cup is provided, the device is used to control the hydrogen-rich water cup, the hydrogen-rich water cup is provided with an interactive module, and the device comprises: An instruction acquisition module 11, used for acquiring water treatment instructions based on the interaction module; A time period determination module 12, used to obtain a current time period according to the water treatment instruction; A solution acquisition module 13, configured to acquire a target water treatment control solution according to the current time period and a solution library corresponding to the target user identifier in the water treatment instruction, wherein the solution library corresponding to the target user identifier is determined based on the interaction module; The water treatment control module 14 is used to control the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtain a water treatment end signal.

[0120] This embodiment obtains water treatment instructions and determines the current time period based on the interactive module, and then obtains the target water treatment control scheme corresponding to the current time period and the target user identifier. The target water treatment control scheme realizes flexible and precise control of the water treatment process of the hydrogen-rich water cup, and realizes interactive adaptive control of the hydrogen-rich water cup, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios.

[0121] In one embodiment, the device further comprises: a supplementary processing control module, wherein the supplementary processing control module is configured to: In response to the water treatment end signal, obtaining the current actual ambient temperature and using it as the first temperature; determining target interval data according to the first temperature; According to the target interval data, the current water volume in the hydrogen-rich water cup is obtained; If the current water volume of the hydrogen-rich water cup is greater than the water volume threshold, the current actual ambient temperature is obtained and used as the second temperature. According to the second temperature, the supplementary water treatment scheme corresponding to the target water treatment control scheme is updated to obtain the water treatment scheme to be treated. According to the water treatment scheme to be treated, the hydrogen-rich water cup is controlled to perform water treatment, a supplementary treatment end signal is obtained, and in response to the supplementary treatment end signal, the target interval data is initialized to a null value; If the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the target interval data is initialized to a null value.

[0122] In one embodiment, the step of acquiring the target water treatment control scheme according to the current time period and the scheme library corresponding to the target user identifier in the water treatment instruction in the scheme acquisition module 13 includes: Determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction; Obtain the current actual ambient temperature, current water quality data and historical drinking water data; Generate first adjustment data according to the initial water treatment control scheme, the current actual ambient temperature, the current water quality data and the historical drinking water data; The initial water treatment control scheme is updated according to the first adjustment data to obtain the target water treatment control scheme.

[0123] In one embodiment, the device further comprises: a solution library generation module, wherein the solution library generation module is used to: Based on the interaction module, obtaining a solution generation instruction; Based on the interaction module, the solution library corresponding to the target user identifier is acquired and stored, wherein the solution library corresponding to the target user identifier is generated according to basic user information, physical data and disease data.

[0124] In one embodiment, the device further comprises: a sharing module, wherein the sharing module is configured to: Based on the interaction module, obtaining a solution sharing instruction; Based on the interactive module, a water treatment control solution is obtained according to the target solution group identifier in the solution sharing instruction, and a solution library corresponding to the target user identifier in the water treatment instruction is updated.

[0125] In one embodiment, the device further comprises: a self-learning module, wherein the self-learning module is used to: Based on the interactive module, obtaining drinking water evaluation data corresponding to the water treatment instruction; generating second adjustment data according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme; The solution library corresponding to the target user identifier is updated according to the second adjustment data.

[0126] In one embodiment, the target water treatment control scheme includes first control data and second control data, the first control data includes: one or more of music control data, vibration control data, heating control data, and hydrogen preparation control data, and the second control data is a null value or the second control data is color control data.

[0127] In one embodiment, a hydrogen-rich water cup is provided, the hydrogen-rich water cup comprising an interaction module, a memory, a processor, and a computer program stored in the memory and executable on the processor, the processor being communicatively connected to the interaction module, and the processor implementing the following steps when executing the computer program: Based on the interaction module, obtaining water treatment instructions; According to the water treatment instruction, obtaining the current time period; Acquire a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; According to the target water treatment control scheme, the hydrogen-rich water cup is controlled to perform water treatment and a water treatment end signal is obtained.

[0128] This embodiment obtains water treatment instructions and determines the current time period based on the interactive module, and then obtains the target water treatment control scheme corresponding to the current time period and the target user identifier. The target water treatment control scheme realizes flexible and precise control of the water treatment process of the hydrogen-rich water cup, and realizes interactive adaptive control of the hydrogen-rich water cup, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios.

[0129] In one embodiment, a computer-readable storage medium is provided, wherein the computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the following steps are implemented: Based on the interaction module, obtaining water treatment instructions; According to the water treatment instruction, obtaining the current time period; Acquire a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; According to the target water treatment control scheme, the hydrogen-rich water cup is controlled to perform water treatment and a water treatment end signal is obtained.

[0130] This embodiment obtains water treatment instructions and determines the current time period based on the interactive module, and then obtains the target water treatment control scheme corresponding to the current time period and the target user identifier. The target water treatment control scheme realizes flexible and precise control of the water treatment process of the hydrogen-rich water cup, and realizes interactive adaptive control of the hydrogen-rich water cup, so that the hydrogen-rich water cup can better adapt to the drinking water needs in different scenarios.

[0131] It should be noted that the above functions or steps that can be implemented by the computer-readable storage medium or computer device can refer to the relevant descriptions on the server side and the client 1 side in the aforementioned method embodiment. To avoid repetition, they will not be described one by one here.

[0132] Those of ordinary skill in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be implemented by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in this application may include non-volatile and / or volatile memory. Non-volatile memory may include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory may include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink) DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM), etc.

[0133] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0134] The embodiments described above are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. Such modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention, and should all be included in the protection scope of the present invention.

Claims

1. A method for adaptive control of an interactive hydrogen-rich water cup, characterized in that: The method is used to control a hydrogen-rich water cup, wherein the hydrogen-rich water cup is provided with an interaction module, and the method comprises: Based on the interaction module, obtaining water treatment instructions; According to the water treatment instruction, obtaining the current time period; Acquire a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, wherein the scheme library corresponding to the target user identifier is determined based on the interaction module; According to the target water treatment control scheme, the hydrogen-rich water cup is controlled to perform water treatment and a water treatment end signal is obtained.

2. The adaptive control method for an interactive hydrogen-rich water cup according to claim 1, characterized in that: After the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the method further includes: In response to the water treatment end signal, obtaining the current actual ambient temperature and using it as the first temperature; determining target interval data according to the first temperature; According to the target interval data, the current water volume in the hydrogen-rich water cup is obtained; If the current water volume of the hydrogen-rich water cup is greater than the water volume threshold, the current actual ambient temperature is obtained and used as the second temperature. According to the second temperature, the supplementary water treatment scheme corresponding to the target water treatment control scheme is updated to obtain the water treatment scheme to be treated. According to the water treatment scheme to be treated, the hydrogen-rich water cup is controlled to perform water treatment, a supplementary treatment end signal is obtained, and in response to the supplementary treatment end signal, the target interval data is initialized to a null value; If the current water volume in the hydrogen-rich water cup is less than or equal to the water volume threshold, the target interval data is initialized to a null value.

3. The adaptive control method for an interactive hydrogen-rich water cup according to claim 1, characterized in that: The step of acquiring a target water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction comprises: Determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction; Obtain the current actual ambient temperature, current water quality data and historical drinking water data; Generate first adjustment data according to the initial water treatment control scheme, the current actual ambient temperature, the current water quality data and the historical drinking water data; The initial water treatment control scheme is updated according to the first adjustment data to obtain the target water treatment control scheme.

4. The adaptive control method for an interactive hydrogen-rich water cup according to claim 3, characterized in that: Before the step of determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: Based on the interaction module, obtaining a solution generation instruction; Based on the interaction module, the solution library corresponding to the target user identifier is acquired and stored, wherein the solution library corresponding to the target user identifier is generated according to basic user information, physical data and disease data.

5. The adaptive control method for an interactive hydrogen-rich water cup according to claim 3, characterized in that: Before the step of determining an initial water treatment control scheme according to the current time period and a scheme library corresponding to the target user identifier in the water treatment instruction, the method further includes: Based on the interaction module, obtaining a solution sharing instruction; Based on the interactive module, a water treatment control solution is obtained according to the target solution group identifier in the solution sharing instruction, and a solution library corresponding to the target user identifier in the water treatment instruction is updated.

6. The adaptive control method for an interactive hydrogen-rich water cup according to claim 3, characterized in that: After the step of controlling the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtaining a water treatment end signal, the method further includes: Based on the interactive module, obtaining drinking water evaluation data corresponding to the water treatment instruction; generating second adjustment data according to the drinking water evaluation data corresponding to the water treatment instruction and the target water treatment control scheme; The solution library corresponding to the target user identifier is updated according to the second adjustment data.

7. The adaptive control method for an interactive hydrogen-rich water cup according to claim 1, characterized in that: The target water treatment control scheme includes first control data and second control data, the first control data includes: one or more of music control data, vibration control data, heating control data, and hydrogen preparation control data, and the second control data is a null value or the second control data is color control data.

8. An adaptive control device for an interactive hydrogen-rich water cup, characterized in that: The device is used to control a hydrogen-rich water cup, and the hydrogen-rich water cup is provided with an interactive module. The device comprises: An instruction acquisition module, used for acquiring water treatment instructions based on the interaction module; A time period determination module, used to obtain a current time period according to the water treatment instruction; A solution acquisition module, used to acquire a target water treatment control solution according to the current time period and a solution library corresponding to the target user identifier in the water treatment instruction, wherein the solution library corresponding to the target user identifier is determined based on the interaction module; The water treatment control module is used to control the hydrogen-rich water cup to perform water treatment according to the target water treatment control scheme and obtain a water treatment end signal.

9. A hydrogen-rich water cup, characterized in that: The hydrogen-rich water cup includes an interactive module, a memory, a processor, and a computer program stored in the memory and executable on the processor. The processor is communicatively connected to the interactive module. When the processor executes the computer program, the steps of the adaptive control method for an interactive hydrogen-rich water cup as described in any one of claims 1 to 7 are implemented.

10. A computer-readable storage medium, characterized in that: The computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the steps of the method for adaptively controlling an interactive hydrogen-rich water cup as claimed in any one of claims 1 to 7 are implemented.

Images