DYNAMIC HUMIDIFICATION MONITORING SYSTEM
Patent Information
- Application Number
- TR202612177
- Authority / Receiving Office
- TR · TR
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2026-07-21
- Publication Date
- 2026-08-21
Smart Images
Figure 00000021_0000 
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Abstract
Description
1 TARIFF dynamic humidification monitoring system Technological Field: 5 This invention has applications in health and wellness, personal hydration tracking, sports and performance, corporate and work life, office use, travel, hospital and clinic practices, elderly care, chronic Support for disease monitoring, defense and field operations, intense physical activity Fields of study requiring smart wearable / IoT-based personal health technologies 10 It relates to dynamic humidification monitoring systems that can be used in various fields. State of the Art: Nowadays, monitoring individuals' daily fluid intake and ensuring they drink enough water is important. Various smart hydration monitoring systems and smart devices are being developed to encourage its consumption. Water bottles are used. In these systems, the user needs to use them at a specific time. to ensure that the baby consumes water at predefined intervals reminder mechanisms based on time intervals or the liquid inside the bottle 20 weight measurement systems for determining changes in quantity Smart water bottles used in this context are generally utilized for specific purposes. by sending notifications to the user at the end of the periods or changes in the liquid level By sensing the process, it helps track daily water consumption. Fixed-time reminder mechanisms used in known techniques require the user to... (25) regardless of the environmental conditions and changing daily fluid requirements It operates at predetermined time intervals. Ambient temperature, ambient environmental parameters such as humidity level and light conditions to which the user is exposed Although these parameters can affect hydration requirements, they are considered simultaneously. is not considered as such. Similarly, the user's sports, office work, 30 because it is used in different conditions such as travel, rest or sleep The timing and frequency of alerts may also vary depending on the changing needs that may arise. 2 This is not taken into sufficient consideration in determining the fixed time. Therefore, fixed time Reminder structures based on their ranges, especially high temperature, variable humidity in situations where fluid requirements may change, such as during challenging conditions or intense physical activity. It cannot accurately represent the user's actual hydration needs. Another shortcoming of current hydration tracking systems is that they fail to show the user's past fluid history. by analyzing consumer behavior over time and learning from the data obtained an adaptive analysis structure that dynamically updates the warning parameters according to The absence of this is related to users' daily routines, fluid intake amounts, and water drinking habits. Although their frequencies differ, in systems operating with fixed algorithms, 10 Personalized hydration based on users' individual consumption habits. Management cannot be performed. This situation results in similar warnings for different user profiles. the implementation of their timing and the adequacy of the warnings to actual consumer behavior This can lead to incompatibility, especially among elderly individuals, athletes, and those with intense physical activity. Individuals who engage in physical activity and special user 15 for whom hydration monitoring is important. The inability to adequately address individual needs within different groups is significant. It constitutes a limitation. In known techniques, the reminders given to the user are also usually uniform. It is based on notification mechanisms. If the user does not respond to the notification or 20 If no fluids are consumed for a certain period of time, the warning level is gradually reduced. a progressive alert that modifies or sequentially activates different types of alerts The absence of a structure can limit the effectiveness of recall. Repeated repetition of the same thing... These types of notifications, on the one hand, help the user become more aware of alerts over time. desensitization, on the other hand, unnecessary 25 under inappropriate usage conditions This can lead to discomfort. In addition, different uses... The fact that scenarios are not automatically evaluated means the system cannot adapt to changing daily conditions. This leads to an inability to adapt the stimulus behavior. However, in known hydration monitoring solutions, the amount of fluid consumed is considered an environmental 30 integrated analysis of parameters and user behavior data Limited technical infrastructure for this purpose; environmental factors such as daily and weekly hydration history. 3 This makes it difficult to evaluate the effects together. Different parameters need to be considered separately. The need to monitor through systems or devices increases system complexity and This can increase the need for additional hardware from the user's perspective. For these reasons... In the current state of the art, the amount of liquid consumed depends on environmental conditions and the user. real-time evaluation of user behavior learning their habits, adapting to different usage scenarios, and providing warnings. parameters are determined dynamically based on the data obtained. There are technical needs for improvement in these areas. Description of the invention: 10 The invention relates to the user's daily fluid intake to environmental conditions and individual consumption. by enabling dynamic evaluation in line with their habits It offers personalized hydration management. Located in the lower body. Instantaneous determination of liquid consumption amount via a sensitive weight sensor; 15 Ambient temperature and humidity are monitored via the environmental sensor infrastructure located in the cover section. thanks to the simultaneous acquisition of data on the rate and light exposure Hydration monitoring is performed based on multiple parameters. Thus... Fluid consumption depends not only on the time of day but also on the environment in which the user is located. It is made possible to manage the situation by taking into account the changing conditions. 20 The AI-powered adaptive analysis engine and weight sensor used in the invention. data obtained from sensors relating to temperature, humidity and light exposure It works in conjunction with the user's past fluid intake habits. User personalized daily 25 thanks to learning their behaviors over time Dynamic calculation of hydration requirements and warning thresholds obtained It is updated according to the data. This structure varies on a user-by-user basis. taking consumption habits into account, timing the warnings over time to make it more accurate and beyond general hydration recommendations This allows for the creation of a follow-up process tailored to individual needs. 30 4 By incorporating environmental parameters into hydration management, the system adapts to changing conditions. Dynamically adjusting alert frequency and hydration target according to environmental conditions. It can regulate [temperature], especially changes in temperature and humidity, and light. Analyzing data on exposure, the environment in which the user is located It allows for the assessment of its effect on hydration requirements. This is 5 in addition, the system adapts to different usage scenarios such as sports, office, travel and sleep. to be able to provide, hydration targets and warning behaviors are subject to the terms of use. This allows for reorganization according to daily life. Thus, the system adapts to daily life. a dynamic hydration monitoring system that can adapt to changing conditions It consists of 10 The progressive alert architecture used in the invention prevents the user from consuming liquids for an extended period. This ensures that warnings are issued gradually. In the first stage... A visual warning is created via an LED light ring, indicating liquid consumption. If this does not happen and the specified time is extended, the vibration mechanism will be activated. 15 This is achieved through the gradual use of light and vibration-based alerts. The user is initially presented with a reminder that has a lower level of intervention. And the effectiveness of the alert is enhanced when needed. This improves the user experience. An effective and conditional reminder mechanism without negatively impacting the user. is provided. 20 Liquid consumption and environmental sensor data obtained by the system are transmitted via Bluetooth. transferring the user's hydration process to the mobile application via communication It allows for real-time tracking. Mobile application through daily and weekly hydration history, daily goals and environmental 25 It is possible to analyze the effects of these conditions on fluid intake. The data infrastructure allows the user to see not only their instantaneous liquid consumption but also, at specific times... consumption trends in different ranges and hydration behavior in relation to environmental parameters It also enables them to evaluate the relationships between them. The invention's capabilities include weight measurement, environmental data collection, adaptive analysis, and behavioral learning. progressive alerting and wireless data transmission functions integrated into a system architecture. Performing various technical functions within a single device It enables the execution of separate measurements and functions thanks to multi-sensor integration. The ease of use of the system is increased by reducing the need for tracking devices, and Additional device costs can be avoided. Embedded systems, artificial intelligence, and machine learning, internet of things, biomedical engineering and human-computer science 5 This integrated structure, which brings together the disciplines of interaction, is hydration. management includes measurement, analysis, decision-making, alert generation, and user feedback. It allows the implementation stages to be carried out in a coordinated manner. The customizable and adaptable nature of the invention makes it suitable for daily individual use as well as healthcare. and wellness practices, sports and performance tracking, corporate work environments, senior citizens different It provides applicability in various fields of use. For athletes' training and... monitoring changing fluid needs during competition processes, for desk workers Monitoring daily water consumption habits of elderly 15-year-olds who are at risk of forgetting to drink water. support for individuals and hydration for personnel working in challenging environmental conditions. It can be adapted to different scenarios, such as managing the condition. Also, hydration. chronic conditions such as kidney disease and diabetes, for which monitoring is important in individuals and in hospital or clinical settings, medical evaluation and professional Personalized hydration tracking without replacing healthcare services 20 It has the potential to be used as a supporting tool. Thus, the invention, considering environmental conditions and individual consumption behaviors together, over time including features that adapt to the user and can adapt to different usage scenarios. It offers an integrated hydration management infrastructure. Explaining the Figures: The invention will be described by referring to the attached figures, so that the features of the invention can be explained. It will be understood and appreciated more clearly, but the purpose of this invention is this obvious It is not about limiting it with regulations. On the contrary, the invention is defined by the accompanying claims. all alternatives, modifications, and options that could be included within the defined area The aim is to cover their equivalences. The details shown are only for the present invention. 6 It is shown to illustrate the preferred arrangements and both the methods shaping, as well as the rules and conceptual features of the invention, in the most useful way. It should be understood that they are presented to provide a readily understandable definition. This in the drawings; Figure 1 is a perspective view of the system. Figure 2 shows the internal detail and schematic view of the system. Illustrations that will help understand this invention are shown in the attached image. They are numbered and listed below with their names. 10 Explanation of References: 1. Screw-on top cover 2. Leakproof gasket layer 15 3. LED light ring 4. Cover electronic circuit board 5. Top connection and sensor carrier layer 6. Internal liquid transport body 7. External protective casing structure 20 8. Bottom sensor module connection 9. Lower main body unit 10. Charging and power connection port 11. Main processor control board 12. Precision weight sensor housing 25 13. Liquid consumption measurement sensor 14. Internal cover connection passage area 15. Microcontroller operation module 16. Bluetooth / wireless communication module 17. Battery power unit 30 18. Sensor data transmission cable 19. Sub-data processing circuit 7 20. Power input port 21. Ambient temperature sensor 22. Moisture analysis data field 23. Ambient light / sun exposure perception 24. Multiple environmental sensor card 5 25. Adaptive artificial intelligence analysis engine 26. Mobile application data interface 27-Level User Alert Panel 28. Desk-based usage scenario 29. Daily fluid intake perception process 10 30. Activity / sport usage scenario 31. Mobile tracking and data synchronization 32. Night mode / sleep tracking status Description of the Invention: 15 The invention is an internal liquid transport body (6) that contains the liquid, the internal liquid transport an outer protective housing structure (7) surrounding the body (6) in the lower part of the system a lower main body unit (9) containing electronic and sensor components, flask By detecting weight changes depending on the amount of liquid inside, it adjusts the amount of liquid consumed to 20. a liquid consumption measurement sensor (13) determines the liquid consumption measurement a sub-data processing circuit (19) that processes the data obtained from the sensor (13), system a system that controls its components and coordinates data processing operations Main processor control board (11) performs data processing operations carried out by the system. a microcontroller processing module (15) that runs an ambient temperature sensing ambient temperature 25 temperature sensor (21), humidity analyzer that enables processing of data on ambient humidity. data field (22), an ambient light / solar field that detects ambient light and / or solar exposure. perception of exposure (23), ambient temperature, ambient humidity and ambient light and / or sun a multi-environmental sensor card that processes environmental data relating to exposure (24), Liquid consumption data obtained from the liquid consumption measurement sensor (13) and multiple environmental 30 Environmental data obtained from the sensor card (24) and past consumption data of the user an adaptive system that processes data and adaptively determines hydration stimulus parameters. 8 The artificial intelligence analysis engine (25) wirelessly processes hydration and sensor data. a Bluetooth / wireless communication module (16) transmitting gradual information to the user a tiered user alert panel (27) that enables the creation of alerts and the system a battery power unit that provides electrical energy to electronic components (17) It includes 5. The invention consists of a screw-on top cover (1) which closes the top part of the system by opening and closing it, and the passage of liquid between the screw-on top cover (1) and the inner liquid transport body (6) It has a limiting leak-proof gasket layer (2). The invention relates to an LED light ring (3) that creates a visual warning to the user and liquid consumption. Depending on the time it does not occur, the LED light ring (3) and vibration It has a stepped user alert panel (27) that activates the warning gradually. The invention relates to the electrical connections between the electronic components in the cover section. 15 The cover that provides electronic circuit board (4), carrying environmental sensor components on top electrical connection between the sensor carrier layer (5) and electronic components It has an internal connection passage area (14) that enables data connection passage. The invention is a sub-section 20 that provides the connection between the sensor components in the lower section and the body. sensor module connection (8) and sensor data between electronic components The transmitting sensor has a data transmission cable (18). The invention includes a liquid consumption measurement sensor (13) within the lower main body unit (9). It has a precision weight sensor housing (12) that positions the battery energy 25 to the charging and power connection port (10) and the system which enables the unit (17) to be charged It has a power input connection point (20) that provides electrical energy input. The invention incorporates fluid consumption data, daily hydration targets, environmental impact data, and Mobile application data interface (26) 30 which displays hydration history data has. 9 The invention analyzes user data related to desktop use. scenario (28), activity / sports usage scenario (30) and night mode / sleep monitoring Adaptive artificial intelligence analysis that determines the study parameters regarding the situation (32) It has a motor (25). The invention is a method for implementing a dynamic humidification monitoring system. within this context, depending on the weight change of the amount of liquid inside the bottle measuring the weight change and determining daily fluid intake determination of ambient temperature, ambient humidity and ambient light and / or sun exposure Simultaneous acquisition of related environmental data, liquid consumption data obtained 10 data, including environmental data and liquid consumption data, are transferred to the data processing unit. Adaptive analysis of environmental data, including the user's past liquid consumption Analyzing data to determine parameters related to consumer behavior, Hydration alerts are created using parameters related to consumption behavior and environmental data. Dynamic determination of parameters and the determined hydration alert 15 The process includes steps for generating user alerts based on the specified parameters. The invention involves determining the period during which the user does not consume liquids, and the first stage of the determined period. If the warning threshold value is reached, a visual warning is generated and the relevant Vibration warning is activated when the duration reaches the second warning threshold value. 20 It includes the steps involved in the process. The invention relates to the user's fluid intake in response to a generated hydration stimulus. recording behavior, past consumption of recorded liquid consumption behavior to be analyzed together with the data and according to the result of that analysis, the next 25 This includes the steps for updating the threshold value for the hydration alert. The invention involves analyzing user data, and that data Accordingly, desk use scenario (28), activity / sports use scenario (30) and setting one of the night mode / sleep monitoring status (32) and the set usage 30 Updating hydration alert parameters according to your condition - process steps It includes. The invention enables the wireless communication of liquid consumption data and environmental data via mobile devices. transferring the transferred data to the application, synchronizing the transferred data with the mobile application, and Daily and / or weekly hydration data in the mobile application data interface. It includes the steps involved in creating it. 5 Detailed Description of the Invention: The invention enables the measurement of a user's daily fluid intake and the simultaneous monitoring of environmental conditions. This is perceived as the data obtained being linked to the user's past consumption behavior. Analyzing them together and, based on the analysis results, providing dynamic hydration cues. a dynamic humidification monitoring system that operates on the principle of creation The system consists of everything from the physical containment of the liquid to the liquid consumption. from the perception and collection of environmental data to its adaptive processing, to the user The transfer of data obtained from the phased warning system to the mobile application is 15. It performs a series of interconnected technical processes in an integrated manner. The upper section of the system will provide the user with access to the internal fluid transport body. There is a screw-on top cover (1) that can be opened and closed. The screw-on top cover (1) When the lid is closed, the liquid passes from the lid area to the outside environment. 20 between the screw top cover (1) and the inner liquid transport body (6) in order to restrict it. The leak-proof gasket layer (2) is positioned. The leak-proof gasket layer (2), the liquid in the internal liquid transport body (6) during the use and transport processes of the system It limits leakage from the lid connection area. In the upper section located between the screw-on top cover (1) and the inner liquid transport body (6), LED light ring (3) to create visual notification for the user It is positioned. The LED light ring (3) determines the hydration level as set by the system. If the warning conditions are met, the user should be given a visual warning in the first instance. It provides. If the user does not consume liquid within the specified time, the contract expires. The subject is further explained via the gradual user warning panel (27) after the visual warning. Advanced warning levels are activated. 11 Electrical connections of the electronic components in the cover section of the system For the purpose of implementation, the cover electronic circuit board (4) is used. Cover electronic circuit board (4), sensor and control components located in the cover section It supports them establishing electrical and / or data communication with each other. Cover 5 the sensor components in the section are moved to designated locations and with the cover structure Upper link and sensor carrier layer (5) for mechanical connection It is used. Between the electronic and sensor components located in the cover section. ensuring that electrical and / or data connections are routed through appropriate routes. In order to provide this, an internal connection passage area (14) is created inside the cover. 10 The inner liquid carrying body (6) contains water or similar potable liquid offered for the user’s consumption. It forms the basic volume in which the liquid is stored. The inner liquid transport body (6) an outer protective body structure (7) is located around it and the said outer protective body structure (7), internal liquid transport body (6) protected from environmental and mechanical effects 15 It contributes to the protection of the system with the inner fluid transport body (6) and the lower part of the system. mechanical and / or functional connection between the sensors and electronic components found The lower sensor module connection (8) is used for its establishment. The lower part of the system contains the lower main body unit (9) and the said lower main 20 body unit (9), measuring liquid consumption, processing data in the sub-section and energy electronic and sensor components used to establish the connections It contains the liquid consumption measurement sensor in the lower main body unit (9). (13) precision weight for the purpose of protecting and holding it in the specified measurement position The sensor housing (12) is located. Precision weight sensor housing (12) 25 Liquid consumption measuring device located inside or in a position associated with the said enclosure. The sensor (13) detects changes in the total weight inside the flask. It generates measurement data regarding the amount of liquid in the inner liquid transport body (6). Weight measurements performed by the liquid consumption measurement sensor (13) are specific to 30 during time intervals or under measurement conditions determined by the system the fluid performed by the user is compared and the reduction in weight is determined. 12 The amount of fluid consumed is determined. Daily fluid intake is calculated in this way. perception process (29), the user’s water consumption within a specific time period monitoring and subsequent analysis of the consumption data obtained It enables its use. Data obtained from the liquid consumption measurement sensor (13), The data is received by the sub-data processing circuit (19) located in the lower section and the relevant data is 5 It is subjected to processing operations. The lower data processing circuit (19) processes the measurement obtained from the liquid consumption measurement sensor (13). the data is made suitable for transfer to other data processing components within the system It carries out the operations for bringing it in. Sensor 10 obtained in the lower section. Sensor data is transmitted to other electronic components of the system. Data transfer cable (18) is used. Sensor data transfer cable (18) is located in the lower section. It ensures that the collected data is transferred to the relevant processing and control components. The overall electronic control of the system and the 15 between different data processing operations Main processor control card (11) for the purpose of coordination is used. The main processor control board (11) receives information from the sensors in the system and related processes relating to the processing of data obtained from electronic circuits It ensures coordination. Data processing and coordination performed by the system. The microcontroller processing module (15) is involved in the execution of the control processes. 20 and the microcontroller processing module (15) receives the sensor data, relevant for transmitting information to components and controlling the system's operational processes. It performs the operations. In order for the system to determine environmental conditions, multiple environmental parameters are considered. 25 It is monitored in a timely manner. The ambient temperature sensor (21) monitors the user's location. It generates measurement data regarding the ambient temperature. Humidity analysis data field (22), Evaluation of the data obtained regarding ambient humidity and relevant humidity information. It ensures that the ambient light / sun exposure perception is included in the data processing process. (23), 30 regarding the light level and / or sun exposure of the environment in which the user is located It enables the perception of data. 13 From the ambient temperature sensor (21), the humidity analysis data field (22) and ambient light / sun Environmental data obtained from exposure perception (23), multiple environmental sensor card (24) They are collected in a way that is suitable for joint evaluation through multiple environmental factors. sensor card (24), integrated sensor data relating to different environmental parameters and the data in question to be transferred to the system and used in the adaptive analysis process 5 This enables the use of ambient temperature, humidity level and light and / or Different environmental variables, such as sun exposure, affect the same hydration management process. It is being evaluated within this context. Liquid consumption data obtained from the liquid consumption measurement sensor (13) and multiple environmental 10 Environmental data obtained from the sensor card (24) are fed into the adaptive artificial intelligence analysis engine. (25) is transferred. The adaptive artificial intelligence analysis engine (25) transfers the current data in question. It analyzes the user's past fluid consumption data along with adaptive data. artificial intelligence analysis engine (25) determines in which time intervals and in which environmental conditions the user Behavioral patterns regarding fluid intake under certain conditions over time 15 evaluating and determining hydration stimulus parameters according to the analysis results obtained. It determines this adaptively. Adaptive artificial intelligence analysis engine (25) analyzes the user's past consumption behaviors as well as taking into account the current environmental conditions, warning thresholds and warning 20 It ensures that the timing is dynamically updated. In this context, the environment new results obtained from environmental conditions such as changes in temperature and humidity The data is incorporated into the analysis process and used by the user in hydration management. The parameters are being re-evaluated in light of this data. Thus, the system's operating mode is based on a single, predetermined fixed time interval of 25. adaptively based on sensor and user data obtained without being tied to a power source. is being carried out. The system evaluates user usage data and identifies different usage patterns. It can create working parameters according to the conditions. The user is at their desk for 30 minutes. and situations involving relatively low physical activity, desk-based usage scenario. (28) is evaluated within the scope of the user's running, exercise or similar activities. 14 situations in which physical activities are performed activity / sports use scenario (30) is evaluated within this scope. The user is in a resting or sleeping state. These situations are evaluated within the scope of night mode / sleep monitoring status (32). Adaptive artificial intelligence analysis engine (25), according to the usage and consumption data obtained, 5 Identifying the operational parameters associated with the use cases in question and hydration warning parameters should be adjusted according to the relevant usage conditions. It provides. The user receives hydration warnings for a specific period of time within the defined parameters. If it is determined that the user has not consumed any liquid throughout the period, the graded user warning panel (27) It is put into operation. The tiered user warning panel (27) is the first step of the warning process. by activating the LED light ring (3) in this stage, it provides the user with a visual It creates a reminder. Despite the visual alert, the user must remain within the specified time. not consuming fluids and the duration of fluid retention is a further warning threshold of 15. If it reaches a certain value, a vibration-assisted warning is activated. This is how the warning is given. its density gradually increases depending on the duration of time during which no fluid is consumed. is being increased. The user's fluid intake after the hydration alert is generated, fluid 20 through the weight change caused by the consumption measurement sensor (13) is being re-perceived. Fluid consumption behavior perceived after the warning. The user's history is recorded and analyzed by the adaptive artificial intelligence analysis engine (25). It is evaluated together with consumption data. As a result of the evaluation obtained... Data on the user's response to the alerts will be used for subsequent hydration alerts. It is used in timing and updating the relevant threshold values. Thus, the system analyzes the user's consumption habits and responses to alerts over time. It continues the adaptive analysis process by learning the behaviors it exhibits in response. Hydration and sensor data processed by the system are transmitted to an external user interface. A Bluetooth / wireless communication module (16) is used for transmission. Bluetooth / wireless communication module (16), liquid consumption data, environmental sensor data and related hydration data generated by the system via wireless communication. This enables the transfer of data from the mobile application. The transferred data is then transferred to the mobile application. The application is presented to the user via the data interface (26) and the user's liquid consumption amount, daily hydration goals, hydration history, and environmental impact. It is ensured that the data is tracked. 5 Obtained by the system within the scope of mobile tracking and data synchronization (31) Data is synchronized with the mobile application. Mobile tracking and data. synchronization (31), of current liquid consumption data and past consumption information This enables them to be tracked together. The data in question is mobile application data 10 daily and / or weekly hydration processing and display in the interface (26) This allows the user to monitor information related to environmental conditions. By evaluating the data together with liquid consumption data, the user The relationship between hydration behavior and environmental conditions is shown in the mobile application data interface. (26) It is possible to examine it through. 15 The electrical energy required for the operation of the system's electronic components is battery power. Battery energy unit (17) is provided by (17). Battery energy unit (17) is re-energized The charging and power connection port (10) is used for power supply. External to the system Power input port (20), charging and power connection port 20 It ensures the transmission of electrical energy to the system in relation to (10). in this way sensors, data processing circuits, processor and control components, wireless energy required for the operation of the communication module and user alert components is provided. During the invention's working process, the liquid located in the inner liquid transport body (6) The amount is monitored by the liquid consumption measurement sensor (13) depending on the weight change. daily liquid consumption perception process performed by the user (29) Within this scope, the consumption amount is determined, and simultaneously the ambient temperature sensor is used. (21), associated with the humidity analysis data field (22) and ambient light / sun exposure perception (23) 30 Environmental data are collected on a multi-environmental sensor card (24), and the consumption and obtained data are collected. Environmental data is analyzed in an adaptive artificial intelligence engine (25) with historical user data. 16 They are evaluated together, and based on the evaluation results, user-specific hydration alerts are provided. parameters are determined, and if necessary, a tiered user warning panel (27) Through this method, visual and, in a later stage, vibration-assisted alerts are generated, warning The consumption behavior that occurs afterwards is fed back into the system, and the resulting Data is transmitted to the mobile application via the Bluetooth / wireless communication module (16). Mobile tracking and data synchronization (31) by transferring to the interface (26) is being carried out. 15 25
Claims
17 REQUESTS 1- The invention relates to a dynamic humidification monitoring system, the characteristic of which is; an internal liquid transport body that holds the liquid (6), an outer protective housing structure surrounding the inner liquid transport body (6) 5 (7), a sub-main that houses the electronic and sensor components in the lower part of the system body unit (9), By detecting weight changes depending on the amount of liquid in the bottle, it adjusts the liquid level. a liquid consumption measurement sensor (13) that determines the amount of consumption, 10 a processing of data obtained from the liquid consumption measurement sensor (13) sub-data processing circuit (19), control of system components and coordination of data processing operations a main processor controller card (11) a microcontroller that performs data processing operations carried out by the system 15 controller operation module (15), an ambient temperature sensor that detects ambient temperature (21), A humidity analysis data field that enables the processing of data related to ambient humidity. (22), an ambient light / sun 20 that detects ambient light and / or sun exposure perception of exposure (23), related to ambient temperature, ambient humidity and ambient light and / or sun exposure a multi-environmental sensor card that processes environmental data together (24), Multiple liquid consumption data obtained from the liquid consumption measurement sensor (13) Environmental data obtained from the environmental sensor card (24) and user data 25 By processing historical consumption data, it adaptively adjusts hydration alert parameters. an adaptive artificial intelligence analysis engine that determines (25), a device that wirelessly transmits processed hydration and sensor data Bluetooth / wireless communication module (16), A tiered system that enables the creation of tiered alerts for the user. User warning panel (27), 18 a battery that provides electrical energy to the electronic components of the system unit (17) It is characterized by containing . 2- The dynamic humidification monitoring system mentioned in Claim 1 is characterized by its upper 5-degree humidity control system. to the screw-on top cover (1) which closes the section by opening and closing and the said screw-on limiting the passage of liquid between the top cover (1) and the inner liquid transport body (6) It is characterized by having a leak-proof gasket layer (2). 3- The dynamic humidification monitoring system mentioned in Claim 1 has the following feature; it provides the user with 10 to the LED light ring (3) which creates a visual warning and where no liquid consumption occurs Depending on the duration, the LED light ring (3) and vibration warning will be activated gradually. It is characterized by having a stepped user warning panel (27) which activates it. It is done. 4- The dynamic humidification monitoring system mentioned in Claim 1, its feature is; lid cover that provides electrical connections between electronic components in the compartment electronic circuit board (4), upper connection carrying environmental sensor components and sensor electrical and / or data link between carrier layer (5) and electronic components 20 is characterized by having an internal connection passage area (14) that allows passage. It is done. 5- The dynamic humidification monitoring system mentioned in Claim 1 has the following feature: bottom The lower sensor module provides the connection between the sensor components in the section and the housing. connection (8) and sensor data transfer between electronic components 25 It is characterized by having a transmission cable (18). 6- The dynamic humidification monitoring system mentioned in Claim 1, its feature is; liquid consumption precision weight which positions the measuring sensor (13) inside the lower main body unit (9) It is characterized by having a sensor housing (12). 30 19 7- The dynamic humidification monitoring system mentioned in Claim 1 is characterized by its battery. to the charging and power connection port (10) which enables the charging of the power unit (17) and having a power input connection point (20) that provides electrical energy input to the system It is characterized by... 8- The dynamic humidification monitoring system mentioned in Claim 1 is characterized by its liquid consumption. data relating to daily hydration goals, environmental impact data, and hydration history. It is characterized by having a mobile application data interface (26) that displays data. It is done. 9- The dynamic humidification monitoring system mentioned in Claim 1 is characterized by its ability to provide the user with: By analyzing the usage data related to the desk usage scenario (28), activity / sports study on usage scenario (30) and night mode / sleep monitoring status (32) with having an adaptive artificial intelligence analysis engine (25) that determines its parameters It is a characterization. 15 10- The invention is a method for implementing a dynamic humidification monitoring system. Its characteristic is; Measuring the amount of liquid inside the water bottle based on weight change and Determining the daily fluid intake amount from the weight change in question, 20 related to ambient temperature, ambient humidity and ambient light and / or sun exposure Simultaneous acquisition of environmental data, Liquid consumption data and environmental data obtained are transferred to the data processing unit. transfer, Adaptive analysis of liquid consumption data and environmental data, 25 By analyzing the user's past liquid consumption data, consumption behavior can be determined. determining the related parameters, using parameters related to consumption behavior and environmental data Dynamic determination of hydration stimulus parameters, User alert based on defined hydration alert parameters 30 It includes the steps involved in creating it. 11- The method mentioned in claim 10, its characteristic is; the period during which the user does not consume liquids The visual will be displayed if the specified time period reaches the first warning threshold value. the creation of the warning and the time period in question reaching the second warning threshold value It is characterized by including the steps to activate the vibration warning in this case. It is done. 5 12- This is the method mentioned in Request 10, and its feature is that the user creates a hydration level. Recording the fluid consumption behavior of the individual in response to the warning, the recorded fluid analyzing consumption behavior together with past consumption data and the aforementioned Updating the threshold value for the next hydration alert based on the analysis result. 10 It is characterized by the fact that it includes steps. 13- The method mentioned in claim 10, its characteristic is; user-related usage. Analyzing the data and using that data for desk work. scenario (28), activity / sports usage scenario (30) and night mode / sleep monitoring 15 Determining one of the (32) conditions and hydration according to the determined usage condition. It is characterized by including steps for updating the warning parameters. 14- The method mentioned in Claim 10, its characteristic is; liquid consumption data and environmental data is transferred to the mobile application via wireless communication, and the transferred data is 20 Syncing with the mobile application and daily and / or weekly hydration This includes the steps for generating the data in the mobile application data interface. It is the characterization of the situation. 30