Health service system and method based on automobile

Abstract

The invention discloses a health service system and method based on an automobile, the health service system comprises a sensing terminal, an intelligent cabin system, an intelligent health platform and a health service module, the sensing terminal comprises a camera, an automobile control watch and an environment detection sensor, the camera and the environment detection sensor are installed in the automobile, and the automobile control watch is connected with the camera and the environment detection sensor. The vehicle control watch is worn on the arm of a vehicle owner, the intelligent cabin system is in bidirectional connection with the sensing terminal, the intelligent health platform is in bidirectional connection with the intelligent cabin system, the health service module is in input connection with the intelligent health platform, and the health service module comprises a personalized health suggestion unit, a remote medical support unit and a health file management unit. Therefore, the health state of the passenger and the environment in the vehicle are monitored in real time through various sensors, data analysis and processing are carried out through the intelligent health platform, and personalized health suggestions and remote medical support are provided. And the healthy and comfortable cabin experience of the user is further ensured.

Description

Technical Field

[0001] The present application relates to the technical field of automobile health services, and in particular to a health service system and method based on automobiles. Background Art

[0002] At present, although new energy vehicles have played a positive role in reducing environmental pollution, the monitoring of in-car air quality and driver health status has not been effectively solved. When passengers are in a closed car environment for a long time, poor air circulation or increased concentration of harmful gases may have a negative impact on health. In addition, driver fatigue driving or sudden health problems may also lead to danger. Summary of the invention

[0003] The present application aims to solve one of the technical problems in the related art at least to some extent.

[0004] To this end, one purpose of this application is to propose a car-based health service system and method, which can monitor the health status of passengers and the in-car environment in real time through multiple sensors, and analyze and process data through an intelligent health platform to provide personalized health advice and telemedicine support, further ensuring a healthy and comfortable cabin experience for users.

[0005] To achieve the above-mentioned objectives, the first aspect embodiment of the present application proposes a car-based health service system, including a sensing terminal, a smart cockpit system, a smart health platform and a health service module, wherein the sensing terminal includes a camera, a car control watch and an environmental detection sensor, wherein the camera and the environmental detection sensor are respectively installed in the car; the car control watch is worn on the owner's arm; the smart cockpit system is bidirectionally connected to the sensing terminal; the smart health platform is bidirectionally connected to the smart cockpit system; the health service module input is connected to the smart health platform, wherein the health service module includes a personalized health advice unit, a telemedicine support unit and a health record management unit, wherein the personalized health advice unit input is connected to the smart health platform; the telemedicine support unit is connected to the medical service platform; the health record management unit is connected to the mobile phone APP and the vehicle-mounted health platform.

[0006] In addition, the automobile-based health service system and method proposed in the present application may also have the following additional technical features: In one embodiment of the present application, the smart cockpit system includes a health reminder module, a safety alarm unit and a personalized setting feedback unit, wherein the health reminder module is bidirectionally connected to the perception terminal; the safety alarm unit is arranged in the car, and the safety alarm unit and the health reminder module are electrically connected; the personalized setting feedback unit is arranged in the car.

[0007] In one embodiment of the present application, the smart health platform includes a data acquisition and analysis module, a health assessment and prediction module, and a user data cloud storage and synchronization module, wherein the data acquisition and analysis module is electrically connected to the perception terminal; the health assessment and prediction module is electrically connected to the data acquisition and analysis module; and the user data cloud storage and synchronization module is electrically connected to the health assessment and prediction module.

[0008] In one embodiment of the present application, the control method of the health service system: S1: Perception terminal: responsible for collecting data on the health status of passengers and the in-car environment. The camera collects the driver's eye movements in real time to detect fatigue and distracted driving. The car control watch collects heart rate, blood oxygen, breathing and other physiological conditions in real time. The environmental detection sensor detects environmental factors such as air quality, temperature, humidity, and noise in real time. S2: Intelligent cockpit system: Through the data interaction between the vehicle system and the perception terminal, the in-vehicle environment is dynamically controlled. According to the data from the perception terminal, the environmental parameters in the car are adjusted and the final health feedback is integrated and presented, including health prompts, safety alarms and personalized setting feedback modules. Health prompts mean that when abnormal physiological parameters of the user are detected, such as high heart rate or decreased blood oxygen level, the system will issue a health alarm and suggest that the occupants take necessary measures (such as rest, deep breathing, etc.). Safety alarms mean that the driver shows signs of fatigue driving (such as reduced eye movement and slow breathing). The system will remind the driver through sound or vibration and suggest rest. If the situation is serious, the system may take over part of the driving control (such as turning on the automatic driving mode). Personalized setting feedback means that the system can provide personalized settings for each occupant based on the user's health status and historical data. For example, by analyzing heart rate variability and breathing rate, the system can adjust the rhythm of the music and seat posture in the car to help the occupants relax. S3: Intelligent health platform: used to process data collected by sensing terminals, provide data analysis, health status assessment and feedback. Data collection and analysis is to collect physiological and environmental data from sensing terminals in real time, and perform preliminary data cleaning and formatting. In combination with big data algorithms and AI technology, it conducts a comprehensive analysis of the physiological parameters of the occupants to determine the health status and environmental adaptability of the occupants. Through deep learning algorithms, it can predict the potential health risks of the occupants, such as heart problems and breathing difficulties. The health assessment and pre-test platform can evaluate the health status of the occupants in real time, such as heart rate fluctuations, abnormal breathing patterns, etc. Based on historical data, it conducts trend analysis on the health status of the occupants, predicts possible health problems, and provides early warnings. The cloud storage and synchronization of user data is the synchronization of data between the system and the cloud server through the vehicle network. Users can view health reports and in-vehicle environmental status through mobile phone apps or web platforms. At the same time, the system can also integrate data with other health devices of the occupants (vehicle control watches) to achieve all-round health monitoring. S4: Health service module: Through the in-vehicle and out-of-vehicle platforms, the system cooperates with third-party health management service providers to provide users with personalized health advice, intervention plans and telemedicine support. Based on the platform analysis results, the system provides users with personalized health advice. Telemedicine support means that the system can cooperate with third-party medical service providers to provide remote health monitoring and emergency medical services. When serious health risks (such as heart problems) are detected, the system can automatically contact medical services, provide remote consultation and even emergency rescue. Health record management means that passengers can view their health history data through mobile phone apps or in-vehicle health platforms and generate health reports. The system can also help passengers establish complete health records to facilitate long-term management and doctor follow-up.

[0009] Compared with the prior art, the automobile-based health service system of the embodiment of the present application has the following advantages: the system collects the driver and vehicle environmental status through real-time sensing terminals, and integrates the collected data and presents it to the smart cockpit system. The data will be analyzed and processed by the system and the smart health platform data platform. Based on AI algorithms and big data technology, the health platform analyzes the physiological data of the occupants in real time and generates a health assessment report. When an emergency occurs and the smart health platform detects that the occupants' health status is seriously abnormal (such as drastic fluctuations in heart rate or a sharp drop in blood oxygen), the system will automatically start telemedicine services. The on-board system connects to the telemedicine platform via 5G or other high-speed networks to provide health data to medical service providers for timely evaluation.

[0010] Additional aspects and advantages of the present application will be given in part in the description below, and in part will become apparent from the description below, or will be learned through the practice of the present application. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] The above and / or additional aspects and advantages of the present application will become apparent and easily understood from the following description of the embodiments in conjunction with the accompanying drawings, in which: Figure 1 It is a block diagram based on the principle of this application; Figure 2 This is a block diagram of the sensing terminal principle according to this application; Figure 3 This is a principle block diagram of the smart cockpit system according to this application; Figure 4 This is a block diagram of the smart health platform according to this application; Figure 5 This is a functional block diagram of the health service module according to this application. DETAILED DESCRIPTION

[0012] Embodiments of the present application are described in detail below, and examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements with the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present application, and should not be construed as limitations on the present application. On the contrary, the embodiments of the present application include all changes, modifications and equivalents that fall within the spirit and connotation of the appended claims.

[0013] The following describes the automobile-based health service system and method according to an embodiment of the present application in conjunction with the accompanying drawings.

[0014] The automobile-based health service system and method provided in the embodiments of the present application can be applied to automobile health services, which can monitor the health status of passengers and the in-car environment in real time through multiple sensors, and analyze and process data through the intelligent health platform to provide personalized health advice and telemedicine support, further ensuring a healthy and comfortable cabin experience for users.

[0015] like Figure 1-5 As shown, the automobile-based health service system and method of the embodiment of the present application include a sensing terminal, a smart cockpit system, a smart health platform and a health service module, wherein the sensing terminal includes a Camera, a car control watch and an environmental detection sensor, wherein the Camera and the environmental detection sensor are respectively installed in the car; the car control watch is worn on the owner's arm; the smart cockpit system is bidirectionally connected to the sensing terminal; the smart health platform is bidirectionally connected to the smart cockpit system; the health service module input is connected to the smart health platform, wherein the health service module includes a personalized health advice unit, a telemedicine support unit and a health record management unit, wherein the personalized health advice unit input is connected to the smart health platform; the telemedicine support unit is connected to the medical service platform; the health record management unit is connected to the mobile phone APP and the vehicle-mounted health platform.

[0016] In one embodiment of the present application, the smart cockpit system includes a health reminder module, a safety alarm unit and a personalized setting feedback unit, wherein the health reminder module is bidirectionally connected to the perception terminal; the safety alarm unit is arranged in the car, and the safety alarm unit and the health reminder module are electrically connected; the personalized setting feedback unit is arranged in the car.

[0017] In one embodiment of the present application, the smart health platform includes a data acquisition and analysis module, a health assessment and prediction module, and a user data cloud storage and synchronization module, wherein the data acquisition and analysis module is electrically connected to the perception terminal; the health assessment and prediction module is electrically connected to the data acquisition and analysis module; and the user data cloud storage and synchronization module is electrically connected to the health assessment and prediction module.

[0018] In one embodiment of the present application, the control method of the health service system: S1: Perception terminal: responsible for collecting data on the health status of passengers and the in-car environment. The camera collects the driver's eye movements in real time to detect fatigue and distracted driving. The car control watch collects heart rate, blood oxygen, breathing and other physiological conditions in real time. The environmental detection sensor detects environmental factors such as air quality, temperature, humidity, and noise in real time. S2: Intelligent cockpit system: Through the data interaction between the vehicle system and the perception terminal, the in-vehicle environment is dynamically controlled. According to the data from the perception terminal, the environmental parameters in the car are adjusted and the final health feedback is integrated and presented, including health prompts, safety alarms and personalized setting feedback modules. Health prompts mean that when abnormal physiological parameters of the user are detected, such as high heart rate or decreased blood oxygen level, the system will issue a health alarm and suggest that the occupants take necessary measures (such as rest, deep breathing, etc.). Safety alarms mean that the driver shows signs of fatigue driving (such as reduced eye movement and slow breathing). The system will remind the driver through sound or vibration and suggest rest. If the situation is serious, the system may take over part of the driving control (such as turning on the automatic driving mode). Personalized setting feedback means that the system can provide personalized settings for each occupant based on the user's health status and historical data. For example, by analyzing heart rate variability and breathing rate, the system can adjust the rhythm of the music and seat posture in the car to help the occupants relax. S3: Intelligent health platform: used to process data collected by sensing terminals, provide data analysis, health status assessment and feedback. Data collection and analysis is to collect physiological and environmental data from sensing terminals in real time, and perform preliminary data cleaning and formatting. In combination with big data algorithms and AI technology, it conducts a comprehensive analysis of the physiological parameters of the occupants to determine the health status and environmental adaptability of the occupants. Through deep learning algorithms, it can predict the potential health risks of the occupants, such as heart problems and breathing difficulties. The health assessment and pre-test platform can evaluate the health status of the occupants in real time, such as heart rate fluctuations, abnormal breathing patterns, etc. Based on historical data, it conducts trend analysis on the health status of the occupants, predicts possible health problems, and provides early warnings. The cloud storage and synchronization of user data is the synchronization of data between the system and the cloud server through the vehicle network. Users can view health reports and in-vehicle environmental status through mobile phone apps or web platforms. At the same time, the system can also integrate data with other health devices of the occupants (vehicle control watches) to achieve all-round health monitoring. S4: Health service module: Through in-vehicle and out-of-vehicle platforms, the system cooperates with third-party health management service providers to provide users with personalized health advice, intervention plans and telemedicine support. Based on the platform analysis results, the system provides users with personalized health advice. Telemedicine support means that the system can cooperate with third-party medical service providers to provide remote health monitoring and emergency medical services. When serious health risks (such as heart problems) are detected, the system can automatically contact medical services, provide remote consultation and even emergency rescue. Health record management means that passengers can view their health history data through mobile phone apps or in-vehicle health platforms and generate health reports. The system can also help passengers establish complete health records to facilitate long-term management and doctor follow-up.

[0019] In summary, the automobile-based health service system and method of the embodiment of the present application can monitor the health status of passengers and the in-car environment in real time through multiple sensors, and analyze and process data through the intelligent health platform to provide personalized health advice and telemedicine support, further ensuring a healthy and comfortable cabin experience for users.

[0020] Although the embodiments of the present application have been shown and described above, it can be understood that the above embodiments are exemplary and cannot be understood as limitations on the present application. Ordinary technicians in this field can change, modify, replace and deform the above embodiments within the scope of the present application.

Claims

1. A car-based health service system, characterized in that: It includes sensing terminals, intelligent cockpit systems, intelligent health platforms and health service modules, among which: The sensing terminal includes a camera, a car control watch and an environment detection sensor, wherein: The camera and the environment detection sensor are respectively installed in the car; The vehicle control watch is worn on the vehicle owner's arm; The smart cockpit system is bidirectionally connected to the sensing terminal; The smart health platform is bidirectionally connected to the smart cockpit system; The health service module input is connected to the smart health platform, wherein the health service module includes a personalized health advice unit, a telemedicine support unit and a health record management unit, wherein, The personalized health advice unit input is connected to the smart health platform; The remote medical support unit is connected to the medical service platform; The health record management unit is connected to the mobile phone APP and the vehicle-mounted health platform.

2. The automobile-based health service system according to claim 1, characterized in that: The smart cockpit system includes a health reminder module, a safety alarm unit and a personalized setting feedback unit, wherein: The health prompt module is bidirectionally connected to the perception terminal; The safety alarm unit is arranged in the car, and the safety alarm unit is electrically connected to the health prompt module; The personalized setting feedback unit is arranged in the automobile.

3. The automobile-based health service system according to claim 1, characterized in that: The smart health platform includes a data collection and analysis module, a health assessment and prediction module, and a user data cloud storage and synchronization module. The data collection and analysis module is electrically connected to the sensing terminal; The health assessment and prediction module is electrically connected to the data acquisition and analysis module; The user data cloud storage and synchronization module is electrically connected to the health assessment and prediction module.

4. The automobile-based health service system according to claim 1, characterized in that: How to control the health service system: S1: Perception terminal: responsible for collecting data on the health status of passengers and the in-car environment. The camera collects the driver's eye movements in real time to detect fatigue and distracted driving. The car control watch collects heart rate, blood oxygen, breathing and other physiological conditions in real time. The environmental detection sensor detects environmental factors such as air quality, temperature, humidity, and noise in real time. S2: Intelligent cockpit system: Through the data interaction between the vehicle system and the perception terminal, the in-vehicle environment is dynamically controlled. According to the data from the perception terminal, the environmental parameters in the car are adjusted and the final health feedback is integrated and presented, including health prompts, safety alarms and personalized setting feedback modules. Health prompts mean that when abnormal physiological parameters of the user are detected, such as high heart rate or decreased blood oxygen level, the system will issue a health alarm and suggest that the occupants take necessary measures (such as rest, deep breathing, etc.). Safety alarms mean that the driver shows signs of fatigue driving (such as reduced eye movement and slow breathing). The system will remind the driver through sound or vibration and suggest rest. If the situation is serious, the system may take over part of the driving control (such as turning on the automatic driving mode). Personalized setting feedback means that the system can provide personalized settings for each occupant based on the user's health status and historical data. For example, by analyzing heart rate variability and breathing rate, the system can adjust the rhythm of the music and seat posture in the car to help the occupants relax. S3: Intelligent health platform: used to process data collected by sensing terminals, provide data analysis, health status assessment and feedback. Data collection and analysis is to collect physiological and environmental data from sensing terminals in real time, and perform preliminary data cleaning and formatting. In combination with big data algorithms and AI technology, it conducts a comprehensive analysis of the physiological parameters of the occupants to determine the health status and environmental adaptability of the occupants. Through deep learning algorithms, it can predict the potential health risks of the occupants, such as heart problems and breathing difficulties. The health assessment and pre-test platform can evaluate the health status of the occupants in real time, such as heart rate fluctuations, abnormal breathing patterns, etc. Based on historical data, it conducts trend analysis on the health status of the occupants, predicts possible health problems, and provides early warnings. The cloud storage and synchronization of user data is the synchronization of data between the system and the cloud server through the vehicle network. Users can view health reports and in-vehicle environmental status through mobile phone apps or web platforms. At the same time, the system can also integrate data with other health devices of the occupants (vehicle control watches) to achieve all-round health monitoring. S4: Health service module: Through the in-vehicle and out-of-vehicle platforms, the system cooperates with third-party health management service providers to provide users with personalized health advice, intervention plans and telemedicine support. Based on the platform analysis results, the system provides users with personalized health advice. Telemedicine support means that the system can cooperate with third-party medical service providers to provide remote health monitoring and emergency medical services. When serious health risks (such as heart problems) are detected, the system can automatically contact medical services, provide remote consultation and even emergency rescue. Health record management means that passengers can view their health history data through mobile phone apps or in-vehicle health platforms and generate health reports. The system can also help passengers establish complete health records to facilitate long-term management and doctor follow-up.

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