A breathing-driven pulmonary rehabilitation exercise and its effect monitoring system

Abstract

The present invention discloses a breathing-driven lung rehabilitation exercise and its effect monitoring system, comprising: a mouthpiece device and a mobile device; the mouthpiece device is connected to the mobile device; the mouthpiece device is used to continuously monitor the pressure reading of the user's breathing behavior when the user performs lung rehabilitation exercise, and transmit the pressure reading to the mobile device; the mobile device is used to receive a lung rehabilitation exercise project selection instruction, select a lung rehabilitation exercise project from multiple preset lung rehabilitation exercise projects as a target lung rehabilitation exercise project according to the lung rehabilitation exercise project selection instruction, enter the corresponding exercise interface of the target lung rehabilitation exercise project, and display a demonstration animation for simulating the user's breathing behavior when exercising according to the target lung rehabilitation exercise project in the exercise interface according to the pressure reading. The present invention can realize multiple lung rehabilitation exercise projects on one platform.

Description

Technical Field

[0001] The present invention relates to the advanced technical field of digital therapy, and in particular to a breathing-driven lung rehabilitation exercise and an effect monitoring system thereof. Background Art

[0002] The fast-paced and stressful modern lifestyle has a great impact on people's health. In today's fast-changing world, people prefer monitoring devices that can be used quickly. Portable medical devices have completely changed the way people monitor and determine their health. In the field of pulmonary rehabilitation, there are various handheld and digital pulmonary function instruments on the market that can monitor lung-related problems. Pulmonary rehabilitation exercises can also be performed using pulmonary rehabilitation exercise equipment. However, among the current mainstream instruments, one pulmonary rehabilitation exercise equipment can often only perform one pulmonary rehabilitation exercise program. If you want to perform multiple pulmonary rehabilitation exercise programs, you need multiple devices, which is relatively expensive. Summary of the invention

[0003] The present invention provides a breathing-driven lung rehabilitation exercise and an effect monitoring system thereof, so as to solve the technical problem that one lung rehabilitation exercise device can only perform one lung rehabilitation exercise item.

[0004] In order to solve the above technical problems, an embodiment of the present invention provides a breathing-driven lung rehabilitation exercise and its effect monitoring system, including a mouthpiece device and a mobile device; the mouthpiece device is connected to the mobile device; the mouthpiece device is used to continuously monitor the pressure readings of the user's breathing behavior when the user performs lung rehabilitation exercises, and transmit the pressure readings to the mobile device; the mobile device is used to receive a lung rehabilitation exercise project selection instruction, and according to the lung rehabilitation exercise project selection instruction, select a lung rehabilitation exercise project from multiple preset lung rehabilitation exercise projects as a target lung rehabilitation exercise project, enter the corresponding exercise interface of the target lung rehabilitation exercise project, and in the exercise interface, display a demonstration animation for simulating the user's breathing behavior when exercising according to the target lung rehabilitation exercise project according to the pressure reading; wherein the demonstration animation includes: a plurality of animation objects whose screens are adjusted according to the numerical values ​​of the pressure readings.

[0005] As a preferred embodiment, the breathing-driven lung rehabilitation exercise and effect monitoring system also includes a connecting line; the mouthpiece device is connected to the mobile device via the connecting line.

[0006] As a preferred embodiment, the mouthpiece device includes: an air pressure sensor and a controller; the mouthpiece device continuously monitors the pressure readings of the user's breathing behavior through the air pressure sensor; and the mouthpiece device transmits the pressure readings to a mobile device through the controller.

[0007] As a preferred embodiment, the mobile device is further used to receive an exercise difficulty selection instruction, and determine a difficulty coefficient corresponding to the target lung rehabilitation exercise item according to the difficulty selection instruction; the animation object in the demonstration animation is adjusted according to the numerical value of the pressure reading, including: generating respiratory pressure simulation data according to the difficulty coefficient and the numerical value of the pressure reading; and adjusting the screen according to the respiratory pressure simulation data.

[0008] As a preferred embodiment, the mouthpiece device also includes: an air resistance regulator; the air resistance regulator is used to set the air resistance when the user breathes; the mobile device is also used to display the name of the target lung rehabilitation exercise item, the selected exercise difficulty and the corresponding operation guidance information on the exercise interface; wherein the operation guidance information includes air resistance setting guidance information corresponding to the target lung rehabilitation exercise item, so that the user can set the air resistance regulator according to the air resistance setting guidance information.

[0009] As a preferred solution, the mobile device is further used to start timing the time the user exercises according to the target lung rehabilitation exercise program upon receiving an instruction to start exercising, and to display the timing duration in real time on the exercise interface.

[0010] As a preferred embodiment, the mobile device is also used to end the timing when receiving an instruction to end the exercise; generate exercise data based on the total timing time and the pressure readings at each moment during the timing process, and visualize the exercise data; wherein the exercise data includes any one of the following items or a combination thereof: exercise time, maximum breathing pressure, average breathing pressure and standard deviation of breathing pressure data.

[0011] As a preferred solution, the mobile device is further used to receive a historical data display instruction, retrieve the user's historical exercise data according to the historical data display instruction, and visualize the historical exercise data.

[0012] Compared with the prior art, the embodiments of the present invention have the following beneficial effects:

[0013] The present invention provides a breathing-driven lung rehabilitation exercise and its effect monitoring system. The system is provided with a mouthpiece device and a mobile device. The mobile device is provided with a plurality of preset lung rehabilitation exercise items. The user can select the corresponding lung rehabilitation exercise item according to the needs of different lung rehabilitation exercises. After the user's selection, the user inhales or exhales through the mouthpiece device. At this time, the mouthpiece device transmits the corresponding pressure reading to the mobile device. The mobile device displays an exercise interface according to the pressure reading and the corresponding lung rehabilitation exercise item. The exercise interface will display a demonstration animation for simulating the user's breathing behavior when exercising according to the target lung rehabilitation exercise item, and the animation object in the demonstration animation will adjust the screen according to the value of the pressure reading. In this way, when the user selects different lung rehabilitation exercise items, different lung rehabilitation exercises can be performed through the corresponding demonstration animations of the mouthpiece device and the mobile device. There is no need to prepare different additional equipment for different lung rehabilitation exercise items, which reduces the cost of using different equipment during exercise. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 is a schematic diagram of a breathing-driven lung rehabilitation exercise and its effect monitoring system of the present invention;

[0015] Description of reference numerals:

[0016] Mouthpiece device 1, air resistance regulator 11, mobile device 2, pulmonary rehabilitation exercise item name display area 21, breathing pressure display area 22, difficulty display area 23, time display area 24, operation guide information display area 25, demonstration animation display area 26 and connecting line 3. 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 only 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] Please refer to Figure 1, a breathing-driven lung rehabilitation exercise and effect monitoring system provided by an embodiment of the present invention, includes a mouthpiece device 1 and a mobile device 2; the mouthpiece device 1 is connected to the mobile device 2; the mouthpiece device 1 is used to continuously monitor the pressure reading of the user's breathing behavior when the user performs lung rehabilitation exercise, and transmit the pressure reading to the mobile device 2; the mobile device 2 is used to receive a lung rehabilitation exercise project selection instruction, select a lung rehabilitation exercise project from multiple preset lung rehabilitation exercise projects as a target lung rehabilitation exercise project according to the lung rehabilitation exercise project selection instruction, and display a demonstration animation for simulating the user's breathing behavior when exercising according to the target lung rehabilitation exercise project according to the pressure reading; wherein the demonstration animation includes: a plurality of animation objects whose screens are adjusted according to the numerical values ​​of the pressure readings.

[0019] In an embodiment of the present invention, the mouthpiece device 1 transmits the monitored pressure readings to the mobile device 2 in real time while continuously monitoring the pressure readings of the user's breathing behavior; the user selects a lung rehabilitation exercise project from multiple lung rehabilitation exercise projects displayed on the main menu interface of the mobile device 2 as the target lung rehabilitation exercise project, and the user's selection operation triggers a lung rehabilitation exercise project instruction to the mobile device 2, and the lung rehabilitation exercise project instruction contains relevant information of the target lung rehabilitation exercise project. The mobile device 2 determines the corresponding lung rehabilitation exercise project based on the received lung rehabilitation exercise project selection instruction, and jumps to the corresponding practice interface. The demonstration animation display area 26 in the practice interface is used to display a demonstration animation that simulates the user's breathing behavior, and several animation objects in the demonstration animation are adjusted according to the value of the pressure reading of the mouthpiece device 1. For example, the small ball in the demonstration animation display area 26 is an animation object, and the movement state of the small ball is adjusted according to the value of the pressure reading of the mouthpiece device 1.

[0020] It should be noted that the lung rehabilitation exercise items available for users to choose include but are not limited to motivational spirometry exercises, pursed lip breathing exercises, Buteyko breathing exercises, balloon blowing exercises, straw bubble blowing exercises, candle blowing exercises and other lung health exercises. For different lung rehabilitation exercise items, each exercise interface displays the corresponding demonstration animation. For example Figure 1A demonstration animation of pursed lip breathing exercise is shown, which shows a simulated animation of a user performing rehabilitation exercises on a pursed lip breathing exercise device. The animation object ball in the demonstration animation is the same as the actual pursed lip blowing ball toy, and the movement state of the animation object ball adjusted according to the user's breathing behavior simulates the movement state of the ball when the pursed lip breathing exercise device is actually used. When air is blown into the mouthpiece device 1, the mouthpiece device 1 monitors the exhalation pressure and generates a pressure reading, which is sent to the mobile device 2. The mobile device 2 adjusts the ball animation object in the demonstration animation according to the real-time pressure reading received, and the increase in exhalation pressure will correspondingly raise the ball into the air. The ball will remain in the air until the mouthpiece sensor senses that the pressure reading exceeds a predetermined threshold, and the ball in the demonstration animation will reach the top of the interface and remain at the top position of the interface. As the pressure reading decreases, the ball gradually drops until the pressure reading becomes zero, and the ball will fall completely.

[0021] It should be noted that when conducting pulmonary rehabilitation exercise programs, it is not necessary to use traditional exercise equipment. When multiple pulmonary rehabilitation exercises are needed, you can perform multiple pulmonary rehabilitation exercises on one device by selecting different pulmonary rehabilitation exercise programs, which reduces the cost of purchasing multiple equipment and makes it convenient for users to perform most exercises through one platform.

[0022] In a preferred embodiment, a breathing-driven lung rehabilitation exercise and effect monitoring system provided by the embodiment of the present invention further includes a connecting line 3; the mouthpiece device 1 is connected to the mobile device 2 via the connecting line 3.

[0023] It should be noted that the mouthpiece device 1 transmits the monitored pressure reading to the mobile device 2 in real time via the connecting line 3 , and shares the power supply of the mobile device 2 via the connecting line 3 .

[0024] It should be noted that the mouthpiece device shares the power of the mobile device 2 through the connecting line 3, so that the mouthpiece device 1 does not need to have its own power supply, which further simplifies the mouthpiece device 1 and makes it more portable and convenient to use anytime and anywhere.

[0025] In a preferred embodiment, the mouthpiece device 1 further comprises: an air pressure sensor and a controller; the mouthpiece device 1 continuously monitors the pressure reading of the user's breathing behavior through the air pressure sensor, and transmits the pressure reading to the mobile device 2 through the controller.

[0026] It should be noted that the mouthpiece device 1 is equipped with an air pressure sensor and a controller. The air pressure sensor is used to monitor the user's breathing behavior during lung rehabilitation exercises in real time and quantify the breathing behavior through pressure values. The controller is used to obtain the pressure reading of the air pressure sensor in real time and transmit the pressure reading to the mobile device 2 in real time.

[0027] In a preferred embodiment, the mobile device 2 is also used to receive an exercise difficulty selection instruction, determine the difficulty coefficient corresponding to the target lung rehabilitation exercise item according to the difficulty selection instruction; demonstrate the animation object in the animation, and adjust the screen according to the value of the pressure reading, including: generating pressure simulation data according to the difficulty coefficient and the value of the pressure reading and adjusting the screen according to the pressure simulation data.

[0028] It should be noted that the exercise interface also includes a difficulty display area 23, which is used to display the exercise difficulty selected by the user. The available difficulties are simple, general and difficult. The simple, general and difficult levels of different lung rehabilitation exercise items correspond to different difficulty coefficients. The user selects the target difficulty in the exercise difficulty drop-down menu. This operation triggers an exercise difficulty selection instruction for the mobile device 2. The exercise difficulty selection instruction contains relevant information about the exercise difficulty selected by the user. The mobile device 2 determines the difficulty coefficient of this lung rehabilitation exercise based on the received exercise difficulty selection instruction and the target lung rehabilitation exercise item selected by the user. The animation object in the demonstration animation calculates and generates pressure simulation data based on the difficulty coefficient and the value of the pressure reading, and adjusts the screen based on the pressure simulation data. For example Figure 1 The ball animation object in the exercise has different difficulty coefficients and different pressure simulation data calculated from the same breathing pressure data reading, and thus different ball motion pictures are generated. The final effect is that when the breathing pressure data is the same, the ball in the simple mode is the easiest to blow up, and the ball in the difficult mode is the most difficult to blow up. In addition, the exercise interface also includes a breathing pressure display area 22, which is also affected by the difficulty coefficient and the pressure simulation data calculated from the pressure reading, specifically as follows: Figure 1 The respiratory pressure bar grid of the respiratory pressure display area 22 shown is closer to a full grid state as the pressure simulation data increases.

[0029] In a preferred embodiment, the mouthpiece device 1 also includes: an air resistance regulator 11; the air resistance regulator 11 is used to set the air resistance when the user breathes; the mobile device 2 is also used to display the name of the target lung rehabilitation exercise item, the selected exercise difficulty and the corresponding operation guidance information on the exercise interface; wherein the operation guidance information includes the air resistance setting guidance information corresponding to the target lung rehabilitation exercise item, so that the user can set the air resistance regulator 11 according to the air resistance setting guidance information.

[0030] It should be noted that the air resistance device of the mouthpiece device 1 has a rotary selector, which can select air holes of different diameters to provide suitable air resistance. The practice interface also includes a pulmonary rehabilitation exercise program name display area 21 and an operation guide information display area 25. The pulmonary rehabilitation exercise program name display area 21 is used to display the name of the pulmonary rehabilitation exercise program corresponding to the current practice interface, and the user can switch the pulmonary rehabilitation exercise program in the pulmonary rehabilitation exercise program name drop-down menu in this area. The operation guide information display area 25 is used to display the introduction information of the relevant pulmonary rehabilitation exercise program and the air resistance setting guide information of the mouthpiece device. The user sets the air resistance regulator 11 according to the air resistance setting guide information in the operation guide information.

[0031] It should be noted that users are guided by operational guidance information without the need for additional paper or electronic training manuals, and more importantly, this helps users perform pulmonary rehabilitation exercises without any nurses or other professional caregivers.

[0032] In a preferred embodiment, the mobile device 2 is further configured to start timing the time the user exercises according to the target pulmonary rehabilitation exercise program upon receiving an instruction to start exercising, and to display the timing duration in real time on the exercise interface.

[0033] It should be noted that the exercise interface also includes a time display area 24. When the mobile device 2 receives the start exercise instruction, it counts the time of the pulmonary rehabilitation exercise program, including: the exercise start time, the exercise end time and the exercise duration. The time display area 24 on the exercise interface displays the value of the exercise duration in real time.

[0034] In a preferred embodiment, the mobile device 2 is also used to end the timing when receiving an instruction to end the exercise; generate exercise data based on the total timing time and the pressure readings at each moment during the timing process, and visualize the exercise data; wherein the exercise data includes any one of the following items or a combination thereof: exercise time, maximum breathing pressure, average breathing pressure and standard deviation of breathing pressure data.

[0035] It should be noted that when the user clicks the end button to trigger the end exercise instruction, the mobile device 2 ends the timing and exits the exercise interface when receiving the end exercise instruction. The mobile device 2 calculates and generates exercise data based on the total timing time and the pressure readings at each moment during the timing process, and visualizes the exercise data after exiting the exercise interface. The visualization of exercise data includes but is not limited to tables, line graphs, and bar graphs.

[0036] It should be noted that by recording the exercise data during exercise and displaying it visually, rehabilitation exercise and lung condition monitoring are integrated into the same process. The improvement level of the lung condition is monitored simultaneously during the rehabilitation exercise, which makes it convenient for users to observe the improvement effect of the lung condition in time during the rehabilitation training.

[0037] In a preferred embodiment, the mobile device 2 is further configured to receive a historical data display instruction, retrieve the user's historical exercise data according to the historical data display instruction, and visualize the historical exercise data.

[0038] It should be noted that the mobile device 2 saves the exercise data of all previous pulmonary rehabilitation exercises and provides a historical data query function on this basis. The user triggers a historical data display instruction, which contains limiting information on the historical exercise data to be displayed. The mobile device 2 receives the historical data display instruction, retrieves the corresponding historical exercise data according to the historical data display instruction, and visualizes the retrieved historical exercise data. The visual display methods of historical data include but are not limited to tables, line graphs, and bar graphs.

[0039] It should be noted that by saving and displaying historical exercise data of pulmonary rehabilitation exercises, it helps users track long-term pulmonary rehabilitation status.

[0040] The specific embodiments described above further illustrate the purpose, technical solutions and beneficial effects of the present invention. It should be understood that the above description is only a specific embodiment of the present invention and is not intended to limit the scope of protection of the present invention. It is particularly pointed out that for those skilled in the art, any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention should be included in the scope of protection of the present invention.

Claims

1. A breathing-driven pulmonary rehabilitation exercise and its effect monitoring system, characterized in that: include: A mouthpiece device and a mobile device; the mouthpiece device is connected to the mobile device; The mouthpiece device is used to continuously monitor the pressure reading of the user's breathing behavior when the user performs lung rehabilitation exercises, and transmit the pressure reading to the mobile device; The mobile device is used to receive a pulmonary rehabilitation exercise program selection instruction, select a pulmonary rehabilitation exercise program from multiple preset pulmonary rehabilitation exercise programs as a target pulmonary rehabilitation exercise program according to the pulmonary rehabilitation exercise program selection instruction, enter the corresponding exercise interface of the target pulmonary rehabilitation exercise program, and display a demonstration animation in the exercise interface according to the pressure reading to simulate the user's breathing behavior when exercising according to the target pulmonary rehabilitation exercise program; wherein the demonstration animation includes: a plurality of animation objects whose screens are adjusted according to the numerical values ​​of the pressure readings; and the demonstration animation is used to simulate the user's breathing behavior.

2. A breathing-driven lung rehabilitation exercise and its effect monitoring system as claimed in claim 1, characterized in that: It also includes a connecting line; the mouthpiece device is connected to the mobile device via the connecting line.

3. A breathing-driven lung rehabilitation exercise and its effect monitoring system as claimed in claim 2, characterized in that: The mouthpiece device comprises: an air pressure sensor and a controller; The mouthpiece device continuously monitors the pressure reading of the user's breathing behavior through the air pressure sensor; The mouthpiece device transmits the pressure reading to a mobile device via the controller.

4. A breathing-driven lung rehabilitation exercise and its effect monitoring system as claimed in claim 3, characterized in that: The mobile device is further used to receive an exercise difficulty selection instruction, and determine a difficulty coefficient corresponding to the target pulmonary rehabilitation exercise item according to the difficulty selection instruction; The animation object in the demonstration animation is adjusted according to the value of the pressure reading, including: generating pressure simulation data according to the difficulty coefficient and the value of the pressure reading; and adjusting the image according to the pressure simulation data.

5. A breathing-driven lung rehabilitation exercise and its effect monitoring system as claimed in claim 4, characterized in that: The mouthpiece device further includes: an air resistance regulator; the air resistance regulator is used to set the air resistance when the user breathes; The mobile device is further used to display the name of the target pulmonary rehabilitation exercise item, the selected exercise difficulty and the corresponding operation guide information on the exercise interface; The operation guidance information includes air resistance setting guidance information corresponding to the target lung rehabilitation exercise item, so that the user can set the air resistance regulator according to the air resistance setting guidance information.

6. A breathing-driven lung rehabilitation exercise and effect monitoring system as claimed in claim 5, characterized in that: The mobile device is also used to start timing the time the user exercises according to the target lung rehabilitation exercise program when receiving the instruction to start exercising, and to display the timing duration in real time on the exercise interface.

7. A breathing-driven lung rehabilitation exercise and effect monitoring system as claimed in claim 6, characterized in that: The mobile device is also used to end the timing when receiving an instruction to end the exercise; generate exercise data based on the total timing time and the pressure readings at each moment during the timing process, and visualize the exercise data; wherein the exercise data includes any one of the following items or a combination thereof: exercise time, maximum breathing pressure, average breathing pressure, and standard deviation of breathing pressure data.

8. A breathing-driven lung rehabilitation exercise and its effect monitoring system as claimed in claim 7, characterized in that: The mobile device is further used to receive a historical data display instruction, retrieve the user's historical exercise data according to the historical data display instruction, and visualize the historical exercise data.

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