WO2013122369A2

WO2013122369A2 - Breathing training method and breathing training device allowing accurate breathing-state awareness in real time

Info

Publication number: WO2013122369A2
Application number: PCT/KR2013/001096
Authority: WO
Inventors: 이소현
Original assignee: (주) 트라이스
Priority date: 2012-02-15
Filing date: 2013-02-13
Publication date: 2013-08-22
Also published as: WO2013122369A9; KR101184684B1; WO2013122369A3

Abstract

The present invention relates to a breathing training device, and, more specifically, relates to a breathing training method and breathing training device allowing accurate breathing-state awareness in real time such that it is possible to perform more accurate breathing training via an arrangement adapted to depict a heart-rate distribution graph in real time.

Description

Respiratory training method and respiratory training device that can recognize accurate respiratory status in real time

The present invention relates to a respiratory training apparatus, and more specifically to a respiratory training method capable of recognizing a precise respiratory state in real time to induce a more accurate respiratory training through the configuration to draw a heart rate distribution graph in real time and Respiratory training apparatus.

In the past, physical health was important, but in modern society, it is known that not only physical health but also mental health is very important. Mental health refers to the degree of stress received by the user and the user's satisfaction with the current life.

As the importance of mental health is increasingly recognized, various methods for promoting mental health are being introduced. For example, there are reports that mental lesions such as depression can be treated just by looking away from the frustrating urban environment. In addition, as a method of treating an unconscious mind wound, a method of injecting positive implications while consciously exercising eye movements by applying REM sleep state is introduced.

In particular, it has been demonstrated that relaxing deep breathing leads to the calming of autonomic nerves, resulting in a blood pressure-reducing effect, and the heart of a stressed person continues to run at the same speed due to reduced variability in heart rate, You can see that you can control your biorhythms through breathing, based on the fact that your variability is maximized and you run slow when you exhale and run fast when you breathe.

That is, because breathing is an unconscious action that proceeds automatically, most people are insensitive to their breathing, but their breathing state reflects their emotions and minds. People get shallow, rapid breathing when they are anxious or afraid, which makes the body very tired while deep, regular breathing stabilizes the autonomic nervous system. On the other hand, even and deep breathing stimulates the diaphragm and promotes parasympathetic activity. Parasympathetic nerves work to relieve the activity of the sympathetic nerves when they are stressed. Therefore, the slower you breathe, the healthier and longer you can live, so it's important to train as long and naturally as possible.

For this reason, research has been conventionally performed as an autonomic nervous system training method and biofeedback. In addition, a number of breath training apparatuses for this has been proposed.

However, the conventionally known breathing apparatus does not show and confirm in real time and intuitively exactly what state the breather is currently working on.

The present inventors completed the present invention by developing a respiratory training device having a configuration that allows the trainer to recognize his breath accurately in real time.

Therefore, an object of the present invention is to enable the breathing trainer to recognize his breathing state in real time and intuitively through the effort to control his breathing situation during training, the real-time configuration of the configuration that can lead to more accurate breathing training The present invention provides a computer-readable recording medium recording a respiratory training device capable of recognizing a precise respiratory condition, a respiratory training method, and a respiratory training program for performing a respiratory training method.

Another object of the present invention is to implement a pulse detection means in a form that is easy to use breathing trainers to help the breathing trainers to easily and comfortably breathe as well as to relieve concentration and stress through breathing exercises and living body It is to provide a computer-readable recording medium that records a respiratory training device, respiratory training method, and respiratory training program that performs respiratory training in real time in a configuration capable of optimally adjusting the rhythm balance. .

Still another object of the present invention is to use a camera built in the portable terminal as a pulse detection means breathing apparatus capable of recognizing the exact respiratory state in real time in a configuration that allows the breathing training without limitation of time and place, To provide a computer-readable recording medium that records the respiratory training method and the respiratory training program for performing the respiratory training method.

The objects of the present invention are not limited to the above-mentioned objects, and other objects that are not mentioned will be clearly understood by those skilled in the art from the following description.

In order to achieve the object of the present invention described above, the present invention is a respiratory trainer that can induce accurate respiratory training by recognizing the current respiratory state in an intuitive and real-time, the pulse signal from a predetermined body part of the respiratory trainer Pulse detecting means for detecting; And a controller for analyzing the pulse signal inputted from the pulse detection means according to the provided breathing training program, displaying the heart rate distribution map in real time according to the analyzed pulse signal, and controlling each part of the training body, a memory unit for storing data and programs; A training basic body including a display unit which allows a breathing trainer to check data including a heart rate distribution map displayed by the control unit; It provides a respiratory training device capable of recognizing the exact respiratory state in real time, including.

In a preferred embodiment, the control unit is a pulse signal analysis module for grasping the respiratory training status by analyzing the pulse signal input from the pulse detection means and the respiratory training status graph including the heart rate distribution in accordance with the analyzed pulse signal The display unit includes a display module for displaying in real time or after completion of training.

In a preferred embodiment, the control unit is performed by a marker module and respiratory trainer to mark the respiratory training analysis status data including one or more of the heart rate distribution, frequency analysis graph, real-time waveform corresponding to a specified time point during the respiratory training It further includes one or more of the replay module for storing the respiratory training analysis status data of the entire respiratory training process, and replaying the respiratory training analysis status data of the previously performed respiratory training after the end of the training.

In a preferred embodiment, the pulse detection means includes a detection unit for detecting a pulse signal from a predetermined body part of the breathing trainer and a signal processing unit for processing the signal sensed by the detection unit to transmit to the controller.

In a preferred embodiment, the sensing unit and the signal processing unit are composed of independent elements.

In a preferred embodiment, the sensing unit is any one of an ear clip optical sensor, a finger optical sensor, a contact sensor.

In a preferred embodiment, the pulse detection means and the training main body further comprises a connecting means for connecting the pulse detection means and the training main body when configured as a separate independent element.

In a preferred embodiment, the training primitive is a desktop computer, a notebook computer, a laptop computer.

In a preferred embodiment, the breathing apparatus is a portable terminal equipped with a camera.

In a preferred embodiment, the camera acts as the pulse detection means.

The present invention also provides a respiratory training method that can induce accurate respiratory training by recognizing the current respiratory status in an intuitive and real-time, detecting the pulse signal of the respiratory trainer; Analyzing the detected pulse signal; And it provides a respiratory training method that can recognize the accurate respiratory state in real time comprising the step of displaying the heart rate distribution in real time according to the analyzed pulse signal.

In a preferred embodiment, the heart rate distribution chart displays only 10 to 30 heart rate data before and after real time, and the previously displayed heart rate data disappears.

In a preferred embodiment, the displayed heart rate data is displayed such that there is a difference in color or contrast over time so that the most recent heart rate data and the previous heart rate data are distinguished.

In a preferred embodiment, when the breathing training of the breathing trainer is finished, further comprising the step of providing a heart rate distribution diagram displaying all the heart rate data during the breathing training.

In a preferred embodiment, the step of the breathing training further comprises the step of marking by a real-time marker function.

In a preferred embodiment, further comprising the step of providing a respiratory training analysis status of the marked time point after the end of the respiratory training.

In addition, the present invention is a computer-readable recording medium applied to the respiratory training device, comprising: detecting a pulse signal of the respiratory trainer; Analyzing the detected pulse signal; And it provides a computer-readable recording medium recording a respiratory training program capable of recognizing accurate respiratory conditions in real time, characterized in that each step of displaying the heart rate distribution chart in real time according to the analyzed pulse signal.

In a preferred embodiment, the heart rate distribution chart is implemented such that only 10 to 30 heart rate data before and after real time is displayed and previously displayed heart rate data disappears, wherein the displayed heart rate data is the most recent heart rate data and the previous heart rate data. It is marked so that there is a difference in color or contrast over time so that it is distinguished.

In a preferred embodiment, the program is provided when the breathing training of the breathing trainer is finished, the heart rate distribution is displayed in which all the heart rate data during the breathing training, the specific time point during the breathing training is marked by the real-time marker function, After the respiratory training, any one or more of the steps of providing the respiratory analysis status at the marked time point is further executed by the computer.

The present invention has the following excellent effects.

First, according to the present invention, by allowing the respiratory trainer to recognize his or her respiratory state in real time and intuitively, the respiratory trainer can be induced to perform a more accurate respiratory training through an effort to control the respiratory situation during the training.

In addition, according to the present invention by implementing the pulse detection means in a form that is easy to use breathing trainers to help the breathing trainers easy and comfortable breathing exercises themselves as well as to reinforce concentration and stress through breathing training The rhythm balance can be optimized.

In addition, according to the present invention can use the camera built in the portable terminal as a pulse detection means it is possible for the breathing trainer to perform breathing training without limitation of time and place.

Figure 1a is a view showing an overview according to an embodiment of the breathing training apparatus according to the present invention, Figure 1b is a photo sensor of the ear clip type as an embodiment of the sensing unit, Figure 1c is a photograph of the signal processing unit to be.

2 is a block diagram schematically showing the configuration of a breathing apparatus according to the present invention.

3 is a flow chart showing an embodiment of a respiratory training method in which the heart rate distribution is displayed in real time according to the present invention.

4 is a schematic flowchart of outputting a heart rate distribution (Poincare) on a display unit.

5A to 5C are photographs of one embodiment in which heart rate data is displayed to enable intuitive recognition while the heart rate distribution is expressed in real time according to the flowchart of FIG. 4, and FIG. 5D is a result value of all heart rate data after the respiration training is completed. It is a photograph printed on this display part.

Figure 6 is a schematic flow chart for explaining the replay (replay) function in one embodiment of the breathing apparatus according to the present invention.

The terms used in the present invention are selected as general terms as widely used as possible, but in some cases, the terms arbitrarily selected by the applicant, in which case, the meanings described or used in the detailed description of the present invention, rather than simply the names of the terms are considered. The meaning should be grasped.

Hereinafter, with reference to the accompanying drawings and preferred embodiments will be described in detail the technical configuration of the present invention.

However, the present invention is not limited to the embodiments described herein and may be embodied in other forms. Like reference numerals used to describe the present invention throughout the specification denote like elements.

The technical feature of the present invention is to display the heart rate distribution according to the current breathing state in the drawing so that the breathing trainer can recognize his state in real time and intuitively.

Here, the heart rate distribution (Poincare) is a graph of the pulse cycle with the horizontal axis is t-1 and the vertical axis is t time. When the pulse is accurately measured, the heart rate distribution is elliptical You have a graph.

In the conventional breathing apparatus, the breathing guide graph selected by the breathing trainer is continuously displayed during the training time regardless of the breathing status of the breathing trainer currently being breathed, so it is not known whether the breathing training is correct. In the present invention, by displaying the heart rate distribution in a form that can be recognized in real time and intuitively, as well as the breathing guide graph selected by the breathing trainer, the breathing trainer can recognize his or her breathing state in real time and intuitively. By looking at the elliptical graph of heart rate distribution, you can induce more accurate breathing training by trying to control your breathing situation.

Figure 1a is a view showing an overview according to an embodiment of a breathing apparatus 100 according to the present invention. 2 is a block diagram schematically showing the configuration of a breathing apparatus 100 according to the present invention.

Referring to FIG. 1A, the respiratory training device 100 according to an embodiment of the present invention includes a pulse detecting means 110 and a training main body 120 for detecting a pulse signal from a predetermined body part of a respiratory trainer.

Referring to FIG. 2, the pulse detection unit 110 processes the signal detected by the detection unit 111 and the detection unit 111 to detect a pulse signal from a predetermined body part of the respiratory trainer, and controls the training body 120. The signal processing unit 112 to transmit to. The sensing unit 111 may be an optical sensor or a touch sensor (tactile sensor), and an ear clip type or a finger type such as that shown in FIG. 1B may be easily contacted with a predetermined body part of the respiratory trainer. The signal processing unit 112 receives the signal sensed and output by the sensing unit 111 and performs a role of electrically processing the signal, including signal correction, and delivering the signal to the training body 120. The sensing unit 111 and the signal processing unit 112 may be formed separately from each other separately as illustrated in FIGS. 1B and 1C, but are not limited to being integrally formed.

As shown in FIG. 2, the training main body 120 analyzes the pulse signal input from the pulse detection means 110 according to the provided breathing training program, and displays the heart rate distribution map in real time according to the analyzed pulse signal. And a control unit 121 for controlling the control unit, a memory unit 122 in which data and programs are stored, and a display unit 123 through which a breathing trainer can check data including a heart rate distribution map displayed by the control unit. In some cases, the apparatus may further include a drive device for reading out various data or programs recorded on an external recording medium. In addition, the operation unit may further include a control unit, a menu switch for receiving a display instruction of a menu of a function of the respiratory training device 100, for example, as a plurality of input units for receiving an instruction input from the breathing trainer, display unit A setting switch for accepting the setting instruction for the information displayed on 123, a start switch for accepting the instruction to start training, a left and right switch for moving the cursor, etc. displayed on the display unit 123, left and right.

The display unit 123 may be configured as an LCD (Liquid Crystal Display) to perform a function of displaying (outputting) a character or an image. In some cases, the manipulation unit may be implemented on the display unit 123 using a touch screen method.

The control unit 121 performs control and arithmetic processing of the entire apparatus. In particular, the control unit 121 analyzes the pulse signal input from the pulse detection unit 120 to the pulse signal analysis module 121a and the analyzed pulse signal to determine the respiratory training status. Accordingly, the display module 121b for displaying the respiratory training status graph including the heart rate distribution chart on the display unit 123 in real time or after completion of the training. In some cases, it may further include a marker module 121c and a replay module 121d.

The pulse signal analysis module 121a converts the HRV, which is a heart rate, into a power spectral density (PSD) for frequency domain analysis and analyzes the heart rate. The PSD is a method of analyzing an analysis frequency domain. According to an embodiment of the pulse signal analysis module 121a of the present invention, the HRV signal of the time domain is converted into a PSD domain by PSD conversion, and each frequency domain is VLF (very low frequency) LF (low frequency) HF (high). frequency) and may be implemented to determine the degree of stress and the accuracy of breathing by the ratio of each VLF, LF, and HF. At this time, the frequency band of VLF, LF, HF is divided into 3 parts of 0Hz ~ 0.5Hz, and in case of stress, VLF (0.04Hz or less), LF (0.04Hz ~ 0.15Hz), HF (0.15Hz, 0.4Hz) is used. In the case of breathing measurements, the range of VLF, LF and HF can be determined by the reference value of breathing.

The display module 121b generates graphic data such as a heart rate distribution chart according to the analyzed pulse signal so that the breathing trainer visually checks the respiratory training status graph including the heart rate distribution chart through the display unit 123, and then displays the data in real time on the display unit 123. Or display after the end of training. The display module 121b controls only 10 to 30 heart rate data before and after real time and the previously displayed heart rate data disappear so that the breathing trainer can recognize the current breathing state in real time and intuitively. In addition, the displayed heart rate data is displayed such that there is a difference in color or contrast over time to distinguish the most recent heart rate data from the previous heart rate data.

The marker module 121c is a real-time marker for marking a respiratory training analysis data including a heart rate distribution, a frequency analysis graph, a real-time waveform, etc., when a respiratory trainer or a third person designates a specific time point during respiratory training. Perform the function. That is, only the respiratory training analysis status data stored at a specific time point designated by the respiratory trainer is stored, and after the end of the training, the respiratory training analysis data data of the specific time point marked by the respiratory trainee is displayed and displayed on the display unit 123. Control the function. The real-time marker function can mark the point where the respiratory trainer thinks that they are abnormal or very well during the respiratory training, and can only view the respiratory training analysis data of the point after the respiratory training is completed. Therefore, it is possible to compare the marked points and / or the overall analysis status data with each other, so that it is easy to analyze the cause of bad breath and good results at the marking point, so that accurate breathing training can be performed. It can be used as a calibration data or analysis of the etiology.

The replay module 121d stores all of the respiratory training analysis status data of the respiratory trainer including the heartbeat distribution diagram displayed on the display unit 123 in real time, and is stored in the previous respiratory training of the respiratory trainer according to the selection of the respiratory trainer after the completion of the training. Controls the replay function by outputting all the respiratory training analysis status data to the display unit 123 as it is. Through the replay function, the present invention enables the detailed and specific confirmation of each breathing training beyond the simple history checking function to check the previous breathing training record, so that the degree of change of the breathing trainer due to the breathing training can be traced to an extremely fine range. Do.

In addition, the control unit 121 includes a breathing guide module that provides a breathing guide graph to guide the training pattern of the breathing training to the trainer during the training function implemented in other known breathing training apparatus (breathing training pattern setting function, Respiratory training performance achievement display function, frequency analysis graph display function, real-time waveform display function, hysteresis function, oxygen saturation measurement function) may be further included. "Training period" refers to the period during which training patterns are provided by the breathing guide module. Specifically, the breathing guide module performs a process of displaying information (respiration guide information including a breathing guide graph) on the display unit 123 for inducing breathing based on a training pattern. Description of the other well-known functional modules can be implemented in combination with the present invention by a known configuration will be omitted a detailed description.

The memory unit 122 may be a flash memory as a nonvolatile memory in which data and programs are stored. In particular, the memory unit 122 includes each step included in the respiratory training method and each component included in the respiratory training device. It is desirable to have a respiratory training program stored in the computer for running the elements.

As an embodiment of the memory unit 122, a pattern storage unit in which a plurality of training pattern data having different load levels is stored in advance, and an execution pattern information storage unit for storing information about a training pattern to be executed in the breathing training of the breathing trainer. The training result storage unit may include a training result memory to remember the training result. The components of these memory units 122 need not be included in the same recording medium, and may be included in other recording media.

As an embodiment of the data structure of the execution pattern information storage unit, the execution pattern information storage unit includes data of a training pattern to be executed selected from physical information of a trainer including age data and gender data and data of a plurality of training patterns stored in the pattern storage unit. For example, data of a predetermined training pattern may be stored in descending order of load level. The training pattern data includes at least information of training time or number of breaths, breathing cycles, depth of breathing. The load level is, for example, determined by at least one parameter of training time or number of breaths, breathing cycle (number of breaths per constant hour) and depth of breathing.

In the training result storage unit, training results are stored in units of records (R). These data may be stored correspondingly for each training, and are not limited to the storage format using the records (R).

As shown in FIG. 1A, when the pulse detecting means 110 and the training main body 120 are configured as separate independent elements, a connection for connecting the pulse detecting means 110 and the training main body 120, such as a USB cable, is used. Means may further comprise. At this time, the training main body 120 may be a computer-type device capable of computing, such as a desktop computer, a notebook computer, a laptop computer.

On the other hand, although not shown, the respiratory training device 100 of the present invention may be configured as a separate device of the stand-alone type that does not perform other functions when the pulse detection means 110 and the training main body 120 are integrally formed. In addition, the camera may be implemented as a portable terminal equipped with a camera such as a smart phone, a smart pad, a laptop computer, which may act as an optical sensor by acting as an optical sensor. At this time, it may be more preferable that the respiratory training device 100 is implemented as a portable terminal, since the portable terminal equipped with a camera can function as the respiratory training device 100 through a program containing the respiratory training method of the present invention. This is because it is extremely effective because the breathing training can be performed at any time, regardless of the place and time.

First, in order to measure the current breathing state of the trainer, the pulse of the trainer is detected by the pulse detection means (S110). After that, it is determined whether the pulse size is appropriate (S120). If not, the pulse size is adjusted (S121). If appropriate, the pulse signal is detected (S130).

When the pulse signal is detected, the pulse signal is analyzed by the controller (S140). The analyzed pulse signal is graphically displayed by the display module 121b and output to the display unit 123 to be displayed as a heartbeat distribution (S150).

After determining whether the preset training time is completed (S160), if not completed, the process returns to S130 to S150 to continuously display the heart rate distribution on the display unit 123, while watching the heart rate distribution displayed on the display unit 123. Respiratory trainers can now perform their breathing training while checking their breathing status intuitively and in real time. It is preferable that the heart rate distribution displayed to facilitate the intuitive recognition of the respiratory trainer is implemented by displaying only 10 to 30 heart rate data before and after real time and disappearing the previously displayed heart rate data. It may be more preferable if the heart rate data is implemented to be displayed such that there is a difference in color or contrast over time so that the heart rate data is well distinguished.

When the preset training time is completed, all the heart rate distributions displayed on the display unit 123 during the training time are stored as result values and are managed (S170).

At this time, in S170 to output all of the result value to the display unit 123 may be implemented to check the heart rate distribution map to the breathing trainer, or may be implemented to output or print the result value to the display in a separate step.

In addition, although not shown, if a breath trainer designates a specific time point during the breathing training, a real-time marker function for displaying a breathing training analysis status data including a heart rate distribution, a frequency analysis graph, and a real-time waveform corresponding to the designated time point may be performed. It may be.

4 is a schematic flowchart of outputting a heart rate distribution (Poincare) on the display unit 123. In particular, the flowchart of FIG. 4 is to more specifically implement S150. 5A to 5C are photographs of one embodiment in which heart rate data is displayed to enable intuitive recognition while the heart rate distribution is expressed in real time according to the flowchart of FIG. 4, and FIG. 5D is a result value of all heart rate data after the respiration training is completed. It is a photograph printed on this display part.

4 to 5A to 5D, the display unit 130 looks at the process of displaying the heart rate distribution in real time and intuitively by the respiratory trainer.

The heart rate distribution (Poincare) is a graph in which the pulse cycle is represented by the horizontal axis as t-1 and the vertical axis as t time. First, it is determined whether there is (t-1) data (S151). If it is negative, it terminates, and if it is positive, it is determined whether (t-1) data and (t) data are the same (S152). If it is the same, the process ends. If not, the highlight color (c color) is displayed on the X-axis (t-1) data and the Y-axis (t) data point (S153). The 100% c color is displayed at the point (S154). Thereafter, the accent color (c color) is displayed on the X-axis (t-n-1) data and the Y-axis (t-n) data point (S155). Then, c colors are sequentially reduced (S156). S155 to S156 is determined whether n is smaller than the tail length and repeated until it is small, and then ends. In this case, if only about 10 to 30 specific heart rate data are displayed in a graph and the previously displayed heart rate data disappears in preparation for the most recent pulse period of the tail, the heart rate distribution is prevented from being complicated. Breathing trainers can intuitively recognize the current state of breathing.

According to FIGS. 5A to 5C, which are actually displayed on the display unit 123 according to the flowchart of FIG. 4, only 10 to 30 heart rate data before and after real time is displayed and the heart rate data previously displayed is displayed. In addition to being implemented in a disappearing manner, the most recent heart rate data and the previous heart rate data are displayed so that the color difference over time to distinguish well, it can be seen that the intuitive recognition of the breathing trainer is easier.

In addition, it can be seen from FIG. 5D that the heart rate distribution diagram showing all the heart rate data during the respiratory training after the end of the training shows that the heart rate distribution forms an almost elliptical shape.

6 is a schematic flowchart for explaining a replay function.

First, the final result value (Hrv / Poincare / PSD) of the respiratory training analysis status data of the previous respiratory training selected by the known hysteresis function is displayed (S210).

If it is not selected according to whether or not the replay function is selected in the state (S220), if the selection returns to the first time (S210) and the selection is made, the designated time point for performing the replay function during the respiratory training including the initial point of the respiratory training (t + 1) The results of the respiratory training analysis status data corresponding to [Hrv / Heart distribution / PSD (t + 1)] are displayed so that the respiratory training status can be checked (S230).

If the respirator is selected according to whether or not to select the pause in order to confirm the analysis of the respiratory training in detail (S240) to return to the previous step (S230) can be examined in detail the result value of the paused point.

If it is not selected, if it is not output depending on whether or not the results of all respiratory training analysis data are output, the process returns to S230 and repeats the steps up to S250 to continuously check the entire process of the previous respiratory training from the time when the respiratory trainer is selected. It will continue to play, and will exit when the output of all data is output.

In this way, when the respiratory trainer wants to check the respiratory analysis status data of the previous respiratory training, the replay function that can be stored and reproduced after the respiratory training performed by the respiratory trainer is stored at any time to check the entire retraining training at any time. Can be.

Respiratory training program for executing each step included in each step included in the respiratory training method and the components of the respiratory training apparatus 100 according to the embodiments of the present invention shown in Figures 3 to 6 by a computer As described above, by storing the program in the memory 122 and executing the program by the controller 121, a function of performing a respiratory training device or respiratory training method capable of real time accurate recognizing a breathing state can be realized. Will be.

Although the present invention has been shown and described with reference to preferred embodiments as described above, it is not limited to the above-described embodiments and those skilled in the art without departing from the spirit of the present invention. Various changes and modifications will be possible.

Claims

As a respiratory trainer, the respiratory trainer can induce accurate respiration training by intuitively and real-time recognizing the current respiratory condition.

Pulse detection means for detecting a pulse signal from a predetermined body part of the respiratory trainer; And

A control unit for analyzing the pulse signal input from the pulse detection means in accordance with the provided breathing training program, displaying the heart rate distribution in real time according to the analyzed pulse signal and controlling each part of the training basic body, a memory unit for storing data and programs, the control unit A training basic body including a display unit which allows a respiratory trainer to check the data including the heart rate distribution displayed by the; Respiratory training apparatus capable of recognizing the exact respiratory state in real time, including.
The method of claim 1,

The control unit analyzes the pulse signal input from the pulse detection means to determine the respiratory training status in real time or the end of the training in the breathing training status graph including the heart rate distribution chart in accordance with the pulse rate analysis module and the analyzed pulse signal Respiratory training apparatus capable of recognizing the correct breathing condition in real time, characterized in that it comprises a display module for displaying after.
The method of claim 2,

The control unit is a marker module for marking the respiratory training analysis status data including one or more of the heart rate distribution, frequency analysis graph, real-time waveform corresponding to a specified time point during the respiratory training;

Further comprising at least one of the replay module for storing the respiratory training analysis status data of the entire respiratory training performed by the respiratory trainer, and replaying the respiratory training analysis status data of the previously performed respiratory training after the end of the training. Respiratory training apparatus capable of recognizing the correct breathing state in real time.
The method according to any one of claims 1 to 3,

The pulse detecting means includes a detection unit for detecting a pulse signal from a predetermined body part of the breathing trainer and a signal processing unit for processing the signal detected by the detection unit and transmitting the signal to the controller. Breathing apparatus that can recognize the condition.
The method of claim 4, wherein

Respiratory training apparatus capable of recognizing accurate respiration state in real time, characterized in that the sensing unit and the signal processing unit is composed of independent elements.
The method of claim 4, wherein

The detection unit is a breath training apparatus capable of recognizing the accurate respiration state in real time, characterized in that any one of the ear clip optical sensor, finger optical sensor, contact sensor.
The method according to any one of claims 1 to 3,

When the pulse detection means and the training main body is composed of a separate independent element, further comprising a connection means for connecting the pulse detection means and the training main body respiratory training capable of real-time accurate respiration state, characterized in that Device.
The method of claim 7, wherein

The training main body is a desktop computer, a notebook computer, a breathing apparatus capable of recognizing accurate respiration state in real time, characterized in that the laptop computer.
The method according to any one of claims 1 to 3,

The breathing apparatus is a breathing apparatus capable of recognizing a precise breathing state in real time, characterized in that the portable terminal equipped with a camera.
The method of claim 9,

Respiratory training apparatus capable of recognizing the correct respiratory state in real time, characterized in that the camera acts as the pulse detection means.
As a respiratory training method, the respiratory trainer can induce accurate respiration training by intuitively and real-time recognizing the current respiration status.

Detecting a pulse signal of the breathing trainer;

Analyzing the detected pulse signal; And

Respiratory training method capable of real-time accurate respiration state comprising the step of displaying the heart rate distribution in real time according to the analyzed pulse signal.
The method of claim 11,

The heart rate distribution is a respiratory training method capable of recognizing accurate respiratory conditions in real time, characterized in that only 10 to 30 heart rate data before and after the real time is displayed, the previously displayed heart rate data disappears.
The method of claim 12,

The displayed heart rate data is a breath training method capable of recognizing accurate respiration state in real time, characterized in that the difference in color or contrast over time to distinguish the most recent heart rate data and the previous heart rate data.
The method of claim 11,

When the breathing training of the respiratory trainer is finished, the respiratory training method capable of recognizing accurate respiratory condition in real time, further comprising the step of providing a heart rate distribution diagram in which all heart rate data during the respiratory training is displayed.
The method of claim 11,

Respiratory training method that can recognize the accurate respiratory state in real time, characterized in that it further comprises the step of marking the specific time point by the real-time marker function of the breathing training.
The method of claim 15,

Respiratory training method capable of recognizing accurate respiratory state in real time, characterized in that it further comprises the step of providing a respiratory training analysis status of the marked time after the end of the respiratory training.
A computer readable recording medium applied to a respiratory training device,

Detecting a pulse signal of the respiratory trainer;

Analyzing the detected pulse signal; And

A computer-readable recording medium recording a respiratory training program capable of recognizing accurate respiration conditions in real time, characterized in that each step of displaying the heart rate distribution chart in real time according to the analyzed pulse signal.
The method of claim 17,

The heart rate distribution chart is implemented such that only 10 to 30 heart rate data before and after real time are displayed and previously displayed heart rate data disappears. The displayed heart rate data is a time flow so that the most recent heart rate data is distinguished from the previous heart rate data. Computer-readable recording medium recording a respiratory training program capable of recognizing accurate respiration status in real time, characterized in that the color or contrast is displayed according to.
The method of claim 17,

At the end of the breathing training of the breathing trainer is provided with a heart rate distribution diagram showing all the heart rate data during the breathing training, a specific time point during the breathing training is marked by a real-time marker function, after the end of the breathing training A computer-readable recording medium recording a respiratory training program capable of recognizing accurate respiration status in real time, characterized in that the computer further executes any one or more of the steps of providing a respiratory training analysis status.