KR20180065039A - Smart phone ubiquitous healthcare diagnosis system using vital integrated communication module - Google Patents

Abstract

The present invention relates to a smartphone ubiquitous helical square system using a Vital Integrated Medical Device, and more particularly, to a vital integrated system for measuring vital signs and vital signs of a human or an animal in cooperation with a portable terminal, And a smartphone ubiquitous Hello Square system using medical equipment.
To achieve these and other advantages and in accordance with the purpose of the present invention, as embodied and broadly described herein, a smartphone ubiquitous HelloSquare system using Vital Integrated Medical Device may include an input module and a vital integration module.
In addition, the input module may measure a living body or a living body's vital signs and a living body signal, and may include a blood pressure measuring unit, a blood flow measuring unit, a body temperature measuring unit, and a stethoscope measuring unit.
Wherein the blood pressure measuring unit measures a blood pressure of a person or an animal and the blood flow measuring unit measures blood oxygen saturation and heart rate of a person or an animal and the body temperature measuring unit measures a body temperature of a person or an animal, Can be measured.
In addition, the vital integration module may control the input module to measure a living body sound and a living body signal, analyze the living body sound and the living body signal based on the measured living body sound and a living body signal, and remotely transmit the analysis result to the portable terminal.
The vital integration module may include a control unit, a transmission unit, a data storage unit, an output unit, and a power supply unit.
The control unit controls the input module to measure a living body sound and a living body signal, and analyzes based on the measured living body sound and a living body signal. The transmission unit is operated under the control of the control unit to remotely transmit the analysis result to the portable terminal, and the data storage unit stores the measurement data of the input module and the analysis result of the control unit.
The output unit may display the measurement data of the input module and the analysis result of the control unit, and the power unit may supply power to the input module and the vital integration module.
As described above, the smartphone ubiquitous HellSquare system using the Vital Integrated Medical Device according to the present invention can measure body temperature, blood pressure, heart beat (applause), oxygen saturation, and stethoscopic sound without restriction of place and time It is effective.
In addition, since the diagnostic result is informed to the user based on the measured bio-sound and the bio-signal, the health care can be efficiently performed.

Description

[0001] Smart phone ubiquitous healthcare diagnosis system using vital integrated communication module [

The present invention relates to a smartphone ubiquitous helical square system using a Vital Integrated Medical Device, and more particularly, to a vital integrated system for measuring vital signs and vital signs of a human or an animal in cooperation with a portable terminal, And a smartphone ubiquitous Hello Square system using medical equipment.

As life patterns including dietary habits change, various adult diseases such as hypertension, diabetes and obesity are increasing rapidly.

Regular exercise and periodic screening are the most effective ways to prevent these diseases, but it is very troublesome to have the medical institutions directly visited by the busy modern people to receive the screenings and prescriptions.

Except for cases where the health condition of the patient is excessively deteriorated, such as heart disease, hypertension, hypotension, sleep apnea (snoring), etc., the examinations for the patients who do not need precise examination and surgery are not necessary. It is a simple procedure to make a prescription according to current health condition after measurement.

In general, the most common methods for measuring the health status of a patient are body temperature, blood pressure, heart (applause), oxygen saturation, and stethoscope.

In addition, most households have a basic medical device for the health of the family. Such personal medical devices are mostly stand-alone products, which limits the health care of the family.

Further, there is a problem that it is difficult to diagnose the measurement result even when the living body sound and the living body signal are measured using the medical instrument.

Korean Patent No. 1310930 (issued on September 25, 2013)

SUMMARY OF THE INVENTION Accordingly, the present invention has been made in view of the above problems, and it is an object of the present invention to provide a Vital Integrated Medical Device (VICM) capable of measuring body temperature, blood pressure, pulse volume, oxygen saturation, The purpose is to make it possible.

It is also intended to enable the measurement and diagnosis of body temperature, blood pressure, heart rate (applause), oxygen saturation, and stethoscopic sound without restriction of place and time.

In addition, it is intended to inform the user of the diagnosis result based on the measured bio-sound and the bio-signal, and to remotely manage the health effectively.

To achieve these and other advantages and in accordance with the purpose of the present invention, as embodied and broadly described herein, a smartphone ubiquitous HelloSquare system using Vital Integrated Medical Device may include an input module and a vital integration module.

In addition, the input module may measure a living body or a living body's vital signs and a living body signal, and may include a blood pressure measuring unit, a blood flow measuring unit, a body temperature measuring unit, and a stethoscope measuring unit.

Wherein the blood pressure measuring unit measures a blood pressure of a person or an animal and the blood flow measuring unit measures blood oxygen saturation and heart rate of a person or an animal and the body temperature measuring unit measures a body temperature of a person or an animal, Can be measured.

In addition, the vital integration module may control the input module to measure a living body sound and a living body signal, analyze the living body sound and the living body signal based on the measured living body sound and a living body signal, and remotely transmit the analysis result to the portable terminal.

The vital integration module may include a control unit, a transmission unit, a data storage unit, an output unit, and a power supply unit.

The control unit controls the input module to measure a living body sound and a living body signal, and analyzes based on the measured living body sound and a living body signal. The transmission unit is operated under the control of the control unit to remotely transmit the analysis result to the portable terminal, and the data storage unit stores the measurement data of the input module and the analysis result of the control unit.

The output unit may display the measurement data of the input module and the analysis result of the control unit, and the power unit may supply a power source (battery) to the input module and the vital integrated module.

As described above, the smartphone ubiquitous HellSquare system using the Vital Integrated Medical Device according to the present invention can measure body temperature, blood pressure, heart beat (applause), oxygen saturation, and stethoscopic sound without restriction of place and time It is effective.

In addition, since the diagnostic result is informed to the user based on the measured bio-sound and the bio-signal, the health care can be efficiently performed.

FIG. 1 is a block diagram illustrating a smartphone ubiquitous HELOQUARE system using a Vital Integrated Medical Device according to an embodiment of the present invention. Referring to FIG.
FIG. 2 is a diagram illustrating a state in which a smartphone ubiquitous HellSquare system using a Vital Integrated Medical Device according to an embodiment of the present invention operates in conjunction with a portable terminal.
FIG. 3 is a diagram showing a practical production of a smartphone ubiquitous HELOQUARE system using a Vital Integrated Medical Device according to an embodiment of the present invention.
4 is a block diagram illustrating a blood pressure measuring unit in a smartphone ubiquitous HELOQUACE system using Vital Integrated Medical Device according to an embodiment of the present invention.
FIG. 5 is a block diagram illustrating a blood flow measuring unit in a smartphone ubiquitous Hell square system using a Vital Integrated Medical Device according to an embodiment of the present invention. Referring to FIG.
FIG. 6 is a diagram illustrating a body temperature measuring unit in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention. Referring to FIG.
FIG. 7 is a block diagram illustrating a stethoscope measurement unit in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention. Referring to FIG.
FIG. 8 is a diagram illustrating a power unit in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention. Referring to FIG.
9 is a diagram illustrating a state in which a smartphone ubiquitous HellSquare system using a Vital Integrated Medical Device according to an embodiment of the present invention is operated in conjunction with a portable terminal device.
FIG. 10 is a diagram illustrating a process of detecting a signal measured in an input module of a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can easily carry out the present invention. The present invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. In order to clearly illustrate the present invention, parts not related to the description are omitted, and similar parts are denoted by like reference characters throughout the specification.

Throughout the specification, when an element is referred to as "comprising ", it means that it can include other elements as well, without excluding other elements unless specifically stated otherwise. Also, the terms " part, "" ... "," module ", and the like described in the specification mean units for processing at least one function or operation, and may be implemented by hardware or software or a combination of hardware and software .

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

Like reference symbols in the drawings denote like elements.

TECHNICAL FIELD The present invention relates to a smartphone ubiquitous HELQUARQUE system using a vital integrated medical device for measuring living body or vital signs of a person or an animal in cooperation with a portable terminal and diagnosing based on the measured data.

FIG. 1 is a configuration diagram illustrating a smartphone ubiquitous HELOQUARE system using a Vital Integrated Medical Device according to an embodiment of the present invention. FIG. 2 is a block diagram of a smartphone Ubiquitous HELC using a Vital Integrated Medical Device according to an embodiment of the present invention. FIG. 3 is a view showing a smart phone ubiquitous HellSquare system using a Vital Integrated Medical Device according to an embodiment of the present invention. FIG. 3 is a diagram illustrating a state in which a square system is operated in conjunction with a portable terminal device.

As shown in FIGS. 1 to 3, the smartphone ubiquitous HelloSquare system using the Vital Integrated Medical Device according to the present invention may include an input module 100 and a vital integration module 200.

Also, the input module 100 measures the human body or animal's vital signs and biological signals. The input module 100 may include a blood pressure measuring unit 110, a blood flow measuring unit 120, a body temperature measuring unit 130, and a stethoscope measuring unit 140.

The blood pressure measuring unit 110 measures blood pressure of a person or an animal, and the blood flow measuring unit 120 measures blood oxygen saturation and heart rate (pulse rate) of a person or an animal. The body temperature measuring unit 130 measures a body temperature of a person or an animal, and the stethoscope measuring unit 140 measures a human or animal living body sound.

In addition, the vital integration module 200 controls the input module 100 to measure a living body sound and a living body signal, diagnoses based on the measured living body sound and a living body signal, and transmits the diagnosis result to the portable terminal device 300 It can be transferred remotely.

The vital integration module 200 may include a control unit 210, a transmission unit 220, a data storage unit 230, an output unit 240, and a power supply unit 250.

The control unit 210 controls the input module 100 to measure a living body sound and a living body signal, and diagnoses based on the measured living body sound and a living body signal. The transmission unit 220 is operated under the control of the control unit 210 and remotely transmits the diagnosis result to the portable terminal device 300. The data storage unit 230 stores the measurement data of the input module 100 and the control unit 210).

In addition, the output unit 240 displays the measurement data of the input module 100 and the diagnosis result of the control unit 210. The power supply unit 250 receives the external power and supplies the power to the input module 100 and the vital integration module 200. The power supply unit 250 charges the battery 253 using the external power supply, 100 and the vitality integration module 200. [

The transmission unit 220 may include an analog-to-digital converter (ADC) 221 and a communication unit 222. The ADC 221 converts the bio-sound and the bio-signal measured by the input module 100 and the diagnostic result of the controller 210 into a digital signal. The communication unit 222 remotely transmits the converted digital signal to the portable terminal device 300.

Here, the communication unit 222 may include at least one of Bluetooth, WiFi (WiFi), and a beacon.

FIG. 4 is a block diagram illustrating a blood pressure measuring unit 110 in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention.

4, the blood pressure measuring unit 110 according to the present invention includes a pressure sensor 111, a detecting unit 112, a high / low blood pressure counter 113, a data transmitting unit 114, and a blood pressure display unit 115, . ≪ / RTI >

The pressure sensor 111 senses the magnitude of the pressure oscillation generated in the cuff on the arterial blood vessel. The detection unit 112 detects the blood pressure detected by the pressure vibration sensor 111 and the high / low blood pressure counter 113 calculates the maximum blood pressure and the minimum blood pressure based on the blood pressure detected by the detection unit 112.

The data transfer unit 114 transmits the detected blood pressure data and the calculated systolic and diastolic blood pressure to the vital integration module 200. The blood pressure display unit 115 displays the systolic blood pressure data, The lowest blood pressure is displayed to inform the user.

FIG. 5 is a block diagram illustrating a blood flow measuring unit 120 in a smartphone ubiquitous Hell square system using a Vital Integrated Medical Device according to an embodiment of the present invention.

5, the blood flow measuring unit 120 according to the present invention includes a light receiving unit 121, a current-voltage converter 122, an amplifying unit 123, a high-pass filter unit 124a, a first signal processor 125a ), A blood oxygen saturation calculating unit 126a, and an oxygen saturation transfer unit 127a.

The light receiving unit 121 passes the light source to the blood vessel, detects the light source, and converts the light into a current. The current-to-voltage converter 122 converts the current generated in the light-receiving unit 121 into a voltage, and the amplifying unit 123 amplifies the voltage converted in the current-voltage converter 122.

Also, the high-pass filter 124a removes low frequencies from the amplified voltage and filters high frequencies, and the first signal processor 125a converts the filtered signal from the high-pass filter 124a into an output signal suitable for use Conversion.

The blood oxygen saturation calculator 126a measures the PPG (photoperiod measurement) and SpO2 (blood oxygen saturation), and the oxygen saturation transfer unit 127a measures the PPG (photoperiod measurement) and SpO2 Saturation degree) to the Vital Integrated Module (VICM)

The blood flow measuring unit 120 may further include a second order differentiator 124b, a second signal processing unit 125b, a heart beat applet calculating unit 126b, and a heart beat applier transmitting unit 127b. have.

The second order differentiator 124b receives the amplified voltage from the amplifying unit 123, converts the signal using the differential circuit, and converts the converted signal into an output signal suitable for use in the second signal processing unit 125b.

In addition, the heart (pulse) applause calculating unit 126b measures the SD and the PPG (optical blood flow measurement), and the heart (pulse) applause transmitting unit 127b measures the SD and PPG To the module (VICM) 200.

FIG. 6 is a block diagram illustrating a body temperature measuring unit 130 in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention.

6, the body temperature measuring unit 130 includes a temperature sensor 131, an amplifier 132, a level controller 133, an analog-to-digital converter (ADC) 134, (Not shown).

The temperature sensor 131 senses the temperature of the person or the animal, and the amplification unit 132 amplifies the sensed data to the temperature sensor 131.

The level controller 133 controls the amplified signal from the amplifier 132 and the analog-to-digital converter (ADC) 134 converts the analog signal output from the level controller 133 into a digital signal.

The temperature transmitter 135 receives the converted temperature signal from the ADC 134 and transmits the temperature signal to the vital integration module 200.

FIG. 7 is a block diagram illustrating a stethoscope measuring unit 140 in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention.

7, the stethoscope measurement unit 140 according to the present invention includes a sound pickup unit 141, an amplification unit 142, a stethoscope sound filter unit 143, a stethoscope sound output unit 144, an analog-digital converter 145 and a stethoscope data transfer unit 146.

The sound collector 141 may collect a human or animal living organism sound.

The amplification unit 142 amplifies the bio-acoustic data collected by the sound pickup unit 141. The blue-tone sound filter unit 143 receives the bio-sound signal amplified by the amplification unit 142, Filter by.

An analog-to-digital converter (ADC) 145 converts the filtered analog sound signal into a digital signal and outputs the filtered analog sound signal to the user. Conversion.

The stethoscope data transfer unit 146 receives the converted signal from the ADC 145 and transmits the signal to the vital integration module 200.

FIG. 8 is a configuration diagram illustrating a power supply unit 250 in a smartphone ubiquitous HELOQUACE system using a Vital Integrated Medical Device according to an embodiment of the present invention.

8, the power supply unit 250 according to the present invention includes a power input unit 251, a charging circuit 252, a battery 253, a discharge LED 254, and a charging LED 255 ).

When the power supply unit 250 receives external power and charges the battery 253 and supplies power to the input module 100 and the vital integrated module 200 through the charged battery 253, The charging LED 255 may indicate whether the battery 253 is charged or discharged.

FIG. 9 is a diagram illustrating a state in which a smartphone ubiquitous HelloSquare system using a Vital Integrated Medical Device according to an embodiment of the present invention operates in conjunction with a portable terminal device 300. Referring to FIG.

This will be described in detail as follows.

As shown in FIGS. 1 to 3, the smartphone ubiquitous HelloSquare system using the Vital Integrated Medical Device according to the present invention may include an input module 100 and a vital integration module 200.

The Vital Integrated Communication Module (VICM) 200 controls the input module 100 to measure body temperature, blood pressure, heart rate (pulse rate), coral saturation and stethoscope of a person or an animal, Healthcare system that is operated in conjunction with the portable terminal device 300 so that the healthcare of the individual and the family can be performed using the portable terminal device 300. [

(Body temperature, blood pressure, heart beat, and oxygen saturation) measured using the input module 100 can be remotely transmitted through the transmission unit 220 to a portable 9, the bio-sound and the bio-signal are diagnosed by using the diagnostic application 310 installed in the portable terminal device 300, and the diagnosis result is informed to the user have.

On the other hand, the controller 210 can receive the bio-sound and the bio-signal and diagnose the bio-sound. In this case, the diagnostic application 310 can remotely receive the bio-sound, the bio-signal, and the diagnosis result, and display it to the user.

In addition, the measured bio-sound and the bio-signal and the diagnosis result can be stored in the portable terminal device 300, and the stored data can be transmitted to other users including the doctor and the veterinarian through the portable terminal device 300 to share data. have.

1 and 4, the blood pressure measuring unit 110 can measure the blood pressure of a person or an animal.

When the air pressure is applied to the cuff and the air pressure is slowly released, the pressure sensor 111 senses the magnitude of the pressure oscillation generated in the cuff on the arterial blood vessel, and the sensed data is detected by the detection unit 112 Blood pressure can be measured.

Further, the blood pressure data measured by the detection unit 112 can be input to the high / low blood pressure counter 113, and the maximum blood pressure and the minimum blood pressure can be calculated. The data transfer unit 114 transfers the calculated systolic and diastolic blood pressure values to the vital integration module (VICM) 200.

Here, the blood pressure display unit 115 may be included to display the calculated systolic blood pressure and diastolic blood pressure to the user.

As shown in FIGS. 1 and 7, the stethoscope measuring unit 140 can measure the heart and lung sounds of a person or an animal.

The bio-sound can be picked up from the header 141. The bio-sound collected by the sound pickup unit 141 may be amplified by the amplification unit 142 and transmitted to the stochastic sound filter unit 143.

On the other hand, in order to measure heart sound and loud sound, a measurement mode according to the measurement target is required. For each frequency band suitable for measurement, the heart sound is composed of a bell mode, the closed sound (breathing sound) is composed of a diaphragm mode, and the mode for diagnosing both a heart sound and a loud sound is composed of a wide mode have.

The bell mode can measure heart sound using a filter frequency of 0 Hz to 400 Hz or less. The diaphragm mode can measure breath sounds using a filter frequency of 300 Hz to 1200 Hz or less.

Further, it is preferable to use a filter frequency of 0 Hz to 1500 Hz or less for the wide mode that simultaneously measures the heart sound and the closed sound (respiration sound).

The stethoscope filter unit 143 may include a filter for setting the filter frequency. The heart sound and the loud sound filtered by the stasis sound filter unit 143 are input to an ADC (Analog-to-digital converter) 145 and converted into a digital signal. The stethoscope data transfer unit 156 converts the converted digital signal into a vital integration module (VICM) < / RTI >

Here, the analog data of the heart sound and the loud sound filtered by the stasis sound filter unit 143 can be reproduced in the stasis sound output unit 144 and displayed to the user. The stethoscope sound output unit 144 may include a speaker and an earphone.

The vital integration module 200 may include an interface 211.

The blood pressure measuring unit 110, the blood flow measuring unit 120, the body temperature measuring unit 130 and the stethoscope measuring unit 140 of the input module 100 are connected to the vital integration module 200 through the interface 211 Can be connected.

Therefore, it is possible to connect a conventional blood pressure monitor, a clinical thermometer, an oxygen saturation degree and a pulse appliances measuring instrument to the interface 211 for use.

The output unit 240 can display the measurement data of the input module 100 and the diagnosis result of the control unit 210. [ In addition, the output unit 240 may include a speaker, an earphone, and a display monitor.

The user can monitor the bio-sound and the biological signal measured by the input module 100 through the output unit 240 and the diagnosis result of the controller 210. [

The vital integration module 200 may include a diagnostic algorithm 320 for diagnosing the bio-sound and the bio-signal measured by the input module 100.

10 is a diagram illustrating a process of detecting a signal measured by the input module 100 of a smartphone ubiquitous Hell square system using a Vital Integrated Medical Device according to an embodiment of the present invention.

As shown in FIG. 10, the minimum necessary data may be extracted from the biomedical sound data 410 measured by the input module 100 by a hamming window 420.

Also, it is possible to calculate the logarithmic energy crossing rate for each bio-sound using the extracted FFT and the logarithmic energy crossing ratio (LCR) 430.

Here, the logarithmic energy crossing ratio (LCR) 430 indicates the number of times that the waveform of the signal intersects the threshold based on the threshold value set for each frame by setting a threshold, which is expressed by the following equation (1) .

[Equation 1]

From here,

Vital integration module 200 may include a Dynamic Time Warping (DTW) algorithm.

When the patient is diagnosed by comparing the specific diagnosis data stored in the data storage unit 230 or the portable terminal 300 with the bio-sound and the bio-signal measured through the input module 100, the DTW Time Warping algorithm may be used. ≪ EMI ID = 2.0 >

&Quot; (2) "

Here, the weight coefficient w (k) can be obtained as follows.

(k) = (i (k) -i (k-1) + j (k)

N = I + J

(Where, I and J are the distances between the speech patterns A and B)

The normalized distance along the time axis

(Where N = I + J)

Meanwhile, the diagnostic algorithm 320 may be installed in the diagnostic application 310 of the portable terminal device 300 and may receive the bio-sound and the biological signal transmitted from the vital integration module 200 and diagnose it.

The diagnostic application 310 of the portable terminal device 300 receives a bio-sound and a biological signal from the vital integration module 200 and displays a waveform according to a time domain or displays each measured data by numerical values .

In addition, the diagnostic algorithm 320 may inform the patient of the diagnosis based on the diagnosis result.

While the present invention has been described in connection with what is presently considered to be practical exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, And all changes to the scope that are deemed to be valid.

100: input module 110: blood pressure measuring part
111: pressure vibration sensor 112:
113: High / low blood pressure counter 114: Data transmission unit
115: blood pressure display part 120: blood flow measuring part
121: light receiving section 122: current-voltage converter
123, 132, 142: amplifying unit 124a: high-pass filter unit
124b: second order differentiator 125a: first signal processor
125b: second signal processing unit 126a: blood oxygen saturation calculating unit
126b: heart (beat) applause calculation unit 127a: oxygen saturation transmission unit
127b: shim (apples) applause transfer unit 130:
131: Temperature sensor 133: Level controller
134, 145, 221: an analog-digital converter (ADC)
135: Temperature transfer unit 140: Stethoscope measurement unit
141: sound collector 143:
144: Stethoscope sound output unit 146: Stethoscope data transmission unit
200: Vital Integrated Module (VICM) 210:
211: Interface 220:
222: communication unit 230: data storage unit
240: output section 250: power section
251: Power input unit 252: Charging circuit
253: Battery 254: Discharge LED
255: Charging LED 300: Portable terminal device
310: diagnostic application
320: diagnosis algorithm 410: biomedical sound data
420: Hamming Window 430: Algebraic Energy Crossing Rate (LCR)

Claims (12)

An input module for measuring the vital signs and the vital signs of a person or an animal; And
And a vital integration module for measuring the living body sound and the living body signal by controlling the input module, diagnosing based on the measured living body sound and the living body signal, and remotely transmitting the diagnosis result to the portable terminal,
The vital integration module includes:
A controller for controlling the input module to measure a living body sound and a living body signal, and diagnosing based on the measured living body sound and the living body signal;
A transmitter operable under the control of the controller to remotely transmit the diagnostic result to the portable terminal; And
And a data storage unit for storing measurement data of the input module and diagnosis results of the control unit.
The method according to claim 1,
Wherein the input module comprises:
A blood pressure measuring unit for measuring a blood pressure of a person or an animal;
A blood flow measuring unit for measuring blood oxygen saturation and heart rate (pulse rate) of a person or an animal;
A body temperature measuring unit for measuring a body temperature of a person or an animal; And
A smartphone ubiquitous HellSquare system using a vital integrated medical device including a stethoscope measuring part for measuring the vital sound of a person or an animal.
The method according to claim 1,
The vital integration module includes:
An output unit for displaying measurement data of the input module and a diagnosis result of the control unit; And
And a power unit for receiving external power and supplying the power to the system or charging the battery using the external power source and supplying power to the system from the charged battery. .
The method according to claim 1,
Wherein the transmission unit comprises:
A bio-sound and a biological signal measured by the input module, and an ADC converting a diagnosis result of the controller into a digital signal; And
And a communication unit for remotely transmitting the converted digital signal to the portable terminal,
The communication unit
Bluetooth, WiFi (WiFi), and beacon.
3. The method of claim 2,
The blood pressure measuring unit
A pressure sensor that senses the magnitude of the pressure oscillation in the cuff on the arterial blood vessel;
A detection unit for detecting a blood pressure sensed by the pressure vibration sensor;
A high / low blood pressure counter for calculating a maximum blood pressure and a minimum blood pressure based on the blood pressure detected by the detection unit;
A data transmission unit for transmitting the detected blood pressure data and the calculated systolic blood pressure and diastolic blood pressure to the vital integration module; And
And a blood pressure display unit for displaying the detected blood pressure data and the calculated systolic blood pressure and the diastolic blood pressure, and a smartphone ubiquitous HelloSquare system using the vital integrated medical device.
3. The method of claim 2,
The blood flow measuring unit
A light receiving unit that passes a light source to the blood vessel, detects a light source passed and converts the light into a current;
A current-voltage converter for converting a current generated in the light-receiving unit into a voltage;
An amplifier for amplifying the voltage converted by the current-voltage converter;
A high pass filter unit for removing a low frequency from the amplified voltage of the amplifying unit and filtering a high frequency;
A first signal processing unit for converting the signal filtered by the high pass filter unit into an output signal suitable for use;
A blood oxygen saturation calculating unit for measuring PPG (photoprocessing blood flow) and SpO2 (blood oxygen saturation) by receiving the signal converted from the first signal processing unit;
An oxygen saturation transmitter for transmitting the measured PPG (photoperiod measurement) and SpO2 (blood oxygen saturation) to the vital integration module;
A second order differentiator for processing the voltage amplified by the amplifying unit using a differential circuit;
A second signal processor for converting a signal processed by the second order differentiator into an output signal suitable for use;
A heart beat (MP) clapping calculator for receiving the signal converted by the second signal processor and measuring SD and PPG (optical blood flow measurement); And
And a shuffle transmitter for transmitting the measured SD and PPG (optical blood flow measurement) to the vital integration module. The smartphone ubiquitous HellSquare system using the integrated vital integrated medical device.
3. The method of claim 2,
The body temperature measuring unit
A temperature sensor for sensing the temperature of a person or an animal;
An amplifier for amplifying data sensed by the temperature sensor;
A level controller for controlling a signal amplified by the amplifying unit;
An analog-to-digital converter (ADC) for converting the analog signal output from the level controller into a digital signal; And
And a temperature transmitter for receiving the temperature signal converted by the ADC and transmitting the converted temperature signal to the vital integration module.
3. The method of claim 2,
The stethoscope measuring unit
A sound collector for picking up a voiced sound of a person or an animal;
An amplifying unit for amplifying the bio-acoustic data collected by the sound pickup unit;
A stoop sound filter unit for receiving the biomedical signal amplified by the amplification unit and filtering the biomedical signal by a preset frequency band according to a measurement object;
A stethoscoped sound output unit outputting the filtered biomedical signal to the user;
An analog-to-digital converter (ADC) for converting the analog signal filtered by the cine filter to a digital signal; And
And a stethoscope data transfer unit for receiving the converted signal from the ADC and transmitting the converted signal to the vital integration module.
9. The method of claim 8,
The stethoscope sound filter unit
A bell mode, a diaphragm mode, and a wide mode for filtering a living body sound according to a frequency band of a measurement object,
The bell mode measures the heart sound using a filter frequency of 0 Hz to 400 Hz or less,
The diaphragm mode measures breath sounds using a filter frequency of 300 Hz to 1200 Hz or less,
Wherein the wide mode measures the heart sound and the closed sound (breathing sound) simultaneously using a filter frequency of 0 Hz to 1500 Hz or less. The smartphone ubiquitous HellSquare system using the Vital Integrated Medical Device.
The method according to claim 1,
The portable terminal device includes a diagnostic application and a diagnostic algorithm,
The diagnosis algorithm diagnoses a patient by inputting bio-sound and a bio-signal from the vital integration module,
Wherein the diagnostic application displays a bio-sound and a bio-signal input from the vital integration module, and a diagnosis result of the diagnosis algorithm, and the smartphone ubiquitous HellSquare system using the Vital Integrated Medical Device.
The method according to claim 1,
Wherein the vital integration module extracts minimum data necessary for diagnosis from the bio-sound and the bio-signal measured by the input module according to the following formula (1): < EMI ID = 1.0 > system.
[Equation 1]

From here,

The method according to claim 1,
The vital integration module diagnoses the patient by comparing the specific diagnostic data of the patient stored in the data storage unit with the bio-sound and the biological signal measured through the input module according to the following equation (2) Ubiquitous HellSquare System for Smart Phones Using Vital Integrated Medical Devices.
&Quot; (2) "

(Where the weighting coefficient w (k) is
(k) = (i (k) -i (k-1) + j (k)
N = I + J,
I and J are the distance between the speech patterns A and B,
The normalized distance along the time axis

Where N = I + J)

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