KR101549109B1 - Health care system using smart watch - Google Patents

Abstract

The present invention relates to a health care system using a smart watch, which can measure a pulse rate or pulse wave of a human body using a watch of a user, and can check health on the basis of the measured pulse rate. In the smart watch (10) which is worn in the body of the user, and outputs time and images on a screen. The smart watch (10) includes: a pulse rate measurement member (30) which measures the pulse rate of a human body; and a pulse rate management member (40) which manages pulse rate data measured in the pulse rate measurement member (30) and outputs the pulse rate data to the display (20). The pulse rate measurement member (30) includes a pulse rate measurement part (31) which gathers acoustic sound generated by the pulse rate. The pulse rate measurement part (31) includes: a sound collection part (32) which is formed on a rear side of the smart watch (10) concavely, and collects vibration generated in an organ of the human body; a sensor part (33) which is located in a concave center of the sound collection part (32), and checks the pulse rate data by amplifying the vibration collected in the sound collection part (32), and transmits the pulse rate data to the pulse rate management member (40); and a microphone (34) which checks acoustic wave data by amplifying the sound collected in the sound collection part of the pulse rate measurement part and then transmits the acoustic wave data to an acoustic wave management member (400). The pulse rate measurement part (31) further includes the acoustic wave management member (400) which manages the acoustic wave data measured in the microphone (34) of the pulse rate measurement member (30), and outputs the acoustic wave data to the display (20).

Description

[0001] HEALTH CARE SYSTEM USING SMART WATCH [0002]

The present invention relates to a healthcare system using a SmartWatch that measures a pulse or a pulse wave of a body using a SmartWatch carried by a user and can check health based on the measured pulse or pulse wave.

In general, the medical treatment of pulses is used in the analysis of somatosensory or paranasal sinuses in Oriental medicine and is used to diagnose the patient's current health status and past medical history.

In addition, many people are injuring their health due to the increasing stress caused by various social activities in an industrialized society. Accordingly, there is a growing demand for a health diagnostic device that allows an introductory health check to be carried out easily without increasing the interest in health and without going to a medical institution.

Therefore, it is possible to directly check the health of the user through the health checkup device, and directly stimulate his / her hemorrhoids by using a syringe or a massage device.

However, the principle of acupuncture is complicated and diverse, and it takes a lot of time and effort for individuals to learn, which makes it difficult to find the hemisphere correctly.

BACKGROUND ART [0002] The background art of the present invention is disclosed in Published Patent Publication No. 1998-052487 (September 25, 1998) filed in the Korean Intellectual Property Office.

A problem to be solved by the present invention is to provide a healthcare system using a SmartWatch that can measure a pulse or pulse wave of a body using a SmartWatch carried by a user and check health based on the measured pulse or pulse wave .

Another object of the present invention is to provide a healthcare system using a smart watch that can form a concave rear surface of a SmartWatch so as to collect vibrations generated from an organ of a body to confirm pulse.

The smart watch 10 according to an exemplary embodiment of the present invention includes a display 20 that is worn on a user's body and outputs time and images to a screen. 10 includes a pulse measuring member 30 for measuring the pulse of a human body and a pulse management member 40 for outputting the pulse data measured by the pulse measuring member 30 to the display 20 while managing the pulse data, The measuring member 30 includes a pulse measuring part 31 for collecting sound generated by the pulse and the pulse measuring part 31 is formed concavely in the back surface of the smart watch 10, And a sensor unit 32 for amplifying the vibration collected at the sound collector 32 and confirming the pulse data and transmitting the amplified vibration to the pulse management member 40, 33 of the pulse measuring unit 31, a sound collecting unit 32 And a microphone 34 for amplifying the sound collected in the pulse measurement member 30 to confirm and transmit the sound data to the sound wave management member 400, And a sound wave management member (400) for outputting the sound wave to the sound source (20).

The present invention has the advantage of measuring the pulse or pulse wave of the body using a watch carried by the user and checking the health based on the measured pulse or pulse wave.

Further, since the back surface of the smart watch is formed concavely, the vibration generated in the body of the body is captured and the pulse can be accurately confirmed.

1 is a perspective view showing a healthcare system using a smart watch according to an embodiment of the present invention;
2 is a perspective view showing the bottom of the present invention.
3 is a plan view showing the bottom of the present invention.
Figure 4 shows a side view of the invention.
5 is a block diagram illustrating a configuration according to an embodiment of the present invention;
FIG. 6 is a block diagram showing a configuration of a pulse management unit applied to the present invention; FIG.
7 is a block diagram showing the configuration of a sound wave management unit applied to the present invention;
8 is a view showing an operation state of a pulse wave measuring member applied to the present invention.
9 is a view showing another embodiment of a pulse wave measuring member applied to the present invention.
10 is a block diagram showing a configuration of a pulse wave management member according to another embodiment of the present invention.
11 is a block diagram showing a configuration of a treatment management member applied to the present invention.
FIG. 12 is a view showing a state in which a body image is displayed on a hand displaying a hemisphere on a display of the present invention. FIG.
13 is a view showing a state in which a body image for a foot is displayed on the display of the present invention.
FIG. 14 is a view showing a state in which a body image is displayed on the display of the present invention along with a name of a lesion and a blood spot corresponding thereto. FIG.
FIG. 15 is a view showing a state in which a body image is displayed on the display of the present invention along with a different name and a blood spot corresponding thereto; FIG.
16 is a view showing a state in which a diagnosis image is output together with a body image on a display of the present invention.
17 is a view showing a cradle applied to the present invention.
18 is a view showing a state in which a smartwatch is mounted on a cradle of the present invention.

Hereinafter, a healthcare system using the smart watch according to the present invention will be described in detail with reference to the accompanying drawings.

As shown in Figs. 1 to 4, the smart watch 10 is equipped with a display 20 that is worn on the user's body and outputs time and images to the screen.

The smart watch 10 according to the present invention includes a pulse measuring member 30 provided in the smart watch 10 for measuring a pulse of a human body and a pulse measuring unit 30 for measuring pulse data measured by the pulse measuring member 30, And a pulse management member (40) for outputting pulses.

The pulse measuring member 30 includes a pulse measuring unit 31 for collecting sound generated by a pulse and at least one sub pulse measuring unit 35 located around the pulse measuring unit 31 and collecting sound do.

The pulse measuring unit 31 includes a collector 32 formed to be concave on the back surface of the smart watch 10 and collecting vibrations generated from the organ of the body, And a sensor unit 33 for amplifying the vibrations collected in the blood pressure monitor 32 to confirm the pulse data and transmit the pulse data to the pulse management member 40.

On the other hand, the sub-pulse measuring part 35 includes at least one or more sub-collecting part 36 which is located in the periphery of the collecting part 32 and is concave and collects the vibrations, And a sub sensor unit 37 for amplifying the vibration collected at the sound part 36 to confirm the pulse data and transmit it to the pulse management member 40.

The pulse measuring member 30 compares the pulses picked up by the pick-up unit 32 and the sub pick-up unit 36 when the user brings the back surface of the smart watch 10 into close contact with the body, Can direct the display 20 to more accurately measure the vibrations of the body.

4, the pulse measuring part 31 is provided on the rim of the sound collecting part 32 to close the sound collecting part 32 and is provided with a vibration plate 32, which is vibrated by the vibration generated in the body of the skin of the body, (38).

The diaphragm 38 may be adhered and fixed to the rim of the sound collector 32 while being composed of a flexible synthetic resin film. Since the diaphragm 38 is vibrated by vibrations generated in the organ of the skin of the body, vibration of the air enclosed in the sound collector 32 can be maximized. That is, since the vibration of the collector 32 is maximized by the air, the sensor unit 33 can be more easily sensed.

The pulse measuring unit 31 further includes a vibration transmitting member 39 connected to both the sensor unit 33 and the diaphragm 38 to transmit the vibration of the diaphragm 38 to the sensor unit 33. Such a vibration transmitting member 39 may be configured as a pin to transmit vibration. Then, the pin can be bent in a zigzag so that the pin corresponds to the tremble of the diaphragm 38, and can be expanded and contracted.

The diaphragm 38 and the vibration transmitting member 39 may be applied to the sub pulse measuring unit 35 as well.

5 and 6, the pulse management member 40 controls the pulse measurement member 30 to output the pulse data to the display 20 while managing the pulse data measured by the pulse measurement member 30, A pulse diagnosis information management section 42 for managing pulse diagnosis information corresponding to the reference pulse data and the reference pulse data; and a pulse data receiving section 41 for receiving the pulse data received from the pulse data receiving section 41, A pulsation determination unit 43 for determining a reference pulse data to be compared with the reference pulse data and outputting pulse diagnosis information of the reference pulse data to the display 20, And a diagnostic information output unit 44. [ Here, the pulse diagnosis information may be information on a disease name corresponding to each of the pulse data ranges when the range of pulse data is higher than that of the normal pulse data, or information on action tips that can improve the sickness.

Accordingly, the pulse data measured by the pulse measuring member 30 is compared with the reference pulse data while being managed by the pulse management member 40, so that the user can confirm the diagnostic information corresponding to the measured pulse data.

The pulse management member 40 compares the pulse data measured by the pulse measuring unit 31 and the pulse data measured by the sub pulse measuring unit 35 to compare the pulse data with the pulse data, (45) for instructing to move the position of the pulse measuring part in the direction of the sub-pulse measuring part when the pulse size of the pulse measuring part is high.

Therefore, when the pulse size of the sub-pulse measurement unit 35 is higher than the pulse size of the pulse measurement unit 31 in the display 20, the user can check the position where the pulse is captured. The pulse measuring unit 31 can measure the accurate pulse data.

The pulse management member 40 further includes a pulse data transmission unit 46 for transmitting the pulse data received by the pulse measurement unit 31 to the medical server 200 of the medical institution registered by the user.

Accordingly, since the user can provide the pulse data transmitted to the medical server 200 of the medical institution that is normally used, the user can receive the medical service corresponding to the pulse data from the medical institution.

4, the pulse measuring member 30 amplifies the sound collected by the sound collecting unit 32 of the pulse measuring unit 31 to confirm the sound wave data and transmits it to the sound wave management member 400 And a microphone (34). The microphone 34 may also be applied to the sub-pulse measuring unit 35 as described above.

4 and 7, the sound wave management member 400 allows sound data measured at the microphone 34 of the pulse measuring member 30 to be managed and output to the display 20, A sound wave data receiving unit 410 receiving the sound wave data measured by the microphone 34 of the sound source 30, a sound wave diagnostic information managing unit 420 managing sound wave diagnostic information corresponding to the reference sound wave data and the reference sound wave data, A sound wave determiner 430 for comparing the sound wave data received by the data receiver 410 with the reference sound wave data and comparing the reference sound wave data with the reference sound wave data, And a sound wave diagnostic information output unit 440 for outputting information to the display 20. Here, the diagnostic information of the sound wave may be information on a disease name corresponding to each of the range of the sound wave data when the range of the sound wave data is higher or lower than that of the normal sound wave data,

Therefore, the sound wave measured by the microphone 34 of the pulse measuring member 30 is managed by the sound wave management member 400, and is compared with the reference sound wave data so that the user can check the diagnostic information corresponding to the measured sound wave data have.

The sound wave management member 400 compares the sound wave data measured by the microphone 34 of the pulse measuring unit 31 and the sound wave data measured by the microphone 34 of the sub pulse measurement unit 35 to determine the size And a sound wave movement display unit 450 for instructing movement of the position of the pulse measurement unit in the direction of the sub pulse measurement unit when the sound wave size of the sub pulse measurement unit 35 is high.

Therefore, if the size of the sound wave of the sub pulse measurement unit 35 is higher than the sound wave size of the pulse measurement unit 31, the user can check the position where the sound wave is caught by the display 20, The pulsation measuring unit 31 can measure the accurate sound wave data.

The pulse management member 40 further includes a sound wave data transmission unit 460 that transmits the sound wave data received by the pulse measurement unit 31 to the medical server 200 of the medical institution registered by the user.

Accordingly, since the user can provide the sound wave data transmitted to the medical server 200 of the medical institution that is normally used, the user can receive the medical service corresponding to the sound wave data from the medical institution.

In this way, since the sound wave management member 400 is operated together with the pulse management member 40, not only the reliability of the measurement of the pulse rate can be improved, but the other one can be operated even if a failure occurs in any one of them.

1 to 5, the smart watch 10 includes a wear band 11 to be worn on the wearer's body, a pulse measurement sensor (not shown) provided on the wear band 11 to measure a pulse, A pressure measuring sensor 13 provided on the wear band 11 to measure the pressure generated by the pulse while being in proximity to the pulse measuring sensor 12, A pulse output for outputting the pulse measured by the pulse measuring sensor 12 to the screen when the measured pressure is equal to the reference pressure, (14).

The wear band 11 is provided on the smart watch 10 and worn on the user's wrist. Accordingly, the wearer can carry the smart wrist 10 by wearing the wristband 11 on his / her wrist.

The pulse measurement sensor 12 and the pressure measurement sensor 13 can be brought into close contact with the user's skin by pressing the wear band while the wear band is worn on the user's wrist. The pulse measurement sensor 12 and the pressure measurement sensor 13 can be operated by operation of a switch provided in the smart watch 10. [

The pulse output unit 14 may warn the user through sound or light through an alarm or lamp provided in the smartwatch 10 if the measured pressure does not coincide with the reference pressure, or output a guidance message through the display 20 . Then, when the measured pressure coincides with the reference pressure, the pulse measured by the pulse measuring sensor 12 can be displayed numerically through the display 20. Accordingly, the user can visually confirm the numerical value output through the display 20. [

In this way, while the smart watch 10 is worn on the wrist, the user can press the wear band with his / her other hand while watching the display 20, so that the pulse measurement sensor 12 and the pressure measurement sensor 13 are brought into close contact with the wrist While measuring his or her own pulse.

8 and 10, the smartwatch 10 of the present invention includes a pulse wave measuring member 50 for measuring a pulse wave of a human body, and a pulse wave measuring unit 50 for controlling the pulse wave data measured by the pulse wave measuring member 50 And a pulse wave management member (60) for outputting the pulse wave to the display (20).

8 (a), the pulse wave measuring member 50 includes a socket 51 provided in the mounting space 14 formed in the smartwatch 10 and electrically connected to the pulse wave management member 60, A detection pin 52 whose one end protrudes to the outside of the smartwatch 10 while being mounted on the mounting space 14 of the smartwatch 10 so as not to be detached from the outside, A pulse wave measuring unit 53 provided at one end and measuring a pulse wave of a human body; a pulse wave measuring unit 53 electrically connected to the pulse wave measuring unit 53 and provided at the other end of the detecting pin 52, And a detection terminal 52 which is incorporated in the mounting space 14 of the smartwatch 10 and which is connected to the detection pin 52. The connection terminal 54 is electrically connected to the pulse wave measurement unit 53 and electrically connects the pulse wave measurement unit 53 to the pulse wave management member 60, And an elastic body 55 that resiliently supports the connection pin 54 of the detection pin 52 and separates the connection terminal 54 from the socket 51. [

The socket 51 may be formed of a conductor. The detection pin 52 is formed of a nonconductor in the form of a pin, and a core wire for electrically connecting the pulse wave measuring part 53 provided at one end to the connection terminal 54 provided at the other end is built in.

Here, the detecting pin 52 is formed with a locking protrusion on the outer circumferential surface, and the mounting space 14 of the smartwatch 10 can be formed with a locking protrusion that catches the locking protrusion. Therefore, the detection pin 52 can be moved without being detached from the mounting space 14 of the smartwatch 10.

The pulse-wave measuring unit 53 may be constituted by a pressure sensor. The connection terminal 54 may be formed of a conductor. The elastic body 55 may be constituted by a compression spring.

8 (b), the pulse wave measuring unit 53 of the detection pin 52 protruding from the smartwatch 10 in a state in which the user grasps the smartwatch 10 is positioned on the hemorrhagic region of the body And pressurized. At this time, the detection pin 52 which is in contact with the body presses the elastic body 55 and is inserted into the mounting space 14 of the smartwatch 10 so that the connection terminal 54 of the detection pin 52 is inserted into the socket 51 Respectively.

Thus, the pulse wave measured by the pulse wave measuring unit 53 can be supplied to the pulse wave management member 60. [

8 (a), when the pressing of the detection pin 52 is stopped, the detection pin 52 protrudes to the outside of the smart wrist 10 due to the elasticity of the elastic body 55, 54 are spaced apart from the socket 51 to stop the pulse wave transmission.

Here, the user may press the blood spot using the detection pin 52 to stimulate the blood spot.

9, the pulse wave measuring member 50 includes a thimble 56 fixed to a finger of a user and a pulse wave measuring sensor (not shown) provided at one end of the thimble 56 for measuring a pulse wave of the human body And a pulse wave transmitting unit 58 for transmitting the pulse wave measured by the pulse wave measuring sensor 57 to the pulse wave managing member 60.

The thimble 56 may be formed of a rubber material so as to be fitted in the finger while being formed into a tube shape to be fitted on the finger.

The pulse wave measuring sensor 57 may be constituted by a pressure sensor. The pressure sensor may have a sharp tip or hemispherical shape so that it can be stimulated by pressing the skin with a sharp tip.

The pulse wave transmitting section 58 is constituted by a wireless communication device for wirelessly transmitting a pulse wave to the pulse wave management member 60 of the smart watch 10 or is constituted by a jack or socket so as to be electrically connected to a communication line connected to the smart watch 10 .

Thus, the pulse wave measuring member 50 constituted as described above can conveniently measure the pulse wave while the user wears the thimble 56 on his / her finger, so that there is a convenient advantage in use.

8 and 10, the pulse wave management member 60 includes a pulse wave data receiving unit 61 that receives the pulse wave data measured by the pulse wave measuring member 50, A pulse wave diagnosis information management unit 62 for managing pulse wave diagnostic information, a pulse wave determination unit 63 for comparing the pulse wave data received by the pulse wave data reception unit 61 with the reference pulse wave data to confirm the reference pulse wave data to be matched, And a pulse wave diagnostic information output unit 64 for outputting the pulse wave diagnostic information of the matched reference pulse wave data confirmed by the determination unit 63 to the display 20. Here, the pulse wave diagnosis information may be information on a disease name corresponding to each of the pulse wave data having a higher range than that of the normal pulse wave data, or information on a behavior that can improve the illness.

Therefore, the pulse wave data measured by the pulse wave measuring member 50 is managed by the pulse wave management member 60, and is compared with the reference pulse wave data so that the user can confirm the diagnostic information corresponding to the measured pulse wave data.

5, the pulse wave management member 60 includes a pulse wave data transfer unit 65 for transferring the pulse data received from the pulse wave data receiving unit 61 to the medical server 200 of the medical institution registered by the user .

Accordingly, the user's pulse wave data can be transmitted to the medical server 200 of the medical institution as well as the pulse data as described above and managed.

On the other hand, the pulse wave management member 60 of the present invention is a blood pulse management member 60, in which body image 1 for each body of various types of hemogram is displayed and body image names corresponding to the body images 1 are matched and stored A body image name input unit 67 for inputting a body image name corresponding to the body image 1 stored in the body image storage unit 66; And a body image output unit 68 for searching the body image storage unit 66 for the body image 1 corresponding to the body image name and outputting the body image 1 to the display 20.

10 and 12, the body image 1 stored in the body image storage unit 66 is displayed in the form of a dot or a closed curve with the image of a hand or a foot being imaged. That is, when the user inputs a hand or foot through the body image name input unit 67, the body image 1 outputted by the body image output unit 68 is checked to check the blood spot on the user's hand or foot have.

In the case where the body image 1 shown in FIG. 12 is a body image for a hand, there are three types of body images: (1) cardiovascular, (2) large intestine, (3) fresh blood, prestigious, point, ear, neck, toothache point, , Hemorrhoids, reproductive areas, points of interest, points of hygroscopy, yesterday, small districts, ginseng bedding, gastric advantage, bladder site, . The body image 1 shown in FIG. 13 is the body image for the foot. The nasal cavity 1 is the nasal cavity, the pituitary gland 3 is the eye, the thyroid gland, the shoulder, Can be displayed.

Accordingly, when the user inputs the name of the body image, the corresponding body image 1 can be output to the display 20. [ 12 and 13, since the hemisphere is displayed on the body image (1) of the hand or foot shape, the user can visually check the hemisphere to find the hemisphere in his / her hands or feet, And can be stimulated by the pin 52.

In addition, when the user is suffering from a headache or sudden body disorder, the user can input a name of a disease name such as a headache or a sudden body through the body image name input unit 67 using a keyboard or a mouse. Therefore, as shown in Figs. 14 and 15, a body image 1 having only a hemorrhage corresponding to a headache or a sudden body is output. That is, the user can visually confirm the hemorrhoids displayed on the body image (1) and directly stimulate the corresponding hemorrhoids, thereby alleviating or treating the headache or hemorrhoids by themselves.

10 and 16, the pulse wave management member 60 of the present invention includes a number display unit 69 for displaying a number for each blood spot displayed on the body image 1, And a data output unit 70 for outputting a diagnosis table in which the same number as the displayed numbers is displayed, and the pulse wave data corresponding to each number and the normal pulse wave data are displayed.

In the upper column of the diagnosis table by the number display unit 69, the numbers 1, 2, and 3 corresponding to the numbers 1, 2, 3 and so on are displayed in order. Then, the data output unit 70 displays a numerical value for the detection data corresponding to the number in the lower row of the diagnosis table. Further, numerals for the normal data corresponding to the detection data in the next lower row are displayed.

Therefore, the user confirms the number 1 of the body image 1 and makes contact with the blood spot corresponding to the identified number 1 using the detection pin 52. At this time, when the pulse wave measuring unit 53 of the detecting pin 52 measures the pulse wave of the blood spot and transmits it to the pulse wave management member 60, the value corresponding to the transmitted pulse wave value is displayed in the first column in the middle of the diagnosis table do. At this time, since the displayed pulse wave value '10' is the same when compared with the normal data value '10' displayed at the lower part thereof, it can be confirmed that it is a normal pulse wave. That is, it can be confirmed that the internal organ corresponding to the hemisphere of the numeral 1 is normal.

Then, the user confirms the number (2) of the body image (1) and presses the blood spot corresponding to the number (2) confirmed by using the detection pin (52). At this time, the value corresponding to the pulse wave value measured through the pulse wave measuring part 53 of the detection pin 52 is displayed in the second column in the middle of the diagnosis table. At this time, since the displayed pulse wave value '7' is slightly inferior to the normal data value '10' displayed at the lower part thereof, it can be confirmed that it is an abnormal pulse wave. That is, it can be confirmed that the function of the internal organ corresponding to the hemisphere of the numeral (2) is slightly deteriorated.

Also, the user confirms the number 3 of the body image 1 and presses the blood spot corresponding to the number 3 identified using the detection pin 52. At this time, a value corresponding to the pulse wave value measured through the pulse wave measuring part 53 of the detection pin 52 is displayed in the third column in the middle of the diagnosis table. At this time, since the displayed pulse wave value '4' is much lower than the normal wave data value '11' displayed at the lower part thereof, it can be confirmed that it is an abnormal pulse wave. That is, it can be confirmed that there is an abnormality in the function of the internal organ corresponding to the hemisphere of the numeral ③.

In this way, the user can visually check the diagnosis table displayed on the screen, so that the user can easily and quickly grasp his / her health condition.

Meanwhile, as shown in FIGS. 4 and 10, the present invention further includes a treatment management member 80 for stimulating and treating the skin. The treatment management member 80 includes a connection jack 81 connected to the treatment pad 90 for stimulating and treating the skin in contact with the skin and an operation for operating the treatment pad 90 via the connection jack 81 (82), and an operating portion (83) for operating the operating portion (82).

As shown in Fig. 2, the treatment pad 90 has a built-in vibrator or a low-frequency generator in a rubber pad or silicon pad which is flexibly adhered to the skin. Therefore, when a power source is inputted to the treatment pad 90 from the outside, the vibrator is operated to stimulate the skin with vibration or the low frequency generator to operate, thereby stimulating the skin with low frequency.

The connection jack 81 can supply power to the treatment pad 90 that is electrically connected to the treatment pad 90 and is input.

2 and 10, the operation part 82 can supply the charging power of the battery (not shown) built in the smartwatch 10 to the treatment pad 90. [

The operation unit 83 may be constituted by a switch which is exposed to the outside of the smart watch 10 to operate the operation unit 82.

Therefore, when the user operates the operation unit 83 and power is supplied to the treatment pad 90 through the operation unit 82, the treatment pad 90 is activated to irritate and treat the skin.

The treatment management member 80 includes a disease name image storage unit 84 in which the body images 1 marked with hemorrhages are matched with the disease names corresponding to the body images 1, A disease name input unit 85 for receiving a disease name corresponding to the body image 1 stored in the body image input unit 85 and a body image input unit 85 for inputting a disease name corresponding to the body image 1 stored in the body image input unit 85, And an image output unit 86 for outputting the image data to the display 20.

Accordingly, when the user inputs 'headache' or 'urgent body' through the pathology name input unit 85, the corresponding body image 1 is output to the display 20 as shown in FIGS. 14 and 15, 1) can be visually inspected, and the head can be treated by stimulating the hemostatic area using the treatment pad 90 to alleviate the headache or the sudden body.

17 and 18, the present invention further includes a cradle 100 on which the smartwatch 10 is mounted. The mounting table 100 includes a standing plate 110 standing upright, a fixing table 120 formed on the fixing plate 110 to fix the smartwatch 10, a smartwatch 10 fixed to the fixing table 120, And a stimulation pad 140 provided on the fixture 120 to stimulate the skin in a state of being in contact with the skin by being controlled by the smart watch 10 communicating through the cradle communication unit 130. [ And a cradle screen 150 on which an operation state of the stimulation pad 140 and an operation state of the smartwatch 10 are displayed.

The mounting plate 110 may be formed with a pedestal at the lower end thereof. The stimulation pad 140 and the cradle screen 150 may be provided with a power supply unit for supplying external power input or a battery for supplying the charging power.

The fixing table 120 may be composed of an elastic plate that elastically presses the smart wrist 10 to fix the smart wrist 10 to the fixing plate 110. [

The docking station communication unit 130 can communicate with the smartwatch 10 wirelessly by performing Bluetooth. Alternatively, the cradle communication unit 130 may be formed of a jack or a socket so as to be connected to the SmartWatch 10 by wire.

The stimulating pad 140 has a built-in vibrator or a low-frequency generator in a rubber pad or silicone pad that is flexible to adhere to the skin. Accordingly, when a power source is inputted from the outside, the stimulator pad 140 operates the vibrator to excite the skin with vibration or operate the low frequency generator to stimulate the skin with low frequency.

The docking station screen 150 may comprise a liquid crystal display or an LED screen.

Accordingly, the user can manipulate the smart watch 10 with the stimulation pad 140 attached to the skin while the smart wrist 10 is placed on the cradle 100 to stimulate the skin with the stimulation pad 140 have.

In this manner, while the smartwatch 10 to be carried is placed on the cradle 100, the smart pad 10 is operated while observing the cradle screen 150 to use the stimulation pad 140 provided on the cradle 100 Therefore, there is a convenient advantage in use.

As described above, according to the present invention, the user can measure his or her own pulse using the smart watch and check his / her internal function by checking his or her hemorrhoids, And can be widely used as a very useful invention.

It will be understood by those skilled in the art that the present invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. It is to be understood, therefore, that the above description is intended to be illustrative, and not restrictive, and that the scope of the present invention will be defined by the appended claims rather than the foregoing description, All changes or modifications that come within the scope of the equivalent concept are to be construed as being included within the scope of the present invention.

10: Smart Watch 11: Wear Band
12: pulse measuring sensor 13: pressure measuring sensor
14: Pulse output section 20: Display
30: pulse measuring member 31: pulse measuring unit
32: collector part 33: sensor part
35: Sub pulse measurement unit 36: Sub-
37: sub sensor part 38: diaphragm
39: Vibration transmitting member 40: Pulse management member
41: pulse data receiving unit 42: pulse diagnosis information management unit
43: Pulse determination unit 44: Pulse diagnosis information output unit
45: movement display section 46: pulse data transmission section
50: pulse wave measuring member 51: socket
52: detection pin 53: pulse wave measuring part
54: connection terminal 55: elastic body
56: thimble 57: pulse wave measuring sensor
58: a pulse wave transmitter 60: a pulse wave management member
61: a pulse wave data receiving unit 62: a pulse wave diagnostic information managing unit
63: a pulse wave judgment unit 64: a pulse wave diagnosis information output unit
65: a pulse wave data transmission unit 66: a body image storage unit
67: body image name input unit 68: body image output unit
69: number display section 70: data output section
80: treatment management member 81: connection jack
82: Operation part 83: Operation part
84: Pathologic name image storage part 85: Pathologic name input part
86: Image output unit 90: Therapy pad
100: cradle 110: mounting plate
120: fixed base 130:
140: Stimulation pad 150: Cradle screen
200: medical server 400: sound wave management member
410: sound wave data reception unit 420: sound wave diagnosis information management unit
430: sound wave determination unit 440: sound wave determination unit

Claims (20)

1. A smart watch (10) having a display (20) worn on a user ' s body and outputting a time and an image to a screen,
The SmartWatch (10)
A pulse measuring member 30 for measuring a pulse of a human body,
And a pulse management member (40) for outputting the pulse data to the display (20) while managing the pulse data measured by the pulse measuring member (30)
The pulse measuring member 30 includes a pulse measuring unit 31 for collecting sound generated by a pulse,
The pulse measuring unit 31 includes a collector 32 formed to be concave on the back surface of the smart watch 10 and collecting vibrations generated from the organ of the body, A sensor unit 33 for amplifying the vibration collected at the pulse measuring unit 31 to confirm the pulse data and transmitting the pulse data to the pulse management member 40 and the sound collected at the sound collecting unit 32 of the pulse measuring unit 31, And a microphone 34 for identifying and transmitting data to the sound wave management member 400,
And a sound wave management member (400) for outputting the sound wave data to the display (20) while managing the sound wave data measured by the microphone (34) of the pulse measuring member (30). The pulse measuring apparatus according to claim 1, wherein the pulse measuring member (30) includes at least one sub pulse measuring unit (35) positioned around the pulse measuring unit (31)
The sub pulse measurement part 35 includes at least one or more sub collecting part 36 which is located at the periphery of the collecting part 32 and is concave and collects the vibrations and a sub power collecting part 36 located at the concave center of the sub collecting part And a sub sensor unit (37) for amplifying the vibrations collected in the heart monitor (36) to confirm pulse data and transmit it to the pulse management member (40). The pulse measuring device according to claim 1, further comprising a diaphragm (38) provided on an edge of the sound collector (32) for closing the sound collector (32) and being vibrated by vibrations generated in an organ of the skin of the body Wherein the system is a smart-watch-based healthcare system. The pulsation measuring unit 31 may further include a vibration transmitting member 39 connected to both the sensor unit 33 and the diaphragm 38 to transmit the vibration of the diaphragm 38 to the sensor unit 33 Wherein the health care system comprises a smart watch. delete The sound wave management device according to claim 1,
A sound wave data receiving unit 410 receiving the sound wave data measured by the microphone 34 of the pulse measuring member 30,
A sound wave diagnostic information management unit 420 for managing sound wave diagnostic information corresponding to the reference sound wave data and the reference sound wave data,
A sound wave determiner 430 for comparing the sound wave data received by the sound wave data receiver 410 with reference sound wave data and comparing the reference sound wave data with the reference sound wave data,
And a sound wave diagnostic information output unit (440) for outputting the sound wave diagnostic information of the corresponding reference sound wave data confirmed by the sound wave determination unit (430) to the display (20). 1. A smart watch (10) having a display (20) worn on a user ' s body and outputting a time and an image to a screen,
The SmartWatch (10)
A pulse measuring member 30 for measuring a pulse of a human body,
And a pulse management member (40) for outputting the pulse data to the display (20) while managing the pulse data measured by the pulse measuring member (30)
The pulse management member 40
A pulse data receiving unit 41 receiving the pulse data measured by the pulse measuring member 30,
A pulse diagnosis information managing unit 42 for managing pulse diagnosis information corresponding to the reference pulse data and the reference pulse data,
A pulse judgment unit 43 for checking the reference pulse data to be compared with the pulse data received by the pulse data receiving unit 41 and the reference pulse data,
And a pulse diagnosis information output unit (44) for outputting pulsation diagnosis information of the reference pulse data conformed to by the pulse determination unit (43) to the display (20). The pulse-rate measuring device according to claim 7, wherein the pulse management member (40) compares the pulse data measured by the pulse measuring unit (31) with the pulse data measured by the sub-pulse measuring unit (35) And a movement display unit (45) for instructing to move the position of the pulse measurement unit in the direction of the sub-pulse measurement unit when the pulse size of the pulse measurement unit (35) is high. The pulsation management member 40 further comprises a pulse data transfer unit 46 for transferring the pulse data received by the pulse wave side unit 31 to the medical server 200 of the medical institution registered by the user A healthcare system using SmartWatch. 1. A smart watch (10) having a display (20) worn on a user ' s body and outputting a time and an image to a screen,
The SmartWatch (10)
A pulse measuring member 30 for measuring a pulse of a human body,
A pulse management member (40) for outputting the pulse data measured by the pulse measuring member (30) to the display (20) while managing the pulse data;
A pulse wave measuring member 50 for measuring a pulse wave of a human body,
And a pulse wave management member (60) for outputting the pulse wave data to the display (20) while managing the pulse wave data measured by the pulse wave measuring member (50). [Claim 10] The blood pressure monitor according to claim 10,
A socket 51 provided in the mounting space 14 formed in the smart watch 10 and electrically connected to the pulse wave management member 60,
A detection pin 52 which is movably mounted in the mounting space 14 of the smart watch 10 and which is mounted so as not to be detached to the outside and whose one end protrudes to the outside of the smart watch 10,
A pulse wave measuring unit 53 provided at one end of the detection pin 52 for measuring a pulse wave of a human body,
And is connected to the socket 51 by the movement of the detection pin 52 so that the pulse wave measuring part 53 is connected to the pulse wave management part 60 A connection terminal 54 for electrically connecting the connection terminal 50 to the terminal 50,
And an elastic body 55 built in the mounting space 14 of the smart watch 10 for resiliently supporting the detection pin 52 to separate the connection terminal 54 of the detection pin 52 from the socket 51 Wherein the system is a smart-watch-based healthcare system. [Claim 10] The blood pressure monitor according to claim 10,
A thimble 56 fitted and fixed to the user's finger,
A pulse wave measuring sensor 57 provided at one end of the thimble 56 for measuring the pulse wave of the human body,
And a pulse wave transmitting unit (58) for transmitting the pulse wave measured by the pulse wave measuring sensor (57) to the pulse wave managing member (60). The blood pressure monitor according to claim 10, wherein the pulse wave management member (60)
A pulse wave data receiving unit 61 that receives the pulse wave data measured by the pulse wave measuring member 50,
A pulse wave diagnostic information management unit 62 for managing pulse wave diagnostic information corresponding to the reference pulse wave data and the reference pulse wave data,
A pulse wave judging unit 63 for comparing the pulse wave data received by the pulse wave data receiving unit 61 with the reference pulse wave data to confirm the reference pulse wave data to be matched,
And a pulse wave diagnostic information output unit (64) for outputting pulse wave diagnostic information of the reference pulse wave data that is confirmed by the pulse wave determination unit (63) to the display (20). The pulse wave management device according to claim 13, wherein the pulse wave management member (60) further comprises a pulse wave data transmission unit (65) for transmitting the pulse data received by the pulse wave data reception unit (61) to the medical server (200) A healthcare system using SmartWatch. 14. The blood pressure monitor according to claim 13,
A body image storage unit 66 for storing body image images 1 corresponding to the various types of body displayed with hemograms and body image names corresponding to the body images 1,
A body image name input unit 67 for inputting a body image name corresponding to the body image 1 stored in the body image storage unit 66,
And a body image output unit (68) for searching the body image storage unit (66) for the body image (1) corresponding to the body image name input from the body image name input unit (67) A health care system using a smart watch. 16. The method of claim 15,
A number display unit 69 for displaying a number for each blood spot displayed in the body image 1,
Further comprising a data output unit (70) for displaying a number identical to the numbers displayed by the number display unit (69), and outputting a diagnosis table in which pulse wave data and reference pulse wave data corresponding to each number are displayed Health care system using smart watch. The smartwatch (10) according to any one of claims 1, 7 or 10, further comprising a treatment management member (80) for stimulating and treating the skin,
The treatment management member 80
A connection jack 81 connected to the treatment pad 90 for stimulating and treating the skin in contact with the skin,
An operation portion 82 for operating the treatment pad 90 via the connection jack 81,
And an operation unit (83) for operating the operation unit (82). 18. The method of claim 17, wherein the treatment management member (80)
A disease name image storage 84 in which body images 1 marked with hemispheres are matched with disease names corresponding to the body images 1,
A disease name input unit 85 that receives a disease name corresponding to the body image 1 stored in the disease name image storage unit 84,
Further comprising an image output unit (86) for searching the body image storage unit (84) for the body image (1) corresponding to the disease name input from the disease name input unit (85) Healthcare system using watch. The smartwatch (10) according to any one of claims 1, 7 or 10, wherein the smartwatch
A wear band 11 to be worn on the user's body,
A pulse measuring sensor 12 provided on the wearing band 11 for measuring a pulse,
A pressure measurement sensor 13 provided in the wear band 11 in proximity to the pulse measurement sensor 12 to measure the pressure generated by the pulse,
If the measured pressure does not match the reference pressure, it is warned that the measured pressure does not coincide with the reference pressure. If the measured pressure matches the reference pressure, the pulse measuring sensor 12 And a pulse output unit (14) for outputting the pulse measured on the screen to a screen. The mobile phone according to any one of claims 1, 7 or 10, further comprising a cradle (100) on which the smartwatch (10)
The holder (100)
A standing plate 110 standing up,
A fixture 120 formed on the fixture plate 110 and fixed to the smartwatch 10,
A docking station communication unit 130 for communicating with the smartwatch 10 fixed to the fixed base 120,
A stimulation pad 140 provided on the fixing table 120 to stimulate the skin in a state of being in contact with the skin, which is controlled by the smartwatch 10 communicating via the holder communication unit 130,
And a cradle screen (150) on which an operation state of the stimulation pad (140) and an operation state of the smart watch (10) are displayed.

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