KR20090102264A - Wearable measurement device - Google Patents

Abstract

PURPOSE: A wearable measurement device is provided to supply convenience and portability to a user without increasing a size of the wearable measurement device even though a specific function module is added. CONSTITUTION: A wearable measurement device includes a main body(210), the first measurement module, a communication module(232), the first power unit(222), and the second power unit. A wearing unit is connected to the main body. The first measurement module measures a bio state. The communication module is connected to the main body through the wearing unit. The communication module transmits measurement data measured in the first measurement module to the outside. The first power unit is connected to the main body through the wearing unit. The first power unit supplies power to the communication module. The second power unit supplies power to the main body.

Description

Wearable measuring device {WEARABLE MEASUREMENT DEVICE}

The present invention relates to a wearable measuring device.

As the interest in health and the desire for life extension increase, biometric devices capable of checking a user's own health status are becoming popular. The biometric device may measure body temperature, pulse rate, blood pressure, blood sugar, electrocardiogram, and the like, and determine a user's health state based on the measured data.

However, in order for the user to check the state of health at any time through the biometric device and to prepare for an emergency, it must be easy to carry out, so miniaturization of the measurement device has become an essential task. In recent years, due to the remarkable development of information communication and electronic devices, biometric devices have been gradually miniaturized, and biometric devices have been developed in a wearable form that can be worn on a body from a portable type. That is, the user can check his / her health state from time to time by wearing a watch-type, ring-type, necklace-type thermometer, pulse meter, blood pressure monitor, blood glucose meter, electrocardiogram, etc. on a part of the body.

Meanwhile, a functional module such as a communication module may be added to the wearable measuring device in order to use various functions and expand the functions of the wearable measuring device. However, the addition of such a functional module increases the volume of the wearable measuring device, causing inconvenience to the user wearing. In addition, the power consumption of the wearable measuring device is increased due to the additional functional module, thereby increasing the capacity of the battery, thereby increasing the size of the wearable measuring device.

Therefore, the technical problem to be achieved by the present invention is to provide a wearable measuring device that can reduce the size. In addition, to provide a wearable measuring device that can add a specific functional module without increasing the size.

Wearable measuring apparatus according to an embodiment of the present invention for achieving the above object, through the main body is connected to the wearable wearable to the human body, the first measuring module for measuring the biological state, and through the wearing means And a communication module connected to the main body and transmitting externally the measurement data measured by the first measurement module.

The electronic device may further include a first power supply unit connected to the main body through the wearing unit and supplying power to the communication module.

The main body may include a second power supply unit supplying power to the main body.

At least one of the first power supply unit and the communication module may be detachable from the wearing unit.

The first power supply unit may supply power to the main body.

The wearing means may be divided into a plurality of parts, and the first power supply unit or the communication module may be coupled to at least one of the plurality of parts.

The first power supply unit may be coupled to wearing means connected to one end of the main body, and the communication module may be coupled to wearing means connected to the other end of the main body.

The wearing means may be divided into a plurality of parts, and at least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module capable of measuring a living state may be coupled to at least one of the plurality of parts.

At least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module may be detachable from the wearing means.

The wearing means may be in the form of any one of a watch band, a ring ring and a necklace strap.

The wearing means is located at an upper end or a lower end of the wearing means, a signal line for transmitting a signal to the communication module, and is located at an upper end or a lower end of the wearing means, and the electric power supplied from the first power supply unit. It may include a power line for transmitting.

The first measurement module may be located inside the body.

The first measuring module may include a light emitting part and a light receiving part for measuring a pulse.

The light emitting part may be coupled to the wearing means, and the light receiving part may be located inside the main body.

The light emitting part may be coupled to a wearing means connected to one end of the main body, and the light receiving part may be coupled to a wearing means connected to the other end of the main body.

The wearable measuring apparatus according to another embodiment of the present invention is connected to the main body through a main body to which a wearing means wearable on a human body is connected, a first measuring module capable of measuring a living body state, and the wearing means. And a coupling module, wherein the coupling module includes a communication module for transmitting the measurement data measured by the first measurement module to the outside, and a first power supply unit for supplying power to the communication module.

The coupling module may further include a coil connected to the first power supply unit and the communication module.

The coil may operate as an antenna of the communication module and operate as a charging coil of the first power supply unit.

The first power supply unit may be charged in a non-contact manner.

The main body may include a second power supply unit supplying power to the main body.

The coupling module may be detachable from the wearing means.

The wearing means may be in the form of any one of a watch band, a ring ring and a necklace strap.

The first power supply unit may supply power to the main body.

The wearing means may be divided into a plurality of portions, and the coupling module may be coupled to any one of the segmented portions.

The wearing means is located at an upper end or a lower end of the wearing means, a signal line for transmitting a signal to the communication module, and is located at an upper end or a lower end of the wearing means, and the electric power supplied from the first power supply unit. It may include a power line for transmitting.

The wearing means may be divided into a plurality of parts, and at least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module capable of measuring a living state may be coupled to at least one of the plurality of parts.

At least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module may be detachable from the wearing means.

The first measurement module may be located inside the body.

The first measuring module may include a light emitting part and a light receiving part for measuring a pulse.

The light emitting part may be coupled to the wearing means, and the light receiving part may be located inside the main body.

The light emitting part may be coupled to a wearing means connected to one end of the main body, and the light receiving part may be coupled to a wearing means connected to the other end of the main body.

As described above, according to the present invention, by adding a specific function module to the wearable measuring apparatus, the utilization of the wearable measuring apparatus can be diversified and the functionality can be further extended. In particular, the size of the wearable measuring device does not increase even if a specific function module is added, thereby providing portability and convenience to the user.

1A is a schematic diagram of a wearable measuring apparatus according to an embodiment of the present invention.

1B is a schematic diagram of a wearable measuring apparatus according to an embodiment of the present invention.

2A is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention.

2B is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention.

3A is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention.

3B is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention.

3C is a schematic diagram of the coupling module shown in FIG. 3B.

DETAILED DESCRIPTION Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art may easily implement the present invention.

Hereinafter, a wearable measuring apparatus according to an exemplary embodiment of the present invention will be described.

1A is a schematic diagram of a wearable measuring apparatus according to an embodiment of the present invention, and FIG. 1B is a schematic diagram of a wearable measuring apparatus according to an embodiment of the present invention.

As shown in FIG. 1A, the wearable measurement apparatus 100 according to an exemplary embodiment of the present invention includes a main body 110, a band 120, and a first power supply 122.

The body 110 may be made of plastic, metal, or the like, and may be formed in various shapes to suit a user's preference such as rectangular, circular, and elliptical. In addition, the body 110 has a small size and weight and is formed in a flat shape so as to be easily worn by a user. Band 120 is connected to both sides of the main body 110 in the form of a watch band. Here, the main body 110 and the band 120 may be connected through connecting rings formed at both ends of the main body 110.

The band 120 may be made of leather, synthetic resin, rubber, metal, or the like so that the wearable measuring device may be in close contact with the human body. In addition, coupling means may be provided at both ends of the band 120 so that the wearable measuring device can be fixed to the user's body, but is not limited thereto.

The band 120 may be segmented into a plurality of parts, and the first power source 122 may be detachably coupled to the groove portion of the segmented band 120 (in FIG. 1A, the first power source 122 may be a band ( 120). An auxiliary member 123 having substantially the same shape and size as that of the first power supply 122 may be coupled to the groove portion of the band 120 to which the first power supply 122 is not coupled. In addition, when the first power supply 122 is separated from the band 120, the auxiliary member 123 may be coupled to the band 120 instead of the first power supply 122.

A pair of power lines 124a and 124b is provided at an upper end or a lower end of the band 120, and the power lines 124a and 124b are connected to the main body 110. When the first power supply 122 is coupled to the band 120, the first power supply 122 and the power lines 124a and 124b are connected to each other, and the first power supply 122 is connected to the power supply voltage through the power lines 124a and 124b. Vp) and ground voltage Vg are supplied to the main body 110.

As shown in FIG. 1B, the main body 110 includes a display 111, an input 112, a measurement module 113, a controller 114, and a second power supply 115.

The display unit 111 may be formed of an LCD, an OLED, or the like, and occupies a substantial portion of the surface of the main body 110, and is disposed to be easy for the user to visually check. The display 111 displays not only the measurement data measured by the measurement module 113, but also characters, images, and the like related to the time, the start and end of the measurement, and the measurement progress. In addition, the remaining battery level is displayed graphically.

The input unit 112 receives a signal necessary for biometric measurement, for example, a reset signal, a stop signal, a storage signal, and the like from the user and transmits a signal to the controller 114. The reset signal is a signal for the user to initialize the measurement module 113 for biometric measurement, and the stop signal is a signal for terminating the operation of the measurement module 113 after a predetermined time elapses. The storage signal is a signal for storing the measured data in an internal memory (not shown).

Here, the input unit 112 may be formed in the form of a keypad provided with a plurality of key buttons on the front or side of the main body 110, the touch panel is attached to the display unit 111 may be made in the form of a touch screen.

The measurement module 113 senses basic physical quantities such as current, voltage, and resistance, which contain biometric information such as pulse, blood pressure, blood sugar, and oxygen saturation (SpO ₂ ), and converts the data into desired data. The measurement module 113 includes a corresponding measurement sensor according to the type of measurement object to be measured.

For example, if the measurement module 113 is to measure the pulse, the measurement module 113 may include a pressure sensor, an impedance sensor or an optical sensor, and detects the pulse transmitted from the user's wrist to appropriate Convert to a signal. That is, when the wearable measuring device is worn on the wrist, the measurement module 113 detects the number of contractions and expansions of the radial artery located on the wrist to count the pulse rate or counts the pulse rate by measuring an optical signal that changes according to the contraction and expansion. do.

The controller 114 controls the display 111, the input 112, and the measurement module 113. When a signal necessary for biometric measurement is input from the input unit 112, the controller 114 transmits a measurement instruction signal to the measurement module 113 to perform measurement, and when the measurement is finished, the display unit 111 displays the measurement data. To be displayed. In addition, the remaining battery level of the second power supply 115 is checked and displayed on the display 111.

The second power supply 115 supplies power to the display 111, the input 112, the measurement module 113, and the controller 114 of the main body 110. However, the second power supply unit 115 may be omitted as necessary, and the first power supply unit 122 supplies power to the main body 110.

The first power supply 122 may have a form in which an external case is coupled to a battery cell. Herein, the battery cell may be a lithium ion battery or a lithium polymer battery as a rechargeable battery cell. The first power supply 122 may be charged in a state mounted on an external charger (not shown), or may be charged in a state of being in contact with the charger as a non-contact type.

Meanwhile, although FIG. 1A illustrates that the first power supply 122 is coupled to the band 120 connected to the right side of the main body 110, the first power supply 122 may be coupled to the band 120 connected to the left side of the main body 110. . The wearable measuring apparatus of the present exemplary embodiment may include a plurality of first power units 122, and the plurality of first power units 122 may be coupled to the band 120 instead of the auxiliary member 123 and connected in series or in parallel. have. The plurality of first power supply units 122 may supply power to the main body 110 with a larger capacity.

As such, according to the present exemplary embodiment, the size of the main body 110 may be reduced by arranging the first power supply 122 outside the main body 110 and by detachably coupling the first power supply 122 with the band 120. In addition, the portability and convenience of the user can be enhanced.

Next, a wearable measuring apparatus according to another exemplary embodiment of the present invention will be described with reference to FIGS. 2A and 2B.

2A is a schematic diagram of a wearable measuring apparatus according to another exemplary embodiment of the present invention, and FIG. 2B is a schematic diagram of a wearable measuring apparatus according to another exemplary embodiment of the present invention.

As shown in FIG. 2A, the wearable measuring apparatus according to another exemplary embodiment of the present invention may include a main body 210, a first band 220, a second band 230, a first power supply unit 222, and a communication module 232. It includes. For convenience of description, in FIG. 2A, the band connected to the left side of the main body 210 is referred to as the first band 220, and the band connected to the right side of the main body is referred to as the second band 230. However, the first band 220 and the second band 230 are not separated into two, and depending on the type of band, they may be formed in one ring shape.

As in the previous embodiment, the first power supply 222 may be detachably coupled to the first band 220 (FIG. 2A shows that the first power supply 222 is separated from the first band 220). ).

A pair of power lines 224a and 224b is provided at an upper end or a lower end of the first band 220, and the power lines 224a and 224b are connected to the main body 210. When the first power supply unit 222 is coupled to the first band 220, the first power supply unit 222 is connected to the power lines 224a and 224b, and the power supply voltage Vp to the main body 210 through the power lines 224a and 224b. ) And ground voltage (Vg).

Since the first power supply unit 222 of the present embodiment is substantially the same as the first power supply unit 122 of the previous embodiment, a detailed description thereof will be omitted.

In addition, the second band 230 may be segmented into a plurality of parts similarly to the first band 220, and the communication module 232 may be detachably coupled (FIG. 2A illustrates that the communication module 232 is a second one). Shown coupled with the band 230).

A pair of power lines 234a and 234b may be provided at an upper end of the second band 230. When the communication module 232 is coupled to the second band 230, the communication module 232 and the power lines 234a and 234b are connected. The power lines 224a and 224b and the power lines 234a and 234b may be respectively connected inside the main body 210, and the communication module 232 may be connected from the second power source 215 and the first power source 222 of the main body 210. Power is supplied through the power lines 234a and 234b. The power line 234a transmits a power supply voltage Vp, and the power line 234b transmits a ground voltage Vg.

A pair of signal lines 236a and 236b may be provided at the lower end of the second band 230. Of course, the signal lines 236a and 236b may be provided at the upper end of the second band 230 together with the power lines 234a and 234b.

When the communication module 232 is coupled to the second band 230, the communication module 232 and the signal lines 236a and 236b are connected, and the control unit 214 and the communication module 232 of the main body 210 are connected to the signal line 236a. 236b) send and receive signals. At this time, the signal line 236a transfers the signal voltage Vs, and the signal line 236b transfers the reference voltage Vsg.

Meanwhile, although FIG. 2A illustrates that the first power supply unit 222 and the communication module 232 are coupled to the first band 220 and the second band 230, respectively, the first band 220 and the second band. The first power supply unit 222 and the communication module 232 may be side by side in any one of the bands 230. In this case, when the first power supply unit 222 and the communication module 232 are arranged together in one band, the power lines 234a and 234b and the signal lines 236a and 236b are arranged at the upper and lower ends of the band, respectively, Can be collected and placed on one side.

In addition, in the present embodiment, the power lines 234a and 234b and the signal lines 236a and 236b are each formed of two lines, but may be formed of three or more lines as necessary.

As shown in FIG. 2B, the main body 210 includes a display unit 211, an input unit 212, a measurement module 213, a controller 214, and a second power supply unit 215. The display unit 211, the input unit 212, the measurement module 213, the control unit 214, and the second power supply unit 215 illustrated in FIG. 2B include the display unit 111, the input unit 112, Since many parts are similar to the measurement module 113, the control part 114, and the 2nd power supply part 115, the description of the same part is abbreviate | omitted and the difference part is demonstrated.

The controller 214 transmits measurement information data including the biometric data measured by the measurement module 216, the measurement time, an identification code of the wearable measuring device, and the like to the communication module 232. In addition, the control unit 214 may receive a variety of information received by the communication module 232 from the outside, for example, a message, such as whether the current user biorhythm or exercise permit, from the communication module 232, The received information may be displayed on the display 211.

The communication module 232 transmits measurement information data received from the main body 210 to an external terminal (not shown) or an external server (not shown) through wireless communication according to a preset communication protocol. The communication module 232 may transmit measurement information data to an external terminal or an external server at a time set by a user or at a predetermined period.

The communication module 232 transmits measurement information data to an external terminal using a short-range communication scheme such as Bluetooth communication, wireless LAN communication, simple RF communication, and infrared data communication (IrDA). Can be sent to. Alternatively, the communication module 232 may transmit measurement information data to an external server using a telecommunication method such as code division multiple access (CDMA) communication or global system for mobile communication (GSM) communication.

The external terminal is mainly a short distance, for example, a terminal installed in a user's home, and displays and stores measurement information data received from the communication module 232 so that the user can directly check the change in the biometric information, It can be sent periodically to the hospital's care server.

The external server is mainly a server installed at a long distance, for example, a hospital or a health center, and processes measurement information data received from the communication module 232 and analyzes the processed data. If the analysis determines that an emergency has occurred, emergency measures may be taken for the user who transmits the measurement information data. In addition, the external server can check the user's health status remotely by receiving the measurement information data for the user from the external terminal in real time or at regular intervals. When the current state of the user is determined, the external server communicates the user's biorhythm status message, a message indicating that dangerous exercise is severe when the blood pressure is too high, and a message indicating that food control is necessary when the blood sugar level is too high. And transmit to module 232.

In the present exemplary embodiment, the communication module 232 is coupled to the second band 230, but other functional modules, for example, a GPS module, an altitude measuring module, a pedometer, and other biometric modules, may be used instead of the communication module 232. Or the like. Of course, these functional modules may be added and combined with the communication module 232.

In addition, although the measurement module 213 has been described as being included in the main body 210 in the present embodiment, a part or the whole of the measurement module 213 may be a module type such as the first power supply unit 222 or the communication module 232. It may be coupled to the first band 220 or the second band 230.

For example, when the measuring module 213 is for measuring pulse, the measuring module 113 may include an optical sensor including an light emitting unit and a light receiving unit, an AMP, a filter, an A / D converter, and a signal processing unit. have. In the case of the transmissive pulse measuring sensor, the light emitting unit irradiates light to the human body, and the light receiving unit receives the light transmitted through the human body from the light emitting unit and converts it into an electrical signal. The instantaneous density difference of the red blood cells in the capillaries or the color of the light passes through it, which in turn changes the magnitude of the electrical signal. The AMP, the filter, the A / D converter, and the signal processor properly process the electrical signal from the light receiver to measure the pulse of the human body.

Therefore, the light emitting part and the light receiving part are preferably located at positions symmetrical with respect to the human body. When the light emitting part is located in the first band 220, the light receiving part is located in the second band 230, and vice versa. In addition, when the light receiving unit is located in the main body 210, the light emitting unit is positioned in the opposite first band 220 or second band 230. In this case, the AMP, the filter, the A / D converter and the signal processor may be located together with the light receiver, thereby reducing the distortion of the electrical signal from the light receiver.

In this manner, when the measurement module 213 is coupled to the first band 220 or the second band 230 in addition to the first power supply 222 or the communication module 232, the power lines 234a and 234b and the signal line ( 236a and 236b may extend to be connected to the measurement module 213.

This type of pulse meter may be applied to a ring shape, in which case it may be applied not only to the first and second bands 220 and 230 described above but also to a wearing means formed of a ring.

As described above, according to the present exemplary embodiment, the size of the main body 210 may be reduced by disposing the first power supply unit 222 and the communication module 232 outside the main body 210 and perform additional functions such as a communication function. Can be. In addition, the first power supply unit 222 supplies power consumed by the communication module 232 to reduce the capacity and size of the second power supply unit 215 of the main body 210.

Next, a wearable measuring apparatus according to another exemplary embodiment of the present invention will be described with reference to FIGS. 3A to 3C.

3A is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention, FIG. 3B is a schematic diagram of a wearable measuring apparatus according to another embodiment of the present invention, and FIG. 3C is a schematic diagram of the coupling module shown in FIG. 3B. .

As shown in FIG. 3A, the wearable measuring apparatus 300 according to another embodiment of the present invention includes a main body 310, a band 320, and a coupling module 322.

Band 320 may be divided into a plurality of parts as in the above-described embodiment, the coupling module 322 may be detachably coupled (in Figure 3a the coupling module 322 is coupled to the band 320 Shown).

A pair of signal lines 334a and 334b are provided at an upper end of the band 320, and the signal lines 334a and 334b are connected to the main body 310. Therefore, when the coupling module 322 is coupled to the band 320, the coupling module 322 is connected to the signal lines 334a and 334b, and the control unit 314 and the coupling module 322 of the main body 310 are connected to the signal line 334a, 334b) send and receive signals. At this time, the signal line 334a transmits the signal voltage Vs and the signal line 334b transmits the reference voltage Vsg.

A pair of power lines 336a and 336b is provided at the lower end of the band 320, and the power lines 336a and 336b are connected to the main body 310. Therefore, when the coupling module 322 is coupled to the band 320, the coupling module 322 is connected to the power lines 336a and 336b, and the coupling module 322 supplies power to the main body 310 through the power lines 336a and 336b. The voltage Vp and the ground voltage Vg are supplied.

As described in the previous embodiment, the positions of the signal lines 334a and 334b and the power lines 336a and 336b may be interchanged with each other, and may be arranged in one side of the band 320.

As shown in FIG. 3B, the main body 310 includes a display 311, an input 312, a measurement module 313, a controller 314 and a second power supply 315, which are the same as in the previous embodiment. Since the names are substantially the same as those using names, detailed descriptions thereof will be omitted.

Hereinafter, the coupling module 322 will be described with reference to FIG. 3C.

The coupling module 322 includes a communication module 324, a coil 326, and a first power supply 328. The communication module 324 includes a high pass filter (HPF) and transmits measurement information data received from the main body 310 to an external terminal or an external server at a high frequency.

One end of the coil 326 is connected to the communication module 324 and the other end of the coil 326 is opened to operate as an antenna with respect to the communication module 324. The coil 326 may be annular or helical, and may have a high conductivity and increase a resonance frequency.

In addition, one point of the outer side and one point of the inner side of the coil 326 is connected to the first power source 328 to operate as a charging coil for the first power source 328 to perform contactless charging. When the user places the coupling module 322 near an external charger (not shown), induced electromotive force is generated between the coil (not shown) and the coil 326 included in the charger. In this case, the charger coil operates as a primary coil, the coil 326 operates as a secondary coil, and an induction electromotive force of an alternating current is transferred from the primary coil of the charger to the secondary coil of the coupling module 322 and the first power supply unit. 328 is charged.

The first power supply unit 328 includes a charging module 329 and a battery cell 330. The charging module 329 includes a low pass filter (LPF), a rectifier, and a charging circuit (not shown). The low pass filter LPF removes a high frequency component from an AC signal transmitted from the coil 326, and the rectifier converts an AC voltage of the low frequency component into a DC voltage.

The charging circuit converts the DC voltage generated by the rectifier into a charging voltage of a level suitable for the battery cell 330. The charging circuit may include a constant voltage / constant current circuit that appropriately adjusts the level of the rectified DC voltage to charge the lithium-based secondary battery in the constant voltage mode or the constant current mode. The charging circuit transfers the generated DC voltage to the battery cell 330 to charge it. Here, the battery cell 330 may be a lithium ion battery or a lithium polymer battery as a rechargeable battery cell.

Although not shown in FIG. 3C, a signal line is connected between the communication module 324 and the controller 314 to perform communication, and the first power supply unit 328 and the main body 310, the first power supply unit 328, and the communication module 324 are connected to each other. The power line is connected between the first power supply unit 328 to supply power to the main body 310 and the communication module 324.

Meanwhile, in FIG. 3C, the first power supply unit 326 is charged using the coil 324 serving as the antenna of the communication module 324. However, in the case of the communication module not using the antenna, the coil 324 is used. This may be omitted. In this case, the first power supply unit 328 may be charged from an external charger having a charging contact terminal.

Functional modules other than the coupling module 322, such as a GPS module, an altitude measurement module, a pedometer, other biometric modules, may be further added and detachably coupled to the band 320.

As such, according to the present exemplary embodiment, the volume of the coupling module 322 may be reduced by sharing the coil 326 between the communication module 324 and the first power supply unit 328. In addition, since the first power supply unit 326 may be contactlessly charged using the coil 326, the user may simply charge the first power supply unit 328.

On the other hand, as in the first power supply unit in the embodiment of the present invention, when the communication module and the coupling module is not coupled to the band, for the aesthetics of the wearable measuring device, the auxiliary member substantially the same size and shape as the communication module and the coupling module ( 123 may be coupled to the groove portion of the band. The auxiliary member 123 may be detachably coupled to the band and may be fixed to the band.

In addition, although the first power supply unit, the communication module, and the coupling module have been described as being removable in the embodiment of the present invention, it may be fixed by being embedded in the band. In addition to the band in the form of a watch band that can be worn on the arm, wrist, or ankle, the present invention may be applied using a wearing means such as a necklace strap or a ring of a ring.

Although the preferred embodiments of the present invention have been described in detail above, the scope of the present invention is not limited thereto, and various modifications and improvements of those skilled in the art using the basic concepts of the present invention defined in the following claims are also provided. It belongs to the scope of rights.

Claims (31)

The main body is connected to the wearable wearable body, A first measurement module capable of measuring a living state, and A communication module connected to the main body through the wearing means and transmitting measurement data measured by the first measurement module to the outside. Wearable measuring device comprising a. In claim 1, And a first power supply unit connected to the main body through the wearing means and supplying power to the communication module. In claim 2, The main body includes a second power supply unit for supplying power to the main body. In claim 2, At least one of the first power supply unit and the communication module can be attached to the wearing means. In claim 2, The first power supply unit wearable measuring device for supplying power to the main body. In claim 2, The wearing means is divided into a plurality of parts, wearable measuring device is coupled to the first power source or the communication module to at least one of the plurality of parts. In claim 2, The first power supply unit is coupled to the wearing means connected to one end of the main body, the communication module is wearable measuring device coupled to the wearing means connected to the other end of the main body. In claim 2, The wear means is divided into a plurality of parts, wearable measuring device coupled to at least one of the GPS module, the altitude measuring module, the pedometer and the second measuring module capable of measuring the biological state to at least one of the plurality of parts. . In claim 8, At least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module may be detachable from the wearing means. In claim 1, The wearing means is a wearable measuring device consisting of any one of a watch band, a ring ring and a necklace strap. In claim 1, The wearing means, A signal line positioned at an upper end or a lower end of the wearing means and transmitting a signal to the communication module, and Wearable measuring device is located on the upper end or the lower end of the wearing means, comprising a power line for transmitting the power supplied from the first power supply. In claim 1, The first measurement module is a wearable measurement device located inside the main body. In claim 1, The first measuring module includes a light emitting unit and a light receiving unit for measuring a pulse. In claim 13, The light emitting part is coupled to the wearing means, and the light receiving part is located inside the main body. In claim 13, The light emitting unit is coupled to the wearing means connected to one end of the main body, the light receiving unit is wearable measuring device coupled to the wearing means connected to the other end of the main body. The main body is connected to the wearable wearable body, A first measurement module capable of measuring a living state, and Coupling module connected to the main body through the wearing means Including; The coupling module, Communication module for transmitting the measurement data measured by the first measurement module to the outside, and It includes a first power supply for supplying power to the communication module Wearable measuring device. The method of claim 16, The coupling module, Wearable measuring device further comprises a coil connected to the first power supply and the communication module. The method of claim 17, The coil operates as an antenna of the communication module and operates as a charging coil of the first power supply unit. The method of claim 18, The wearable measurement device of which the first power supply unit is charged in a non-contact manner. The method of claim 16, The main body includes a second power supply unit for supplying power to the main body. The method of claim 16, The coupling module is a wearable measuring device detachable to the wearing means. The method of claim 16, The wearing means is a wearable measuring device consisting of any one of a watch band, a ring ring and a necklace strap. The method of claim 16, The first power supply unit wearable measuring device for supplying power to the main body. The method of claim 16, The wearing means is divided into a plurality of parts, wearable measuring device is coupled to the coupling module of any one of the segmented portion. The method of claim 16, The wearing means, A signal line positioned at an upper end or a lower end of the wearing means and transmitting a signal to the communication module, and Wearable measuring device is located on the upper end or the lower end of the wearing means, comprising a power line for transmitting the power supplied from the first power supply. The method of claim 16, The wear means is divided into a plurality of parts, wearable measuring device coupled to at least one of the GPS module, the altitude measuring module, the pedometer and the second measuring module capable of measuring the biological state to at least one of the plurality of parts. . The method of claim 26, At least one of the GPS module, the altitude measuring module, the pedometer, and the second measuring module may be detachable from the wearing means. The method of claim 16, The first measurement module is a wearable measurement device located inside the main body. The method of claim 16, The first measuring module includes a light emitting unit and a light receiving unit for measuring a pulse. The method of claim 29, The light emitting part is coupled to the wearing means, and the light receiving part is located inside the main body. The method of claim 29, The light emitting unit is coupled to the wearing means connected to one end of the main body, the light receiving unit is wearable measuring device coupled to the wearing means connected to the other end of the main body.