WO2022114293A1

WO2022114293A1 - Smart-clothes-coupling-type biosignal measurement system

Info

Publication number: WO2022114293A1
Application number: PCT/KR2020/017116
Authority: WO
Inventors: 황정진
Original assignee: (주) 로임시스템
Priority date: 2020-11-26
Filing date: 2020-11-27
Publication date: 2022-06-02
Also published as: KR20220073068A

Abstract

The present invention relates to a smart-clothes-coupling-type biosignal measurement system, which uses smart clothes having only electrodes matched and provided to respective parts of a body in which biosignals are to be measured, and having no signal lines, and detects the biosignals through only device-attached electrodes by selectively attaching, to a plurality of electrodes, devices capable of detecting the biosignals, and thus solves a decrease in wear comfort of the smart clothes, the introduction of noise when the signal lines are provided, and the coming off of the device, and can electromyographically detect exercise while various exercises are performed after one piece of smart clothing is worn.

Description

Smart clothing-coupled biosignal measurement system

According to the present invention, only electrodes are installed on clothes according to each part of the body to measure biosignals, no signal lines are used on clothes, and a device capable of detecting biosignals is selectively attached among a plurality of electrodes and attached electrodes It relates to a smart clothing-coupled bio-signal measurement system that allows bio-signals to be detected only through a smart phone, which is an essential portable device, and enables monitoring of analysis results.

Since the detection accuracy of an electrode that comes into contact with the body to detect a biosignal depends on its adhesion to the body and its positional fixation, electrode patches that are configured in a patch type and can be adhered to body parts have been widely used.

However, the electrode patch is not only not comfortable to wear, but it can be lifted or separated from the body due to body movement or sweat, and the body parts that can be closely attached are limited, and the device that detects biosignals through the electrode patch is exposed. Since it had to be connected with the designated signal line, the usable environment was inevitably limited.

As an alternative to the electrode patch, there is a band in which an electrode and a device are installed, but only to the extent of solving some of the disadvantages of the electrode patch.

Recently, although electrodes and devices are installed, interest in smart clothing that can be worn on the body like general clothing is growing.

As disclosed in Patent Registration No. 10-0863064 and Patent Publication No. 10-2020-0011718, smart clothing includes a plurality of electrodes fixed to the body part to detect biosignals, and minimizes discomfort when worn on the body. It is a garment having a device fixed in a possible position and a signal wire connecting the electrode and the device, and a fiber material with excellent elasticity is used to press the electrode. Accordingly, the signal line is also configured to have elasticity and elasticity characteristics.

However, in smart clothes, as the signal line is made very long, noise is generated in the signal line, the signal line is easily damaged, and the clothes have to be manufactured to have a structure to protect the signal line, so that the fit is lowered. Of course, it is easy to break when washing.

In addition, although it is possible to simultaneously detect biosignals of each body part using the device, the number of signal lines increases as much as the number of electrodes, so it is difficult to manufacture, and the volume and weight of the device increase, so exercise while worn on the body It causes a lot of inconvenience when doing it. In particular, when detecting the EMG, since it is only necessary to detect an EMG of a muscle determined according to an exercise event, there is an unreasonable aspect of detecting an EMG more than necessary.

[Prior art literature]

[Patent Literature]

(Patent Document 1) KR 10-0863064 B1 2008.10.06.

(Patent Document 2) KR 10-2020-0011718 A 2020.02.04.

Therefore, the present invention does not use a signal wire and uses smart clothes with only electrodes installed, and by attaching a small and lightweight device only to electrodes in the right place to detect, analyze, and monitor bio-signals. It aims to provide a system.

In order to achieve the above object, in the present invention, in a smart clothes-coupled biosignal measurement system, a plurality of bioelectrodes 120 are formed in pairs by combining them with the clothes 110, but each bioelectrode 120 The pair is dispersedly disposed at each position where biosignals can be measured when the clothes 110 is worn on the body, and the detection electrodes 121 exposed on the inner surface of the clothes 110 and the clothes 110 Smart clothing 100 configured to face each other with the terminal 122 exposed on the outer surface of the clothing 110 interposed therebetween; Detecting a biosignal through two connectors 210 that can be one-to-one detachable from the terminal 122 of the pair of bioelectrodes 120 and two detection electrodes 121 electrically connected to the two connectors 210 Two

connector fixtures

201 and 202 having connectors 210 installed one by one, including a signal processing unit 220 for at least one or more devices 200 having a connected structure and allowing the use of a pair of bioelectrodes 120 to be attached by changing; and a receiving terminal 300 for outputting a biosignal transmitted and received by the device 200 or an analysis result of the biosignal.

According to an embodiment of the present invention, the receiving terminal 300 may guide the position of the bioelectrode 120 pair to which the device 200 is to be attached among the plurality of bioelectrode 120 pairs.

According to an embodiment of the present invention, an identification symbol 124 for distinguishing a plurality of pairs of the bioelectrodes 120 may be displayed on the outer surface of the terminal 122 or the outer surface of the clothing 110 around the terminal 122 . have.

According to an embodiment of the present invention, the signal processing unit 220 of the device 200 includes a lead-off detection unit 221 that detects a lead-off state between the bio-electrode 120 and the body. Thus, when a lead-off state is detected, an alarm signal may be transmitted to the receiving terminal 300 to cause an alarm.

According to an embodiment of the present invention, the connector 210 includes a female connector part 211 and a male connector part 212 that are coupled in a snap button manner, and the female connector part 211 is configured as the device 200 . It is provided on the

connector fixing bodies

201 and 202 of The female connector part 212 is fixed so that it can be used.

The present invention configured as described above uses smart clothes equipped with only bio-electrodes without a signal wire according to the body part to detect bio-signals, selects a pair of bio-electrodes in any part of the device to attach and detach the device, and makes the device smaller and lighter. to minimize the discomfort and damage of smart clothes, reduce noise inflow to accurately detect bio-signals, prevent separation even during vigorous exercise, and detect bio-signals from any part of the body. Thus, after wearing a single smart garment, various exercises may be performed and an EMG according to the exercise may be detected.

1 is a block diagram of a biosignal measuring system according to an embodiment of the present invention.

2 and 3 are cross-sectional views illustrating structures of the bioelectrode 120 and the device 200 .

Figure 4 is a view showing an embodiment in which the cover 111 is installed on the garment (110).

5 is an electrical signal configuration diagram of a biosignal measuring system according to an embodiment of the present invention.

6 is an example of the screen configuration of the user interface 330 of the receiving terminal 300 notifying the attachment position of the device 200.

7 and 8 are diagrams of a state of use of a biosignal measuring system according to an embodiment of the present invention.

Hereinafter, specific and various examples are shown and described so that those of ordinary skill in the art to which the present invention pertains can easily carry out the embodiments of the present invention with reference to the accompanying drawings. However, since it is also clear that the embodiments of the present invention can be practiced through various changes or modifications within the scope of the present invention, it is not limited to the described embodiments. In addition, the embodiments of the present invention will not be described in detail because well-known parts, circuits, functions, methods, and typical details can be implemented by those of ordinary skill in the art to which the present invention pertains.

Embodiments of the present invention may be implemented in a form in which software and hardware are combined, and the form of software and hardware may be described as parts, modules, parts, etc., in the form of computer-readable program code implemented in a recording medium. can be implemented as

The connection between the components may be a wired connection or a wireless connection in order to transmit data, signals, information, and the like, and may include a case of indirectly connecting with another component interposed therebetween.

"Including" a certain component means that other components may be further included, rather than excluding other components, unless otherwise stated.

Referring to the configuration diagram of FIG. 1 , the biosignal measuring system according to an embodiment of the present invention combines a plurality of bioelectrodes 120 to a garment 110 to be worn on the body, and the plurality of bioelectrodes 120 is applied to the garment ( 110) of the smart clothing 100 integrated with the smart clothing 100 and the plurality of bioelectrodes 120 coupled to the smart clothing 100, select and attach some of them, but make them detachable so that the bioelectrodes 120 to be attached can be used interchangeably It includes at least one device 200 and a receiving terminal 300 for short-range wireless communication with the device 200 .

Although the smart garment 100 shown in FIG. 1 is separated into upper and lower garments, the upper and lower garments may be connected.

In order to detect a biosignal in any body part, there must be at least two of the bioelectrodes 120 , so that at least two of the bioelectrodes 120 forming a pair are dispersedly disposed on each part of the garment 110 . ) is bound to

Positions at which the bio-electrodes 120 are coupled in the clothes 110 are positions that cover body parts capable of measuring bio-signals when the clothes 110 are worn on the body. The bio-signal that can be measured through the bio-electrode 120 may be an electromyogram, an electrocardiogram, a pulse, etc., and since the body parts that can be measured may be different depending on the type of the bio-signal, the smart clothing 100 The bio-electrode 120 is coupled to an appropriate position according to the type of bio-signal to be measured by wearing it.

In addition, when the biosignal to be measured is an EMG, a muscle to be measured with the smart garment 100 is selected among muscles of each part of the body, and at least a pair of the bioelectrode 120 is coupled to the selected location for each muscle.

1 is a diagram of an embodiment in which the smart garment 100 is configured for the purpose of measuring an EMG during biosignals. That is, the smart clothing 100 is a distributed arrangement of a plurality of the bioelectrodes 120 according to the positions of a plurality of selected muscles among each muscle of the body, and the pectoralis major, serratus anterior, obliques, rectus abdominis, trapezius, deltoid, and biceps muscles , shows an embodiment of a top in which the bio-electrodes 120 are arranged according to the positions of the triceps brachii and brachialis brachii, and a bottom in which the bio-electrodes 120 are arranged according to the positions of the quadriceps, tibialis anterior, and triceps femoris muscles. . Here, the pectoralis major, rectus abdominis muscle, oblique muscle, and quadriceps muscle are subdivided, and two bioelectrodes 120 are installed for each subdivided region.

1 illustrates that the device 200 is attached to the bioelectrode 120 at the trapezius muscle position, but the bioelectrode 120 to be attached is changed to attach the bioelectrode 120 to a different muscle position. may be That is, it is possible to detect a biosignal of a muscle selected by the user from among a plurality of muscles corresponding to the portion where the bioelectrode 120 is disposed. Of course, the bio-electrode 120 that detects bio-signals such as electrocardiogram and pulse may be additionally coupled to the smart garment 100 of FIG. 1 .

According to an embodiment of the present invention, as shown in FIG. 1 , an identification symbol 124 is marked on the peripheral portion of the bio-electrode 120 on the outer surface of the garment 110 to provide a plurality of the bio-electrodes 120 . It is possible to identify the bioelectrode 120 to which the device 200 is to be attached. Such an identification symbol 124 may be displayed on the outer surface of the terminal 122 provided on the outer surface of the garment 110 among the bioelectrodes 120 as will be described later. It is better to mark it on the unobstructed side.

2 is a cross-sectional view showing the structures of the bioelectrode 120 and the device 200 .

The bioelectrode 120 is exposed to the inner surface of the clothing 110 to be in contact with the body 10 skin, and the device 200 is detachable by exposing it to the outer surface of the clothing 110 . It includes a terminal 122 that enables it. The detection electrode 121 and the terminal 122 each have conductivity, face each other with the clothing 110 interposed therebetween, and are electrically connected to each other by a connection portion 123 penetrating the clothing 110 . Here, the detection electrode 121 , the terminal 122 , and the connection part 123 may be physically integrated as a conductive material.

The detection electrode 121 may be composed of any one of a conductive metal electrode, a conductive rubber electrode, a conductive fiber electrode, and a conductive silicon electrode, and is formed to slightly protrude from the inner surface of the garment 110 . The detection electrode 121 is preferably made of a rubber-elastic material that deforms according to the curvature of the skin of the body 10 . Since these electrodes can be configured with reference to various known structures, a detailed description thereof will be omitted.

However, the detection electrode 121 , the terminal 122 and the connection part 123 are made of a single conductive fiber electrode and sewn to the clothing 110 in a state that penetrates the clothing 110 , but the clothing 110 . It is also possible to have the function of the detection electrode 121 and the terminal 122 by protruding the part exposed to the inside and outside of the body, that is, having a thicker shape with a thickness greater than that of the clothes 110 .

The detection electrode 121 is provided with a plurality of protrusions 121a on the surface in contact with the skin of the body 10 wearing the smart clothing 100 in consideration of the body hair of the skin of the body 10, so that even if there is body hair on the skin It is best to make it adhere to the skin. At this time, the protrusions 121a may be formed in the form of thin flexible threads, and may be formed in the form of brushes by clustering. The protrusions 121a forming the brush shape may be formed by forming a conductive coating layer on the surface.

The device 200 includes a connector 210 to be attached one-to-one to two adjacent bioelectrodes 120 in a pair, wherein the connector 210 is attached to the terminal 122 of the bioelectrode 120 and It has a detachable structure. To this end, the two

connector fixtures

201 and 202 each having one connector 210 are connected to the flexible connection member 203, and the flexible connection member 203 according to the bending or movement of the skin of the body. ) was bent or stretched. Of course, the signal processing unit 220 , the transmitting unit 230 , and the power supply unit 240 to be described later may be distributed and accommodated in both

connector fixing bodies

201 and 202 and electrically connected to each other through the flexible connecting member 203 .

According to the embodiment shown in FIG. 2 , the connector 210 is composed of a female connector part 211 fixedly installed on the device 200 and a male connector part 212 detachable from the female connector part 211 , , the male connector part 212 can be attached to the terminal 122 . Accordingly, the male connector part 212 is replaced for the smart garment 100 in which the attachment method between the male connector part 212 and the terminal 122 is different and the device 200 can be used in common. do.

And, as shown in FIG. 2 , the male connector part 212 is configured in the form of a disk having protrusions on one surface to generally have an electrode shape of an electrode patch, and the other surface is attached to the terminal 122 . can be detached. The female connector part 211 may have the shape of an electrode terminal connected to the electrode of the electrode patch by gripping the protrusion of the male connector part 212 when inserting it. In this way, by making it possible to attach and detach the male connector part 212 and the female connector part 212 by a snap button coupling method, the device 200 can be used alone in a conventional electrode patch used in close contact with the skin of the body. By directly attaching the female connector part 211, it can be used to detect a biosignal.

The male connector part 212 and the terminal 122 are provided with attachment members 212a and 122a on surfaces to be mutually interviewed, respectively. According to the embodiment shown in FIG. 2 , the attachment members 212a and 122a are conductive. It consists of a Velcro hook and a conductive Velcro loop so that it can be combined with Velcro.

Although not shown in the drawings, as a modified embodiment, the attachment members 212a and 122a may be formed of conductive magnets having different polarities to enable magnetic coupling. In this case, the conductive groove and the conductive protrusion for transmitting the biosignal may be formed and fitted together, and the periphery of the groove and the protrusion may be formed of a magnet.

As another modified embodiment, the attachment members 212a and 122a may be configured to be coupled to each other in a snap coupling method using conductive grooves and conductive protrusions in the same manner as the coupling method between the female connector part 211 and the male connector part 212 . may be

3 is a diagram of an embodiment in which the structures of the bioelectrode 120 and the device 200 are modified.

Referring to FIG. 3 , the attachment member 122a formed on the terminal 122 of the bioelectrode 120 is formed in the form of a protrusion to be fastened by a snap button method, and the connector 210 of the device 200 is shown in FIG. 2 . In the illustrated embodiment, except for the male connector part 212, only the female connector part 211 is configured, so that the terminal 122 can be coupled to the connector 210 by a snap button method. In addition, as mentioned above, the connector 210 composed of only the female connector part 211 may be directly coupled to the electrode patch, and the device 200 may be attached to the electrode patch directly attached to the body.

4 is a view showing a modified embodiment provided with the cover 111 to the garment (110).

Referring to FIG. 4 , the cover 111 sews at least one side to the garment 110 while covering the terminal 122 of the bioelectrode 120 so as not to separate from the garment 110 , so that the terminal 122 . ) so that it is not exposed to the outside or can be lifted to expose the terminal 122 to the outside. The cover 111 may be used to cover the terminal 122 of the bioelectrode 120 to which the device 200 is not attached to prevent contamination.

For this purpose, the cover 111 enables the two bioelectrodes 120 forming a pair adjacent to each other to be covered together, and when the terminal 122 of each bioelectrode 120 is covered, the cover 111 is in contact with the terminal 122 . An attachment member 111a is provided at the portion to be coupled to the attachment member 122a of the terminal 122 . When the attachment member 122a of the terminal 122 is made of Velcro, the attachment member 111a of the cover 111 is made of Velcro so that it can be coupled with Velcro, and the attachment member 122a of the terminal 122 is attached In the case of using a magnet, the attachment member 111a of the cover 111 is configured as a magnet to enable magnetic coupling, and as in the embodiment shown in FIG. 3 , the attachment member 122a of the terminal 122 is formed in a protrusion shape. When configured, the attachment member 111a of the cover 111 is configured to have a groove so that it can be coupled in a snap button manner.

In this way, when the cover 111 is installed on the clothing 110, the identification symbol 124 is not displayed on the clothing 110 or the terminal 122, instead, the terminal 122 of the bioelectrode 120. ) may be displayed on the externally exposed surface of the cover 111 in the covered state.

Referring to FIG. 5 , the device 200 includes a signal processor 220 for detecting a biosignal through two connectors 210 , a transmitter 230 for wirelessly transmitting the detected biosignal, and a signal processor 220 , It includes a power supply unit 240 for supplying power for the operation of the transmitter 230 .

The two connectors 210 are in one-to-one close contact with the two adjacent bioelectrodes 120 to receive biopotential signals of body parts in contact with the detection electrodes 121 of the two adjacent bioelectrodes 120 .

The signal processing unit 220 includes a lead-off detection unit 221 that detects a lead-off state between the bio-electrode 120 and the body, and generates an alarm signal when the lead-off state is detected. It transmits to the receiving terminal 300 through the transmitter 230, and if it is not in a lead-off state, obtains a biosignal from the biopotential signal input through the two connectors 210, and the transmitter 230 ) through the receiving terminal 300 . An alarm signal may be expressed by installing a lamp or a speaker in the device 200 .

The lead-off state is a state in which the detection electrode 121 of the bioelectrode 120 is not in close contact with the skin of the body, so that the biosignal cannot be accurately measured. The lead-off detection unit 221 for detecting such a lead-off state is configured when the voltage change between the two connectors 210 electrically connected to the two bio-electrodes 120 is not detected as the normal power level of the bio-signal. It can be configured to determine the lead-off state. As another example, the lead-off detection unit 221 may be configured to determine a lead-off state when the resistance measured by flowing a current between the two connectors 210 exceeds a preset reference resistance (human resistance). . As another example, the lead-off detection unit 221 may be configured to determine a lead-off state when a signal transmitted through one connector 210 is not detected through the other connector 210 . In addition, since various methods for detecting the lead-off state are known, further examples are omitted.

When the lead-off state is not detected by the lead-off detection unit 221, the signal processing unit 220 determines that the detection electrode 121 of the bio-electrode 120 is in close contact with the body skin, get biosignals The biosignal is obtained by differential operation after amplifying the biopotential signal detected through the two connectors 210, and since it is well known that various circuit configurations for suppressing noise are also well known, a detailed description thereof will be omitted.

The transmitter 230 is configured as a communication module capable of short-range wireless communication with the reception terminal 300 . For example, if the reception terminal 300 is configured as a smartphone, it may be configured as a Bluetooth communication module.

The power supply unit 240 may be formed of, for example, a rechargeable secondary battery.

The receiving terminal 300 includes a receiving unit 310 capable of short-range wireless communication with the device 200, a user interface 330 for user input and information output, and, for example, to output information by voice or vibration. an output unit 340 for , a guide unit 322 for guiding a pair of bioelectrodes 120 to which the device 200 is attached among a plurality of pairs of bioelectrodes 120 provided in the smart garment 100 , and the device and a processor 320 having, as a program component, an analysis unit 321 that analyzes the biosignal transmitted and received by 200 and outputs the analysis result.

In addition, the receiving terminal 300 is a memory for storing the identification symbol 124 displayed on the bioelectrode 120 provided in the smart garment 100, a list of body parts to be strength exercised, and the name of the muscle to be strengthened according to the exercise event. may include

The receiving terminal 300 configured as described above includes a receiving unit 310 , a user interface 330 , and an output unit 340 , and installs an application programmatically configuring the guide unit 322 and the analysis unit 321 . It can be configured as a smartphone equipped with a processor that can be executed.

6 is a diagram illustrating a screen 350 output to the user interface 330 by the guide unit 322 .

Referring to the screen 350 illustrated in FIG. 6 , the guide unit 322 outputs a body part list 351 to be strength exercised so that the user can select and input a body part, and the body part list 351 ( 200) outputs a smart garment image 354 showing where to attach it.

Referring to the smart clothing image 354 , a plurality of bioelectrodes 120 images 355 are displayed on the smart clothing 100 image, and a device 200 among the plurality of bioelectrodes 120 images 355 . The image 355 of the bioelectrode 120 to be attached to is replaced with the image 356 of the device 200 .

Since the muscles of the body are generally symmetrical left and right, it is preferable to guide the position of the bioelectrode 120 and the identification symbol 124 corresponding to the left and right muscles to the screen 350 .

Accordingly, the user can exercise after accurately attaching the device 200 to the bioelectrode 120 according to the location of the bioelectrode 120 and the identification symbol 124 shown on the screen 350 .

In addition, referring to the screen 350, the value 357 of 1RM (one Repetition Maximum), which means the maximum muscle strength that can be exercised once, is also displayed, and a button 358 for measuring 1RM (one Repetition Maximum) and, A button 359 for the user to directly input the value of 1RM (one Repetition Maximum) is also prepared. Here, the value 357 of 1RM (one Repetition Maximum) is a value for the muscle selected above.

On the other hand, it is possible to recommend an exercise to strengthen the selected muscle.

As a modified embodiment, an exercise item is input through the screen 350, a muscle to be strengthened according to the input exercise item is selected, and a muscle name, an identification symbol, and a location to attach the device 200 are displayed. may be

As a modified embodiment, the user may directly input the muscle to be strengthened, or the user may specify the muscle by allowing the user to select at least one of the images of the bioelectrode 120 displayed on the image on the screen 350 .

The analyzer 321 outputs the biosignal transmitted and received by the device 200 or the analysis result of the biosignal to the user interface 330 or the output unit 340 so that the user can recognize it.

In the description of the embodiment of the present invention, since the device 200 detects the EMG, the EMG or the result of evaluation and analysis of the EMG is output. Here, when the EMG is evaluated and analyzed, it is analyzed according to the muscle type selected as the location where the device 200 is attached. This is because the EMG may be different depending on the muscle type.

The guide part 322 and the analysis part 321 are disclosed in Patent Registration No. 10-1990531, Patent Publication No. 10-2020-0119990, and Patent Publication No. 10-2020-0119991 applied by the applicant of the present invention. It can also be configured by applying known technology.

For example, information necessary for analyzing the EMG may be stored in the memory. Here, the information for EMG analysis includes correlation information between EMG and muscle strength, correlation information between EMG and muscle fatigue, information necessary to calculate the above-mentioned 1RM (one repetition maximum), maximum muscle strength strengthening effect, muscle hypertrophy effect, It may include information on a range of muscle strength in which a muscle power strengthening effect and a muscle endurance strengthening effect can be obtained. And, 1RM can be calculated from the EMG detected after pressing the button 358 on the screen 350 to measure 1RM, and muscle strength and muscle fatigue are obtained from the EMG detected during exercise according to the correlation information, and strength exercise The effect of can be judged and outputted. In addition, when the EMG of the left and right muscles is simultaneously detected, the muscle balance may be calculated and output according to the difference in the strength of the EMG detected in the left and right muscles.

Since it is obvious that functions can be added by applying the known technology as described above, further examples or detailed descriptions will be omitted.

The characteristics of the biosignal measuring system according to the embodiment of the present invention described above can be seen more clearly from the use state illustrated in FIGS. 7 and 8 .

First, referring to the top of the smart garment 100 exemplified in FIG. 1 , the positions of the pectoralis major, serratus anterior, oblique, rectus abdominis, trapezius, deltoid, biceps brachii, triceps brachii and brachialis muscle selected as main muscles among various muscles of the upper body. Two bioelectrodes 120 are installed as a pair according to the In addition, the pectoralis major, rectus abdominis muscle, and oblique muscle are subdivided, and two bioelectrodes 120 are installed for each subdivided region.

As illustrated in FIG. 7 , when performing a flat barbell bench press exercise after wearing the top of the smart clothing 100 , among the pectoralis major, pectoralis minor, deltoid, and triceps muscles, which can be strengthened by this exercise, the living body Select the left and right pectoralis major muscles and the left and right deltoid muscles where the electrodes 120 are located, and guide the devices 200 to be attached to the smart garment 100 one by one according to the pectoralis major and deltoid muscles as described above. That is, the user is guided to attach the four devices 200 to the smart garment 100 . Then, during exercise, the EMG of the pectoralis major and deltoid muscles is divided into left and right muscles and detected, and the EMG analysis result is displayed in the receiving terminal 300 .

Here, the smart clothing 100 does not have a signal line installed, and only the bio-electrode 120 is installed, so even if you exercise vigorously while wearing the body, there is no fear of damage to the signal line or noise caused by the signal line. It can be detected more accurately, and even if a plurality of bioelectrodes 120 are installed for each muscle part, it can be configured so that the wearing comfort is not deteriorated.

In addition, the device 200 can be configured to detect an EMG through a pair of bioelectrodes 120 so that it can be reduced in size and weight, and a flexible connection is made between both

connector fixtures

201 and 202 in which the connector 210 is installed, respectively. Due to the structure connected by the member 203, it bends and contracts according to body flexion or muscle movement, and maintains the state firmly attached to both bioelectrodes 120, so that a plurality of devices 200 are attached to the smart garment 100. Even if you exercise after attaching it, you can minimize discomfort, and even if it is attached to a muscle part with heavy movement, it can not be separated, so it can be configured to detect biosignals from any part of the body, and wearing one smart garment 100 It makes it possible to perform various movements in the state and to detect the biosignals of each movement.

Referring to the bottom of the smart garment 100 shown in FIG. 1 , a pair of bioelectrodes 120 was installed using the quadriceps, tibialis anterior and triceps femoris as main muscles. Here, the quadriceps muscle was subdivided into the vastus lateralis, rectus femoris, and vastus medial muscle, and a pair of bioelectrodes 120 was installed.

When performing a running exercise as shown in FIG. 8 after wearing these bottoms, the device 200 may be guided to be attached to the smart clothing 100 according to the rectus femoris muscle. Of course, it is also possible to guide the device 200 to be additionally attached according to the tibialis anterior muscle, the vastus lateral muscle, and the vastus medial muscle. In addition, the receiving terminal 300 may receive the EMG signal transmitted from each bioelectrode 120 and display the analysis result. Here, the receiving terminal 300 is provided with a processor 320 that can install an application programmatically implementing the receiving unit 310 and the user interface 330, and the analysis unit 321 and the guide unit 322, It shows that it can be configured as a smart watch that can be worn on the wrist.

Since the device 200 is compact and lightweight, and can be bent and contracted, even if the vibration applied to the bioelectrode 120 during running as described above is severe, the biosignal can be accurately detected without departing.

On the other hand, the exemplified smart clothing 100 is provided with the bioelectrode 120 according to the muscle part in the front of the body, but the device 200 is installed by installing the bioelectrode 120 according to the muscle part in the back of the body. It can be optionally attached.

In the above, specific embodiments have been shown and described to illustrate the technical idea of the present invention, but the present invention is not limited to the same configuration and operation as the specific embodiments as described above, and various modifications are within the limits that do not depart from the scope of the present invention. can be carried out in Accordingly, such modifications should be considered to fall within the scope of the present invention, and the scope of the present invention should be determined by the following claims.

[Explanation of code]

100: smart clothing

110: clothing 111: cover 111a: attachment member

120: bioelectrode 121: detection electrode 121a: protrusion

122: terminal 122a: attachment member 123: connection part

124: identification symbol

200: device

201,202: connector fixture 203: flexible connecting member

210: connector 211: female connector 212: male connector

212a: attachment member

220: signal processing unit 221: lead-off detection unit

230: transmitter

240: power unit

300: receiving terminal

310: receiver

320: processor 321: analysis unit 322: guide unit

330: user interface

340: output unit

Claims

A plurality of bio-electrodes 120 are formed in pairs by combining them with the clothes 110, and each pair of bio-electrodes 120 can measure bio-signals when the clothes 110 are worn on the body. Distributed at each position, the detection electrode 121 exposed on the inner surface of the garment 110, and the terminal 122 exposed on the outer surface of the garment 110 are opposite each other with the garment 110 interposed therebetween. and smart clothing 100 configured to be connected;

Detecting a biosignal through two connectors 210 that can be one-to-one detachable from the terminal 122 of the pair of bioelectrodes 120 and two detection electrodes 121 electrically connected to the two connectors 210 Two connector fixtures 201 and 202 having connectors 210 installed one by one, including a signal processing unit 220 for at least one or more devices 200 having a connected structure and allowing the use of a pair of bioelectrodes 120 to be attached by changing; and

a receiving terminal 300 for outputting a biosignal transmitted and received by the device 200 or an analysis result of the biosignal;

A smart clothing-coupled biosignal measurement system comprising a.
The method of claim 1,

The receiving terminal 300 guides the position of the bioelectrode 120 pair to which the device 200 is to be attached among the plurality of bioelectrode 120 pairs.

Smart garment-coupled biosignal measurement system.
The method of claim 1,

The plurality of pairs of bioelectrodes 120 include those attached to be distributedly disposed on each muscle part of the body,

The receiving terminal 300 selects a muscle according to a body part or exercise event input by the user, guides the position of a pair of bioelectrodes 120 to which the device 200 is to be attached, and analyzes and outputs it according to the selected muscle.

Smart garment-coupled biosignal measurement system.
4. The method of claim 3,

On the outer surface of the terminal 122 or the outer surface of the surrounding clothing 110, an identification symbol 124 for distinguishing the plurality of pairs of the bio-electrodes 120 is displayed.

Smart garment-coupled biosignal measurement system.
4. The method of claim 3,

The garment 100 has a cover 111 that can cover the terminal 122, and an identification symbol 124 for distinguishing a plurality of bioelectrode 120 pairs is displayed on the outer surface of the cover 111. made

Smart garment-coupled biosignal measurement system.
The method of claim 1,

The signal processing unit 220 of the device 200 includes a lead-off detection unit 221 that detects a lead-off state between the bio-electrode 120 and the body, and when the lead-off state is detected, to transmit an alarm signal to the receiving terminal 300 to cause an alarm

Smart garment-coupled biosignal measurement system.
The method of claim 1,

The connector 210 includes a female connector part 211 and a male connector part 212 that are coupled in a snap button manner, and the female connector part 211 is connected to the connector fixtures 201 and 202 of the device 200 . The male connector part 212 is detachably attached to the female connector part 211 and can be attached to the terminal 122, and the female connector part 212 is fixed to the electrode patch directly attached to the body skin. made available

Smart clothing-coupled biosignal measurement system.
The method of claim 1,

The terminal 122 and the connector 210 can be attached and detached by any one of Velcro coupling, snap button coupling, and magnetic coupling,

The detection electrode 121 is composed of any one of conductive fiber, conductive silicone, conductive rubber, conductive brush shape, and conductive metal.

Smart clothing-coupled biosignal measurement system.