KR20190063564A - Wearable measuring device and application for executing spine diagnosis method using the same - Google Patents

Abstract

The present invention relates to a wearable measuring device and an application for executing a spine diagnosis method using the same. According to an embodiment of the present invention, the wearable measuring device comprises: a first stress sensor unit for sensing a movement of a left body unit of a patient; a second stress sensor unit for sensing a movement of a right body unit of the patient; and a first near-field communication unit for transmitting data output from the first and second stress sensor units to a patient terminal.

Description

[0001] DESCRIPTION [0002] WEARABLE MEASURING DEVICE AND APPLICATION FOR EXECUTING SPINE DIAGNOSIS METHOD USING THE SAME [0003]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a wearable meter and an application for executing a spinal diagnostic method using the same.

Modern people, who have a lot of time to sit and live during the day, are more likely to be bent because of their wrong attitudes and habits. Especially for young adolescents, adolescents are more affected by posture because they are more flexible than adults who have stopped growing.

Scoliosis is a condition in which the vertebrae bend to the "C" or "S" shape, and the body tilts or turns back and forth. In this case, the vertebrae are curved and the vertebrae are tilted to the left or right, so the height of the pelvis or shoulder is different or the body is biased toward one side. At this time, the shape of the vertebrae both when viewed from the front and when viewed from the side seems to be distorted.

If the vertebrae are bent sideways over 5 °, it is considered abnormal. Approximately 7.7% of the population is reported to have scoliosis. Scoliosis usually has a genetic predisposition, with a 20 to 40% or higher incidence in the family. It usually develops in a period of rapid growth and occurs before the age of 14, especially three to five times more women than men.

Scoliosis is uncommon in the first place because it does not manifest symptoms of pain or other symptoms. As scoliosis progresses, the muscles, ligaments, and nerves around the spine become stressed, so symptoms such as back pain, shoulder stiffness, and headache may appear first. Also, if the progress of scoliosis becomes severe, the ribs and pelvis deformity from the vertebrae can cause pressure on the heart and lungs, resulting in abnormal cardiopulmonary function.

An embodiment of the present invention aims at providing an application for executing a wearable meter capable of self-diagnosis of a patient's own spine and a spinal diagnostic method using the same.

It is an object of the present invention to provide a cognitive treatment that allows a patient wearing a wearable measuring instrument to correct posture according to his spinal diagnosis result.

A wearable meter according to an embodiment of the present invention includes a first stretch sensor unit for detecting movement of a left side of a patient's body; A second stretch sensor part for sensing a movement of the right body part of the patient; And a first short range communication unit for transmitting data output from the first and second stretch sensor units to the patient side terminal.

The first stretch sensor part may be provided at a portion of the article to be worn by the patient and interacts with the left trunk part, and the second stretch sensor part may be provided at a part that interacts with the right trunk part have.

The first and second stretch sensor portions may be installed in a thoracic band surrounding the chest in a patient's worn condition.

Wherein the first stretch sensor part outputs first expansion data representing a left chest stretch amount due to a movement of the left chest of the patient to the first short range communication part and the second stretch sensor part comprises: And output second expansion / contraction data indicating the expansion / contraction of the chest to the first short range communication unit.

The patient terminal may acquire the left chest stretch amount based on the first stretch amount data and obtain the right chest stretch amount based on the second stretch amount data.

The wearable meter comprises: a first magnetic-pole portion for applying a magnetic field to a left-side body part of a patient; And a second stimulation unit for applying a stimulus to a right body part of the patient, wherein the patient terminal is configured to: control the first stimulation part so that the first stimulation part operates when the left thorax expansion amount is smaller than a preset reference chest stretch amount, And controls the second magnetic-pole portion to operate the second magnetic-pole portion when the right-side chest elasticity is smaller than the reference chest stretch amount.

The wearable meter comprises: a first magnetic-pole portion for applying a magnetic field to a left-side body part of a patient; And a second stimulating unit for applying a stimulus to a right body part of the patient, wherein the patient terminal calculates a first difference between the left thoracic contraction amount and the right thoracic contraction amount, and if the calculated first difference is less than a predetermined amount 1 control value, and controls the first magnetic-pole portion to operate the first magnetic-pole portion when the left-side chest stretch amount is smaller than the right chest stretch amount, wherein the calculated first difference is larger than the first reference value, The second magnetic-pole portion can be controlled so that the second magnetic-pole portion operates when the amount of expansion / contraction is smaller than the left-side chest elasticity.

The wearable meter comprises: a third stretch sensor unit for detecting movement of the left waist of the patient; A fourth stretch sensor unit for sensing movement of the right waist of the patient; And an auxiliary local communication unit for transmitting data output from the third and fourth stretch sensor units to the patient terminal.

The third stretch sensor part may be provided at a portion of the article worn by the patient that interacts with the left waist part, and the fourth stretch sensor part may be provided at a part where the patient interacts with the right waist part have.

The third and fourth stretch sensor portions may be installed in a waist band surrounding the waist in a patient's worn garment.

Wherein the third stretch sensor part outputs to the auxiliary short range communication part third dilatation amount data representing the left side waist portion stretch amount due to the movement of the left waist part of the patient, and the fourth stretch sensor part: And output the fourth telescopic data indicating the waist portion stretch amount to the auxiliary short-range communication unit.

The patient terminal may acquire the left waist portion stretch amount based on the third stretch amount data and obtain the right waist portion stretch amount based on the fourth stretch amount data.

The wearable meter comprises: a first magnetic-pole portion for applying a magnetic field to a left-side body part of a patient; And a second magnetic pole part for applying a magnetic field to the right body part of the patient, wherein the patient terminal calculates a second difference between the left waist elasticity and the right waist elasticity, and the calculated second difference Controls the first magnetic-pole portion to operate the first magnetic-pole portion when the left waist portion stretch amount is larger than the set second reference value and the amount of elongation of the left waist portion is smaller than the right waist portion stretch amount, and when the calculated second difference amount is larger than the second reference value , And controls the second magnetic-pole portion so that the second magnetic-pole portion operates when the right waist elasticity is smaller than the left waist elasticity.

The wearable meter comprises: a first magnetic-pole portion for applying a magnetic field to a left-side body part of a patient; And a second stimulating unit for applying a stimulus to the right body part of the patient, wherein the patient terminal calculates a third difference between the left chest stretch amount and the left waist stretch amount, and the calculated third difference is set Controls the first magnetic-pole portion so that the first magnetic-pole portion is operated so as to calculate a fourth difference between the right-side chest stretch amount and the right waist-side contraction amount when the calculated difference exceeds the reference range, The second magnetic-pole portion can be controlled so that the second magnetic-pole portion operates.

An application according to an embodiment of the present invention includes the steps of receiving first stretch data representing a left chest stretch of a patient from a wearable meter and second stretch data representing a right chest stretch of the patient; Obtaining the left and right chest stretch amounts based on the first and second stretch amount data, respectively; Controlling the first magnetic-pole portion so that the first magnetic-pole portion that applies a magnetic field to the left part of the body of the patient is operated by the wearability measuring device when the left thoracic contraction amount is smaller than a preset reference chest stretch amount; And controlling the second stimulation unit so that the second stimulation unit that applies a stimulus to the right body part of the patient is operated in the wearability measuring apparatus when the right thorax expansion and contraction amount is smaller than the reference thoracic contraction amount, Lt; / RTI >

The vertebra diagnosis method comprising the steps of: calculating a first difference between the left thoracic contraction amount and the right thoracic contraction amount; Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated first difference is larger than a predetermined first reference value and the left chest elasticity is smaller than the right chest stretch amount; And controlling the second magnetic-pole portion so that the second magnetic-pole portion operates when the calculated first difference is larger than the first reference value and the right-side chest elasticity is smaller than the left chest stretch amount.

The spinal diagnosis method includes: receiving third stretch data representing a left waist stretch amount of the patient from the wearability meter and fourth stretch amount data representing a right waist stretch amount of the patient; Acquiring the left and right waist stretch amounts based on the third and fourth stretch amount data; Calculating a second difference between the left waist elasticity and the right waist elasticity; Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated second difference is larger than a predetermined second reference value and the left waist portion stretch amount is smaller than the right waist stretch amount; And controlling the second magnetic-pole portion such that the second magnetic-pole portion operates when the calculated second differential is larger than the second reference value and the right waist elasticity is smaller than the left waist elasticity have.

The vertebra diagnostic method comprising the steps of: calculating a third difference between the left thoracic contraction amount and the left waist contraction amount; Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated third difference is out of a preset reference range; Calculating a fourth difference between the right thoracic contraction amount and the right waist contraction amount; And controlling the second magnetic-pole unit such that the second magnetic-pole unit operates when the calculated fourth difference is out of the reference range.

According to an embodiment of the present invention, the patient can self-diagnose his spine.

According to the embodiment of the present invention, a cognitive treatment that enables a patient wearing a wearable measuring instrument to correct a posture according to a diagnosis result of his / her vertebrae is possible.

1 and 2 are exemplary views showing a rear view and a front view of a patient wearing a wearable measuring instrument according to an embodiment of the present invention, respectively.
3 is an exemplary flow diagram of a spinal diagnostic method performed on a patient terminal in accordance with an embodiment of the present invention.
4 is an exemplary flow chart of a spinal diagnostic method performed on a patient terminal in accordance with another embodiment of the present invention.
5 and 6 are exemplary views showing a rear view and a front view of a patient wearing a wearable measuring instrument according to another embodiment of the present invention, respectively.
7 is an exemplary flowchart of a vertebral diagnostic method performed on a patient terminal in accordance with another embodiment of the present invention.
FIG. 8 is an exemplary flowchart of a method of vertebrae diagnosis performed in a patient-side terminal according to another embodiment of the present invention.

Other advantages and features of the present invention and methods of achieving them will become apparent with reference to the embodiments described below in detail with reference to the accompanying drawings. The present invention may, however, be embodied in many different forms and should not be construed as being limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the concept of the invention to those skilled in the art. Is provided to fully convey the scope of the invention to those skilled in the art, and the invention is only defined by the scope of the claims.

Unless defined otherwise, all terms (including technical or scientific terms) used herein have the same meaning as commonly accepted by the generic art in the prior art to which this invention belongs. Terms defined by generic dictionaries may be interpreted to have the same meaning as in the related art and / or in the text of this application, and may be conceptualized or overly formalized, even if not expressly defined herein I will not.

The terminology used herein is for the purpose of illustrating embodiments and is not intended to be limiting of the present invention. In the present specification, the singular form includes plural forms unless otherwise specified in the specification. As used herein, the terms' comprise 'and / or various forms of use of the verb include, for example,' including, '' including, '' including, '' including, Steps, operations, and / or elements do not preclude the presence or addition of one or more other compositions, components, components, steps, operations, and / or components. The term 'and / or' as used herein refers to each of the listed configurations or various combinations thereof.

It should be noted that the terms such as '~', '~ period', '~ block', 'module', etc. used in the entire specification may mean a unit for processing at least one function or operation. For example, a hardware component, such as a software, FPGA, or ASIC. However, '~ part', '~ period', '~ block', '~ module' are not meant to be limited to software or hardware. Modules may be configured to be addressable storage media and may be configured to play one or more processors. ≪ RTI ID = 0.0 >

Thus, by way of example, the terms 'to', 'to', 'to block', 'to module' refer to components such as software components, object oriented software components, class components and task components Microcode, circuitry, data, databases, data structures, tables, arrays, and the like, as well as components, Variables. The functions provided in the components and in the sections ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ ' , '~', '~', '~', '~', And '~' modules with additional components.

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

1 and 2 are exemplary views showing a rear view and a front view of a patient wearing the wearable meter 100 according to an embodiment of the present invention, respectively.

The wearable meter 100 includes a first stretch sensor unit 110, a second stretch sensor unit 120, and a first short range communication unit 150.

The first stretch sensor unit 110 senses the movement of the left trunk of the patient. The second stretch sensor unit 120 senses the movement of the right torso of the patient. The first short range communication unit 150 transmits the data output from the first and second stretch sensor units 110 and 120 to the patient side terminal 200.

According to an embodiment of the present invention, the first stretch sensor unit 110 is provided at a site where the patient interacts with the left trunk of the article to be worn by the patient, and the second stretch sensor unit 120 is provided at a position In the region where the right trunk portion interacts with the body.

For example, the first and second stretch sensor portions 110 and 120 may be installed in a chest band that surrounds the chest in a patient's worn condition. As shown in FIGS. 1 and 2, the first and second stretch sensor units 110 and 120 are made of stretchable materials, and can be installed in a band portion of an underwear or a sportswear worn on a woman's chest. have.

As described above, the first and second stretch sensor units 110 and 120 may be integrally formed with the objects worn by the patient, but they are not limited thereto and may be replaceable. For example, the first and second stretch sensors 110 and 120 made in a fabric type can be installed to be replaceable in clothes worn by the patient.

Since the patient wearing the wearable measuring instrument 100 is not limited to a woman, the first and second stretch sensor units 110 and 120 may be installed on a portion of the male's upper surface that surrounds the thorax, It is possible. Further, the wearable meter 100 is not necessarily limited to the garment, and the first and second stretch sensor units 110 and 120 may be provided at portions where the left and right body portions of the patient interact with each other, And the wearer's measuring instrument 100 may be implemented in various articles such as gears and accessories, as long as they sense the movement of the right and left trunk portions.

The first stretch sensor unit 110 may output the first stretch data indicating the left and right chest stretch due to the movement of the left chest of the patient to the first short range communication unit 150. The second stretch sensor unit 120 may output the second stretch amount data indicating the right chest stretch amount due to the movement of the right chest of the patient to the first short range communication unit 150.

For example, as the first and second stretch sensor units 110 and 120 are elongated or contracted, the resistance value of the sensor may be changed to output an electric signal corresponding to the changed resistance value. Here, the left thoracic contraction amount of the patient may be a changed resistance value of the first stretch sensor part 110, and the right thoracic contraction amount of the patient may be a changed resistance value of the second stretch sensor part 120. [ However, depending on the types of the first and second stretch sensor units 110 and 120, the left and right chest stretch amounts may be represented by physical quantities other than the resistance value of the sensor.

The first local area communication unit 150 exchanges data with the patient terminal 200 through local area communication. For example, the first local area communication unit 150 may transmit and receive data with the patient terminal 200 in a Bluetooth manner. However, the short-range communication protocol used for exchanging data between the first short-range communication unit 150 and the patient-side terminal 200 is not limited to Bluetooth.

The patient terminal 200 may acquire the left thoracic contraction amount based on the first expansion amount data and obtain the right thoracic contraction amount based on the second expansion amount data. According to one embodiment of the present invention, the patient terminal 200 is a mobile terminal such as a smart device, and may include a processor such as an AP and a memory to execute an application to process data.

According to an embodiment of the present invention, the wearable meter 100 may further include a first magnetic pole portion and a second magnetic pole portion. The first magnetic pole part applies a stimulus to the left body part of the patient. And the second magnetic pole part applies a stimulus to the right body part of the patient.

The first and second magnetic-pole portions may include a vibrator that generates vibration. However, the structure of the magnetic-pole portion is not limited to the above-described embodiments, and various elements capable of applying stimulation to the body portion of the patient, such as an electrode, . ≪ / RTI >

Although not shown in FIGS. 1 and 2, like the first and second stretch sensor portions 110 and 120, the first and second magnetic pole portions also interact with the left and right torso portions, respectively, May be provided.

For example, the first and second magnetic pole portions may be installed in a thoracic band surrounding the chest in a patient's worn face. However, the first and second magnetic pole portions may be provided at positions other than the chest band of one phase, which stimulates the left and right body parts of the patient, respectively.

In addition, the first and second magnetic pole portions do not necessarily have to be provided on the same object as the first and second stretch sensor portions 110 and 120, The portions 110 and 120 may be mounted on the top and the first and second magnetic pole portions may be implemented as separate accessories.

FIG. 3 is an exemplary flow diagram of a method of vertebra diagnostic performed in a patient terminal 200 according to an embodiment of the present invention.

According to an embodiment of the present invention, the patient terminal 200 receives first dilation data representing the left side thoracic contraction amount of the patient and second dilation amount data representing the right side thoracic contraction amount of the patient from the wearable meter 100 (S8010), obtaining the left and right chest stretch amounts based on the first and second stretch data (S8020), if the left chest stretch is smaller than the predetermined reference chest stretch (YES in S8030) (S8040) controlling the first magnetic-pole portion to operate the first magnetic-pole portion and controlling the second magnetic-pole portion such that the second magnetic-pole portion operates so that the right-side chest stretch amount is smaller than the reference chest stretch amount (YES in S8030) (Step S8040). ≪ / RTI >

According to the embodiment of the present invention, the wearer of the wearable measuring instrument 100 recognizes one of the chest portions, which is measured by the stretch sensor portion of the stretch sensor portion due to an abnormal bending of the spinal cord, through stimulation, It can actively move. Thereby, the patient can obtain a therapeutic effect of calibrating the spine by training the deactivated muscles of the corresponding chest.

4 is an exemplary flow diagram of a method of vertebra diagnostic performed in a patient terminal 200 in accordance with another embodiment of the present invention.

According to another embodiment of the present invention, the patient-side terminal 200 receives the first expansion amount data representing the left-side amount of the patient's stretch and the second expansion amount data representing the right-side amount of expansion of the patient from the wearable meter 100 (S9010), obtaining the left and right chest stretch amounts based on the first and second stretch data (S9020), calculating a first difference between the left chest stretch and the right chest stretch (S9030 ), When the calculated first difference is larger than a preset first reference value (YES in S9040) and the left thoracic contraction amount is smaller than the right thoracic contraction amount (left in S9050) (S9060); and when the calculated first difference is larger than the first reference value (YES in S9040), the right chest stretch amount is smaller than the left Is smaller than the thorax sinchukryang (the right side in S9050), the first can perform the spine diagnostic method comprises the step (S9070) of controlling said second magnetic pole portions 2 magnetic pole portion to operate.

According to the embodiment of the present invention, the patient wearing the wearable measuring instrument 100 recognizes the chest with less motion during breathing when the chest asymmetry is severe due to abnormal bending of the spine, The chest can be consciously moved more actively. Thereby, the patient can obtain a therapeutic effect of calibrating the spine by training the deactivated muscles of the corresponding chest.

5 and 6 are exemplary views showing a rear view and a front view of a patient wearing the wearable meter 100 according to another embodiment of the present invention, respectively.

According to another embodiment of the present invention, the wearable meter 100 may further include a third stretch sensor unit 130, a fourth stretch sensor unit 140, and an auxiliary local communication unit 155.

The third stretch sensor unit 130 senses the movement of the left waist of the patient. The fourth stretch sensor unit 140 senses the movement of the right waist of the patient. The auxiliary short-range communication unit 155 transmits the data output from the third and fourth stretch sensor units 130 and 140 to the patient terminal 200.

According to another embodiment of the present invention, the third stretch sensor part 130 is provided at a part where the patient interacts with the left waist part, and the fourth stretch sensor part 140 is provided at the part where the patient wears And may be provided at a portion that interacts with the right waist portion of the article.

For example, the third and fourth stretch sensor units 130 and 140 may be installed in a waist band that surrounds the waist portion of the patient's wearable clothing. As shown in FIGS. 5 and 6, the third and fourth stretch sensor units 130 and 140 may be made of a stretchable material, and may be installed in a waistband portion of an undergarment or a sportswear.

As described above, the third and fourth stretch sensor units 130 and 140 may be integrally formed with the objects worn by the patient, but they are not limited thereto and may be replaceable. For example, the third and fourth stretch sensors 130 and 140 made in a fabric shape can be installed to be replaceable in clothes worn by the patient.

Further, the wearable meter 100 is provided as long as the third and fourth stretch sensor units 130 and 140 are provided at the portions where the left and right waist portions interact with each other to detect movement of the left and right waist portions, respectively A waistband, gears, accessories, and the like.

The third stretch sensor unit 130 may output to the auxiliary short-range communication unit 155 the third stretch amount data indicating the left waist stretch amount due to the movement of the left waist of the patient. The fourth stretch sensor unit 140 may output the fourth stretch amount data indicating the right waist stretch amount due to the movement of the right waist of the patient to the auxiliary second short range communication unit 155.

For example, as the third and fourth stretch sensor units 130 and 140 are extended or contracted, the resistance value of the sensor may be changed to output an electrical signal corresponding to the changed resistance value. Here, the left waist stretch amount of the patient may be a deformed resistance value of the third stretch sensor part 130, and the right waist stretch amount of the patient may be a deformed resistance value of the fourth stretch sensor part 140. [ However, depending on the types of the third and fourth stretch sensor units 130 and 140, the left and right waist extensions may be represented by physical quantities other than the resistance value of the sensor.

The auxiliary local communication unit 155 exchanges data with the patient terminal 200 through local communication. For example, the auxiliary local area communication unit 155 may transmit and receive data with the patient terminal 200 in a Bluetooth manner. However, the local area communication protocol used for exchanging data between the auxiliary local communication unit 155 and the patient terminal 200 is not limited to Bluetooth.

The patient terminal 200 may acquire the left waist portion stretch amount based on the third stretch amount data and obtain the right waist portion stretch amount based on the fourth stretch amount data.

FIG. 7 is an exemplary flow diagram of a method of vertebra diagnostic performed in a patient terminal 200 in accordance with another embodiment of the present invention.

According to another embodiment of the present invention, the patient side terminal 200 receives third dilation amount data indicating the left side waist portion stretch amount of the patient and fourth dilation amount data indicating the right side waist portion stretch amount of the patient from the wearable meter 100 (S10010); obtaining the left and right waist extensions according to the third and fourth amounts of expansion data (S10020); calculating a second difference between the left waist portion stretch amount and the right waist portion stretch amount When the calculated second difference is larger than a predetermined second reference value (YES in S10040) and the left waist elasticity is smaller than the right waist elasticity (left in S10050), the first stimulus (S10060) controlling the first magnetic-pole portion so that the second magnetic-field-addition portion performs an additional operation, and when the calculated second difference is larger than the second reference value (YES in S10040) Sinchukryang can execute the spine diagnostic method comprising the step (S10070) for controlling the second magnetic-pole portions to (on the right in S10050), the second magnetic pole portion motion smaller than the left waist portion sinchukryang.

According to the embodiment of the present invention, the wearer of the wearable measuring instrument 100 recognizes the waist portion with less motion when the asymmetry of the waist portion is severe due to the abnormal bending of the spine, The wealth can move consciously more actively. Thereby, the patient can obtain the therapeutic effect of calibrating the spine by training the inactive muscles of the corresponding waist portion.

FIG. 8 is an exemplary flow diagram of a method of vertebra diagnostic performed in a patient terminal 200 in accordance with another embodiment of the present invention.

According to another embodiment of the present invention, the patient-side terminal 200 receives the first expansion amount data representing the left-side amount of the patient's stretch and the second expansion amount data representing the right-side amount of expansion of the patient from the wearable meter 100 (Step S11010), obtaining the left and right chest stretch amounts based on the first and second stretch amount data (S11020), calculating third stretch amount data indicating the left waist stretch amount of the patient from the wearability meter 100 (S11030) receiving fourth expansion / contraction amount data representing the left and right waist expansion / contraction amounts of the patient and the fourth expansion / contraction amount data representing the right and left waist expansion / contraction amounts of the patient, Calculating a third difference between the chest elasticity and the left waist elasticity (S11050), calculating the calculated third difference (S11070) controlling the first magnetic-pole portion so that the first magnetic-pole portion is operated (Step S11070), calculating a fourth difference between the right-side chest stretch amount and the right waist-side stretch amount (S11050 ) And controlling the second magnetic-pole portion such that the second magnetic-pole portion operates (S11070) when the calculated fourth difference is out of the reference range (YES in S11060) .

This embodiment differs from the second difference between the left or right chest stretch described above, the first difference between the left chest stretch and the right chest stretch, and the second difference between the left waist stretch and the right waist stretch, Based on the relationship between the movement of the chest and the waist, the third or fourth difference between the amount of stretch of the chest and the corresponding waist expansion, and compare it with the reference range can diagnose the abnormality of the spine.

According to the embodiment of the present invention, when wearing the wearable measuring instrument 100, when the motion of the chest and the waist of one body part is out of the normal range due to abnormal bending of the spine, the body part is stimulated By recognizing, the thorax or waist of the body part can consciously move more actively. Thereby, the patient can obtain the therapeutic effect of calibrating the spine by training the inactive muscles of the thorax and the waist of the body part.

In an embodiment of the present invention, the spinal diagnostic method may be implemented as an application stored on a medium for execution in a mobile terminal. A computer readable medium includes any type of storage device that stores data that can be read by a computer system. Examples of the computer-readable recording medium include ROM, RAM, CD-ROM, magnetic tape, floppy disk, optical data storage, and the like.

While the present invention has been described with reference to the exemplary embodiments, it is to be understood that the invention is not limited to the disclosed exemplary embodiments. Those skilled in the art will appreciate that various modifications may be made to the embodiments described above. The scope of the present invention is defined only by the interpretation of the appended claims.

100: wearable meter
110: first stretch sensor section
120: second stretch sensor section
130: Third stretch sensor section
140: fourth stretch sensor section
150: first short distance communication section
155: auxiliary local communication section
200: patient terminal

Claims (18)

A first stretch sensor part for sensing a movement of the left trunk of the patient;
A second stretch sensor part for sensing a movement of the right body part of the patient; And
And a first short range communication unit for transmitting the data output from the first and second stretch sensor units to the patient side terminal. The method according to claim 1,
The first stretch sensor unit includes:
The body being provided on a part to be worn by the patient and interacting with the left trunk,
The second stretch sensor unit includes:
The wearable measuring device according to claim 1, wherein the wearer is a wearer. The method of claim 2,
Wherein the first and second stretch sensor portions comprise:
A wearable measuring instrument installed on a thoracic band surrounding a chest in a patient's worn top. The method of claim 3,
The first stretch sensor unit includes:
To the first short range communication unit, first expansion data representing the left and right chest stretch due to the movement of the left chest of the patient,
The second stretch sensor unit includes:
To the first short range communication unit, second expansion data representing the right side chest stretch due to the movement of the right chest of the patient. The method of claim 4,
The patient terminal comprises:
Acquiring the left chest stretch based on the first stretch amount data,
And acquires the right chest stretch based on the second stretch amount data. The method of claim 5,
The wearable meter comprises:
A first magnetic pole part for applying a magnetic field to a left body part of a patient; And
And a second magnetic-field portion for applying a magnetic field to the right-side body portion of the patient,
The patient terminal comprises:
Controlling the first magnetic-pole portion to operate the first magnetic-pole portion when the left-side chest elasticity is smaller than a predetermined reference chest stretch amount,
And controls the second magnetic-pole portion such that the second magnetic-pole portion operates when the right-side chest elasticity is smaller than the reference chest stretch amount. The method of claim 5,
The wearable meter comprises:
A first magnetic pole part for applying a magnetic field to a left body part of a patient; And
And a second magnetic-field portion for applying a magnetic field to the right-side body portion of the patient,
The patient terminal comprises:
Calculating a first difference between the left chest stretch amount and the right chest stretch amount,
And controls the first magnetic-pole portion to operate the first magnetic-pole portion when the calculated first difference is larger than a predetermined first reference value and the left-side chest elasticity is smaller than the right-
And controls the second magnetic-pole portion such that the second magnetic-pole portion operates when the calculated first difference is larger than the first reference value and the right-side chest elasticity is smaller than the left chest stretch. The method of claim 5,
A third stretch sensor unit for detecting movement of the left waist of the patient;
A fourth stretch sensor unit for sensing movement of the right waist of the patient; And
And an auxiliary local communication unit for transmitting data output from the third and fourth stretch sensor units to the patient terminal. The method of claim 8,
The third stretch sensor unit includes:
And is provided in a region where the patient interacts with the left waist in the article to be worn,
The fourth stretch sensor unit includes:
A wearable measuring device provided on a part of a patient's body to interact with the right side of the waist. The method of claim 9,
Wherein the third and fourth stretch sensor portions comprise:
A wearable meter mounted on a waist band surrounding a waist in a wearable patient. The method of claim 10,
The third stretch sensor unit includes:
To the auxiliary short-range communication unit, third dilation data indicating the left-waist stretch amount by the movement of the left waist of the patient,
The fourth stretch sensor unit includes:
To the auxiliary short-range communication unit, fourth expansion amount data representing the right waist expansion amount due to the movement of the right side waist of the patient. The method of claim 11,
The patient terminal comprises:
Acquiring the left waist portion stretch amount based on the third stretch amount data,
And acquires the right waist portion stretch amount based on the fourth stretch amount data. The method of claim 12,
The wearable meter comprises:
A first magnetic pole part for applying a magnetic field to a left body part of a patient; And
And a second magnetic-field portion for applying a magnetic field to the right-side body portion of the patient,
The patient terminal comprises:
A second difference between the left waist elasticity and the right waist elasticity is calculated,
Controls the first magnetic-pole portion so that the first magnetic-pole portion operates when the calculated second difference is larger than a predetermined second reference value and the left waist elasticity is smaller than the right waist elasticity,
And controls the second magnetic-pole portion to operate the second magnetic-pole portion when the calculated second differential is larger than the second reference value and the right waist elasticity is smaller than the left waist elasticity. The method of claim 12,
The wearable meter comprises:
A first magnetic pole part for applying a magnetic field to a left body part of a patient; And
And a second magnetic-field portion for applying a magnetic field to the right-side body portion of the patient,
The patient terminal comprises:
Calculating a third difference between the left chest stretch amount and the left waist stretch amount,
And controls the first magnetic-pole portion to operate the first magnetic-pole portion when the calculated third difference is out of a preset reference range,
A fourth difference between the right chest stretch amount and the right waist stretch amount is calculated,
And controls the second magnetic-pole portion to operate the second magnetic-pole portion when the calculated fourth difference is out of the reference range. The method comprising: receiving first extensibility data representative of a left thoracic contraction amount of a patient and second extensibility data indicative of a right thoracic contraction amount of a patient from the wearability meter according to claim 1;
Obtaining the left and right chest stretch amounts based on the first and second stretch amount data, respectively;
Controlling the first magnetic-pole portion so that the first magnetic-pole portion that applies a magnetic field to the left part of the body of the patient is operated by the wearability measuring device when the left thoracic contraction amount is smaller than a preset reference chest stretch amount; And
And controlling the second stimulation unit so that the second stimulation unit that applies a stimulus to the right body part of the patient is operated in the wearability measuring apparatus when the right thorax extension and contraction amount is smaller than the reference thoracic contraction amount, Applications stored on media to run. 16. The method of claim 15,
The spinal diagnostic method comprises:
Calculating a first difference between the left thoracic contraction amount and the right thoracic contraction amount;
Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated first difference is larger than a predetermined first reference value and the left chest elasticity is smaller than the right chest stretch amount; And
And controlling the second magnetic-pole portion such that the second magnetic-pole portion operates when the calculated first difference is larger than the first reference value and the right-side chest elasticity is smaller than the left chest stretch. 16. The method of claim 15,
The spinal diagnostic method comprises:
Receiving from the wearability meter a third stretch amount data representing a left waist stretch amount of the patient and fourth stretch amount data representing a right waist stretch amount of the patient;
Acquiring the left and right waist stretch amounts based on the third and fourth stretch amount data;
Calculating a second difference between the left waist elasticity and the right waist elasticity;
Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated second difference is larger than a predetermined second reference value and the left waist portion stretch amount is smaller than the right waist stretch amount; And
And controlling the second magnetic-pole portion such that the second magnetic-pole portion operates when the calculated second difference is larger than the second reference value and the right waist elasticity is smaller than the left waist elasticity. 18. The method of claim 17,
The spinal diagnostic method comprises:
Calculating a third difference between the left thoracic contraction amount and the left waist contraction amount;
Controlling the first magnetic-pole portion such that the first magnetic-pole portion operates when the calculated third difference is out of a preset reference range;
Calculating a fourth difference between the right thoracic contraction amount and the right waist contraction amount; And
And controlling the second magnetic-pole portion such that the second magnetic-pole portion operates when the calculated fourth difference is out of the reference range.

Images