KR101835485B1 - Potable bad breath kit - Google Patents

Abstract

A portable kit for detecting bad breath is disclosed. The disclosed portable kit for detecting bad breath comprises: a base formed with a flow path through which the exhalation can flow; a base cover covering the open side of the base so that the breath in the base is isolated from the outside; a flow unit formed into a curved flow path so that the exhalation flowing into the base can be bent; and a bad breath measuring unit capable of measuring the bad breath of the exhalation. The disclosed portable kit for detecting bad breath can be manufactured with a small size to be portable, and can measure the bad breath even with a small amount of exhalation to measure the bad breath and perform more accurate measurement.

Description

[0001] The present invention relates to a portable bad breath detection kit,

The present invention relates to a portable bad breath detection kit.

Bad breath is a bad smell from the mouth, the food residue left in the mouth after eating is deformed and leads to bad breath, or it is caused by diseases such as dry mouth, tooth decay, or periodontitis, and the stomach is not good. Occasionally occurs when the gas comes up, or if you do not brush your teeth properly or do not manage your mouth properly.

 These bad breaths do not feel as good as their bad breath, as the smell is numb and they do not know their own body odor. However, such a bad breath can be felt by the person who is having conversation, and it can cause discomfort to the other person.

Also, if bad breath is caused by someone with a disease like diabetes or rhinitis, it can be dangerous if left unattended for a long time because another disease may have occurred or a signal that the original disease has become worse.

For these reasons, you should periodically measure halitosis to see if your body is in good condition and your oral care is well done.

  Various measures have been made to measure the bad breath by breathing in breath to measure such bad breath, and the device has become smaller and smaller.

Examples of such breath analyzer are the patent documents listed below.

However, according to the conventional breath analyzer including the patent documents listed below, it is impossible to measure bad breath with a small amount of breath, so that a large amount of expiration is required, or if the breath is blown too soon, The measurement was not made and the flow path was too wide, so that when a large amount of expired air was generated, moisture was generated in proportion thereto, and this moisture interfered with the measurement of bad breath.

Also, as the breath was injected into the breathalyzer, the breathalyzer became bulky and bulky, which was not good for cosmetic appearance.

Registration No. 10-1650760, Date of Registration: Aug. 18, 201. Title of the invention: Registered Patent No. 10-1121525, Date of Registration: Jan. 29, 2012. Title of the Invention: Open Patent No. 10-2010-0054560, Registered on May 25, 2010. Title of invention:

It is an object of the present invention to provide a portable bad breath sensing kit which can be manufactured in a small size, has high portability and can measure bad breath even with a small amount of breath, but can perform more accurate measurement.

According to an aspect of the present invention, there is provided a portable bad breath sensing kit comprising: a base having a channel through which a breathing apparatus can flow; A base cover covering the open side of the base so that the breath in the base is isolated from the outside; A flow unit formed into a curved flow path so that the aerosol flowing into the base can be bent; And a halitosis measuring unit capable of measuring halitosis of the exhalation unit, wherein the flow unit includes: a primary flow conduit in which the bad breath in the exhalation unit is firstly measured when the exhalation is introduced into the base; And a third flow tube in which the aerosol passing through the second flow tube is measured in a third order, each of the flow tubes forming a flow path formed along a triangular edge, and the first flow tube A first rectilinear section formed to allow the aerosol introduced into the base to flow to one side, a second rectilinear section configured such that the aerosol introduced into the base flows to the other side, and a second rectilinear section A first bending part capable of bending the flow direction of the exhalation machine such that the exhalation machine flows toward the flow tube; A first inclined portion formed to flow toward the secondary flow conduit from the first bent portion, and a second inclined portion formed in the second bent portion, And a primary injection unit configured to allow the aerosol to flow into the secondary flow pipe, the primary inclination unit and the secondary inclined unit being configured to flow into the secondary flow pipe, Wherein the first rectilinear section and the second rectilinear section are located at a lower side of the primary flow tube and the primary ramp section and the secondary ramp section are located at the hypotenuse of the primary flow tube, And the primary flow tube, the secondary flow tube, and the tertiary flow tube have the same shape.

According to an aspect of the present invention, there is provided a portable bad breath detection kit comprising: a base having a flow path through which an exhalation can flow; A base cover covering the open side of the base so that the breath in the base is isolated from the outside; A flow unit formed into a curved flow path so that the aerosol flowing into the base can be bent; And a halitosis measuring unit capable of measuring halitosis of the exhalation unit. Therefore, it is possible to manufacture a small size portable ophthalmologic apparatus capable of measuring bad breath even with a small amount of exhalation, and more accurate measurement can be performed.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a sectional view showing a flow path formed in a base of a portable bad breath sensing kit according to a first embodiment of the present invention; FIG.
2 is a sectional view showing a structure of a portable bad breath sensing kit according to a first embodiment of the present invention;
FIG. 3 is a perspective view of the portable bad breath sensing kit according to the first embodiment of the present invention, viewed from an oblique view. FIG.
4 is a view showing a state where a breath is injected into a passage formed in a base of the portable bad breath sensing kit according to the first embodiment of the present invention;
5 is a cross-sectional view showing a flow path formed in the base of the portable bad breath sensing kit according to the second embodiment of the present invention.
6 is a sectional view showing the structure of a portable bad breath sensing kit according to a second embodiment of the present invention.
FIG. 7 is a perspective view of a portable bad breath sensing kit according to a second embodiment of the present invention, viewed from an oblique view. FIG.
8 is a view showing a state where a breath is injected into a passage formed in the base of the portable bad breath sensing kit according to the second embodiment of the present invention.
9 is a view showing a state where a breath is injected into a passage formed in the base of the portable bad breath sensing kit according to the third embodiment of the present invention.

Hereinafter, a portable bad breath sensing kit according to embodiments of the present invention will be described with reference to the drawings.

FIG. 1 is a cross-sectional view illustrating a flow path formed in a base of a portable bad breath sensing kit according to a first embodiment of the present invention, FIG. 2 is a sectional view showing the structure of a portable bad breath sensing kit according to a first embodiment of the present invention, 3 is a perspective view of the portable bad breath sensing kit according to the first embodiment of the present invention viewed from an obliquely downward direction, FIG. 4 is a view showing a state where a breathing cavity is injected into a channel formed in the base of the portable bad breath sensing kit according to the first embodiment of the present invention Is a visible view.

1 to 4 together, the portable bad breath detection kit 100 according to the present embodiment includes a base 110, a base cover 120, a fluid portion 190, and a bad breath measurement portion 130 .

The portable bad breath detection kit 100 may further include a breath input port 140.

The base 110 is formed in a size such that it can be carried by carrying it in a bag or bag.

The base cover 120 covers an open surface of the base 110 so that the aerosol 10 in the base 110 is isolated from the outside and the flow path formed in the base 110 can be sealed .

The flow unit 190 is formed in a curved flow path so that the air unit 10 flowing into the base 110 can bend and flow. In the present embodiment, the flow unit 190 includes a primary flow pipe 150, (160), and a tertiary flow tube (170).

In the present embodiment, the number of the flow tubes 150, 160, and 170 is limited to three, but may be one or more different tubes.

The first flow pipe (150) is a flow pipe through which the breathing of the breathing apparatus (10) introduced into the base (110) is firstly measured, and the bad breath measuring unit (130) is formed on the bottom face.

The second flow pipe 160 is a flow pipe through which the oxic tank 10 passes through the primary flow pipe 150 and is measured at the second surface. The bad breath measurement unit 130 is formed on the bottom surface of the flow pipe.

The tertiary flow pipe 170 is a flow pipe through which the exhalation unit 10 passed through the secondary flow pipe 160 is measured in a third order, and the bad breath measurement unit 130 is formed on the bottom surface thereof.

Each of the flow tubes 150, 160, and 170 forms a flow path formed along the corners of the triangle.

Since each of the flow tubes 150, 160, and 170 is formed of a curved flow path as described above, the flow of the air in the primary flow tube 150 along the flow path having a curved shape, And flows toward the third flow tube 170.

Reference numeral 180 denotes an exhalation storage unit for providing a free space for storing the exhalation machine 10 sequentially passing through the primary flow tube 150, the secondary flow tube 160 and the tertiary flow tube 170 .

Since the breath holding unit 180 can store the breathing apparatus 10 remaining after the bad breath is measured in the flow tubes 150, 160 and 170 and the breath holding unit 180 is formed, So that the blowing unit 10 in which the blowing unit 110 is introduced does not swell much.

The primary flow tube 150 includes a primary rectilinear section 153, a secondary rectilinear section 155, a primary bend section 151, a secondary bend section 157, a primary inclined section 152, A secondary slope portion 156, and a primary injection portion 154. The primary inclination portion 156 and the primary inclination portion 154 are formed integrally.

The first rectilinear section 153 and the second rectilinear section 155 are located at the lower side of the primary flow tube 150 and the first rectilinear section 153 and the second rectilinear section 155 are located at the lower side of the primary flow tube 150, The car slope portion 152 and the secondary slope portion 156 are located at the hypotenuse of the primary flow tube 150. [

The first rectilinear section 153 is a part formed to flow into the one end of the circulation unit 10 introduced into the base 110.

In the present embodiment, the direction of the first bending portion 151 is designated as one direction around the primary injection portion 154 shown in FIG.

The second rectilinear section 155 is a part formed to flow into the other side of the circulation unit 10 introduced into the base 110.

In the present embodiment, the direction of the second bend section 157 is designated as the other direction around the primary injection section 154 shown in FIG.

4, when the apparatus 10 is introduced into the primary flow tube 150, the primary rectilinear section 153 and the secondary rectilinear section 155 are connected to the apparatus 10, (10) can be divided and flowed.

The primary bending portion 151 is a portion where the direction of the flow of the exhalation machine 10 can be changed so that the exhalation machine 10 flows from the primary rectilinear portion 153 toward the secondary flow tube 160, It is possible to change the traveling direction of the expiration unit 10 as well as to allow the breathing unit 10 to stay in the first bending unit 151, The bad breath of the exhalation unit 10 can be measured more accurately.

The secondary bent portion 157 is a portion where the flow direction of the oxic room 10 can be bent so that the oxic room 10 flows from the second rectilinear portion 155 toward the secondary flow pipe 160, Not only can the traveling direction of the breathing apparatus 10 be changed but also the breathing apparatus 10 can stay in the second bending section 157 and the breathing section 130 The bad breath of the exhalation unit 10 can be measured more accurately.

The primary inclined portion 152 is a portion formed to flow the exhalation machine 10, which has flowed in the primary bent portion 151, toward the secondary flow tube 160.

The secondary inclined portion 156 is a portion formed such that the aerosol 10 flowing in the secondary bent portion 157 flows toward the secondary flow tube 160.

The primary injection unit 154 is connected to the primary inclined part 152 and the secondary inclined part 156 so that the exhalation unit 10 flows into the secondary flow tube 160, And is connected to the secondary flow tube (160).

4, the bending machine 10, which is bent at the first bending portion 151 and the second bending portion 157, is inclined at a predetermined angle with respect to the first inclined portion 152 and the second inclined portion 152, And passes through the inclined portion 156 to be merged at the primary injection portion 154 and flows into the secondary flow pipe 160.

Although only the primary flow tube 150 is described in the present embodiment, it is needless to say that the secondary flow tube 160 and the tertiary flow tube 170 are formed in the same manner as the primary flow tube 150.

In the conventional device capable of detecting bad breath, since the breathing apparatus 10 flows in a straight line direction and passes the breathing measuring unit 130 quickly, the bad breath measurement is not properly performed. For this reason, a large amount of breathing apparatuses 10 There is a problem that the bad breath measurement is not performed due to moisture in the bad breath measuring unit 130 due to the generation of moisture due to a large amount of expiration unit 10 or the like.

However, since each of the flow tubes 150, 160, and 170 is formed of an isosceles triangular pipe as described above, the air can flow while widening the surface area of the breathing unit 10 contacting the bad breath measurement unit 130, So that it is possible to measure the bad breath with a small amount of the breathing apparatus (10), so that it is possible to measure the breathing noise more accurately since moisture is not accumulated in the portable bad breath sensing kit (100).

In addition, the portable bad breath detection kit 100 is not swollen with respect to the conventional one, so that the breathable feeling detection kit 100 can be viewed in a cosmetic manner.

Also, since the flow path of the breathing apparatus 10 can be expanded without the flow path of the flow section 190 being straight, the length of the portable breathing detection kit 100 is shortened compared with the conventional one It can be manufactured in small size.

As described above, since the portability of the portable bad breath sensing kit 100 is reduced while the amount of exhalation to be blown is reduced, it is advantageous in that it is very convenient to use in comparison with the conventional one.

The bad breath measuring unit 130 is capable of measuring bad breath of the breathing apparatus 10 and is smoothly formed at the same height as the bottom surface of the moving unit 190.

The malodor measuring unit 130 is applied on the bottom surface of the moving unit 190 so as not to be disturbed by the flow path.

The bad breath measuring unit 130 may further include a UV curing operation for polymerizing or crosslinking ultraviolet rays to fix the ultraviolet rays firmly inside the kit body.

In detail, the bad breath measuring unit 130 is filled with a negative or positive angle in the bottom surface of the moving unit 190 and is subjected to a UV curing operation so that the bad breath measuring unit 130 is uniformly And is not disturbed when the blower 10 flows into the respective flow tubes 150, 160, and 170, and can maintain this shape.

The halitosis measuring unit 130 may be formed of a substance which reacts with the halitosis inducing component contained in the oxic tank 10 to be discolored. For example, the halohydrate measuring unit 130 may be a substance that is discolored by reacting with a sulfur compound or an amine compound ≪ / RTI >

) 화합물의 혼합물로 구성된 것으로, 상기 미힐러 히드롤과 유사한 다른 화학 구조를 갖는 관련 염료로 형성될 수 있음은 물론이다.In this embodiment, when the bad breath measuring unit 130 measures the bad breath in the breathing apparatus 10,

) Compound, and may be formed of an associated dye having a different chemical structure similar to that of the above-described Michler's hydrol.

For example, if the bad breath measuring unit 130 is composed of a mixture of the edible red No. 40 dye and the Michler's hydrol compound, it is preferable to change the color from red to violet before the reaction with the bad breath inducing component in the ox unit 10 It may be discolored.

In addition, if the bad breath is formed as described above, the bad breath measuring unit 130 may function as an indicator for discoloration as the bad breath becomes stronger.

Meanwhile, the bad breath measuring unit 130 may make the base 110 transparent or opaque to easily check whether it is discolored or not, so that the user can easily identify the color of the bad breath measuring unit 130 Can be produced.

In order to measure the bad breath in the apparatus 10 in the state as described above, first, a certain amount or more of the apparatus 10 is blown into the base 110.

Then, for example, if the color of the lower part of the flow tubes (150, 160, 170) is discolored to one or less than one of the bad breath measuring parts 130, then the bad breath is weak and the two or more bad breath measuring parts It is determined that the bad breath is moderate and the bad breath is strong if the three or more bad breath measuring part 130 is discolored.

In addition, for example, in accordance with the discoloration of the bad breath measurement unit 130 on the bottom surface of each of the flow tubes 150, 160, and 170 relatively far from the breath input port 140 to be described later, And the degree to which it is far away.

The expiration port 140 can blow the expiration unit 10 into the base 110 and prevent the expiration of the expiration unit 10 in the base 110. The expiration opening 140 has a slot body 141, (143), and a tiltable member (142).

The swinging member 142 is fixed to the upper end of the charging port body 141 and the lid member 142 is fixed to the upper end of the charging port 141. [ The cover member 143 rotatably fixes the cover member 143 at the upper end of the cover member 143 so that the cover member 143 is opened in the direction of the primary flow pipe 150 or comes back into place, And is formed to be opened in the direction of the primary flow pipe (150).

A gravity weight (not shown) for applying gravity to the lid member 143 so as to prevent the lid member 143 from being opened in the direction of the primary flow pipe 150 when the lid member 143 has a certain external force or less is provided at the end of the lid member 143 It is built-in.

The lid member 143 is opened to the side of the primary flow pipe 150 so that the ventilator 10 can be opened to the primary flow pipe 150, Respectively.

The lid member 143 covers the open portion of the charging port body 141 so that the opening portion of the charging port 141 is opened from the outside of the charging port body 141. [ Lt; / RTI >

When the air unit 10 is blown into the air flow unit 190, the air flow unit 10 is prevented from flowing into the flow unit 190, You can stay.

Hereinafter, a method for measuring halitosis of the breathing apparatus 10 by the portable bad breath detection kit 100 will be briefly described.

First, the portable bad breath detection kit 100 is prepared.

Then, the unit 10 is blown into the breath input port 140 of the portable bad breath detection kit 100.

As described above, when the exhalation machine 10 is blown over the exhalation inlet 140 by a predetermined amount, the exhalation machine 10 flows into the flow tubes 150, 160, and 170, The bad breath is measured while the bad breath inducing component contacts the bad breath measuring unit 130 formed on the bottom of each of the flow tubes 150, 160, and 170.

As shown in FIG. 4, since the bad breath is measured while passing through the flow passage formed by the bent portion 190 of the breathing apparatus 10, the flow portion 190 senses bad breath The surface area that can be made is widened, and the accuracy is improved in bad breath measurement.

Hereinafter, a portable bad breath detection kit according to another embodiment of the present invention will be described with reference to the drawings. In carrying out these explanations, the description overlapping with the content already described in the first embodiment of the present invention described above will be omitted and omitted here.

FIG. 5 is a sectional view showing a flow path formed in the base of the portable bad breath sensing kit according to the second embodiment of the present invention, FIG. 6 is a sectional view showing the structure of the portable bad breath sensing kit according to the second embodiment of the present invention, 7 is a perspective view of a portable bad breath sensing kit according to a second embodiment of the present invention, and FIG. 8 is a view illustrating a state where a breathing instrument is inserted into a channel formed in the base of the portable bad breath sensing kit according to the second embodiment of the present invention Is a visible view.

5 through 8, the portable bad breath sensing kit 200 according to the present embodiment includes a base 210, a base cover 220, a fluid 290, and a bad breath measurement unit 230 .

The portable bad breath detection kit 200 may further include a breath input port 240.

The flow unit 290 according to this embodiment includes a first flow pipe 250, a second flow pipe 260 and a third flow pipe 270, and as shown in FIG. 5, the first flow pipe 250 The secondary flow tube 260 and the tertiary flow tube 270 are formed along corners of the ellipse.

The first flow tube 250 is an elliptic tube formed so that the air flow 10 flowing into the base 210 is firstly measured and the bad breath measurement unit 230 is formed on the bottom surface thereof.

The secondary flow pipe 260 is an elliptic pipe through which the aerosol 10 passing through the primary flow pipe 250 is secondarily measured and the bad breath measurement unit 230 is formed on the bottom surface thereof.

The tertiary flow tube 270 is an elliptic tube in which the exhalation unit 10 passing through the secondary flow tube 260 is measured in a third order and the bad breath measurement unit 230 is formed on the bottom surface thereof.

Reference numeral 180 denotes an exhalation storage unit for providing a free space for storing the exhalation machine 10 sequentially passing through the primary flow tube 250, the secondary flow tube 260 and the tertiary flow tube 270 .

The breath holding part 280 is not provided with the bad breath measuring part 230.

As described above, even when the flow path of each flow pipe 250, 260, and 270 through which the exhalation unit 10 flows is not long as a straight line and the volume is very small, it is possible to measure bad breath of the exhalation unit 10, The malodor detection kit 200 can be made as a thin plate structure as compared with the conventional one.

Also, the portable breathing detection kit 200 has a small amount of exhalation to be blown, and is highly portable and highly convenient to use.

As shown in FIG. 8, the breathing apparatus 10 sequentially flows into the flow tubes 250, 260, and 270, and thereby, each of the breathing measurement units (not shown) formed at the lower ends of the flow tubes 250, 230, and 230, the distance between the breathing apparatus 10 and the breathing apparatus 10 can be measured in a sequential manner so that the breathing distance of the breathing apparatus 10 can be measured at the same time as the breathing apparatus 10 flows into the flow tubes 250, 260, Accuracy improves.

9 is a view showing a state where a breath is injected into a passage formed in the base of the portable bad breath sensing kit according to the third embodiment of the present invention.

9, the primary flow pipe 350 according to the present embodiment includes a primary rectilinear section 353, a secondary rectilinear section 355, a primary reverse section 351, a secondary reverse section 357 , A primary re-transfer unit 352, a secondary re-transfer unit 356, and a primary injection unit 354.

The primary rectilinear section 353 is a portion formed to allow the aerosol 10 flowing into the base 310 to flow to one side.

The second rectilinear portion 355 is a portion formed in the base 310 to flow into the other side.

9, when the apparatus 10 is introduced into the primary flow tube 350, the first and second rectilinear sections 353 and 355 are connected to the first and second rectilinear sections 353 and 355, respectively, (10) can be divided and flowed.

The primary reverse portion 351 is a portion that is reversed with respect to a direction in which the unit 10 is injected into the base 310 and can change the traveling direction of the unit 10, The breathing apparatus 10 can stay in the first reverse direction unit 351 and the halitosis measuring unit formed on the bottom surface of the first reverse direction unit 351 can more accurately measure bad breath of the breathing apparatus 10.

The secondary reverse portion 357 is a portion which is reversed with respect to a direction in which the unit 10 is injected into the base 310 and can change the traveling direction of the unit 10, The breathing apparatus 10 can stay in the secondary reverse direction unit 357 and the halitosis measuring unit formed on the bottom surface of the secondary reverse direction unit 357 can more accurately measure bad breath of the breathing apparatus 10 .

The primary re-circulation unit 352 is configured such that the forward unit 10 traveling in the reverse direction due to the primary reverse unit 351 is moved toward the primary injection unit 354 again, Into a traveling direction such as a direction in which the machine 10 is injected.

The secondary re-circulation unit 356 is connected to the primary injection unit 354 so that the exhalation unit 10 traveling in the reverse direction due to the secondary reverse unit 357 is advanced toward the primary injection unit 354, To the advancing direction such as the direction in which the expiration unit 10 is injected.

Although only the primary flow tube 350 is described in the present embodiment, it is needless to say that the secondary flow tube 360 and the tertiary flow tube 370 are formed in the same manner as the primary flow tube 350.

If the primary reverse portion 351 and the secondary reverse portion 357 are formed as described above, the CPU 10, which is introduced into the base 310, The flow direction of the refrigerant is reversed in the car reverse direction part 357 and can stay in the first reverse direction part 351 and the second reverse direction part 357 for a predetermined time, So that it is possible to accurately measure bad breath of the breathing apparatus 10 in the primary flow pipe 350.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it will be understood by those of ordinary skill in the art that various changes in form and detail may be made therein without departing from the spirit and scope of the invention as defined by the following claims And can be changed. However, it is intended that the present invention covers the modifications and variations of this invention provided they come within the scope of the appended claims and their equivalents.

According to one aspect of the present invention, the portable bad breath detection kit can be manufactured in a small size, so that portability is high and bad breath can be measured even with a small amount of breath, but more accurate measurement can be performed, would.

100: Portable Bad Breath Detection Kit
110: Base
120: Base cover
130: Bad breath measurement part
140: Exhalation inlet
150: primary flow tube
160: Secondary flow tube
170: Third flow tube
180:
190:

Claims (6)

A base on which a flow path through which the exhalation flows can be formed;
A base cover covering the open side of the base so that the breath in the base is isolated from the outside;
A flow unit formed into a curved flow path so that the aerosol flowing into the base can be bent; And
And a halitosis measuring unit capable of measuring halitosis of the patient,
The flow portion
A first flow pipe in which the breath in the unit is firstly measured when the breath enters the base, a second flow pipe in which the breath group is measured in the second pass through the first flow pipe, and a third flow pipe, Including a measured third flow tube,
Each of the flow tubes
A flow path having a shape formed along a triangular edge is formed,
The primary flow tube
A first rectilinear section configured to allow the aerosol introduced into the base to flow to one side,
A second rectilinear section configured to allow the aerosol introduced into the base to flow to the other side,
A first bending part capable of bending the flow direction of the exhalation machine so that the exhalation machine flows from the first rectilinear part toward the secondary flow tube,
A second bending portion capable of bending the flow direction of the exhalation unit such that the exhalation unit flows from the second rectilinear portion toward the secondary flow tube,
A primary inclined portion formed to flow the exhalation unit, which has flowed in the primary bent portion, toward the secondary flow tube,
A secondary inclined portion formed in the secondary bent portion so as to flow toward the secondary flow tube,
And a primary injection unit configured to flow the exhalation unit flowing in the primary slope unit and the secondary slope unit to the secondary flow pipe,
Wherein the first rectilinear section and the second rectilinear section are located at a lower side of the primary flow tube and the primary ramp section and the secondary ramp section are located at the hypotenuse of the primary flow tube,
Wherein the first flow tube, the second flow tube, and the third flow tube have the same shape. delete delete The method according to claim 1,
The bad breath measuring unit
A mixture of an edible red No. 40 dye and a Michler's hydrol compound smoothly formed at the same height as the bottom of the flow portion and capable of being discolored when the bad breath in the exhalation is measured, Wherein the breathing detection kit comprises: The method according to claim 1,
The portable bad breath detection kit
And a breath input port for blowing the breath to the base and preventing the breath from escaping from the base. delete

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