KR200170796Y1 - A portable inhaler of snivel - Google Patents

Abstract

It is portable, driven by a motor, and generates a vacuum to inhale a runny nose so that the runny nose can be stored in a runny nose through a runny nose guide member. Can get rid of a runny nose.

Such a runny nose inhaler is easy to use and safe to use with one hand.

Description

A portable inhaler of snivel

The present invention relates to a runny nose inhaler, and more particularly to a home electric runny nose inhaler that can easily remove and carry the runny nose of an infant, child or patient at home.

At home, infants and children are often unable to release their runny noses themselves. Therefore, using a device to inhale a runny nose to remove the runny nose of infants and children. At this time, the devices used to inhale the runny nose are generally operated manually, and when using such a device, it is designed to be used with both hands.

Therefore, when using these devices to remove the runny nose of the infant or children, the infant or children are moving, because the operation of the device with both hands is inconvenient in use.

The present invention is intended to solve such a conventional problem, the purpose of the present invention is to carry a runny nose with one hand to facilitate the use of the device to promote the convenience of use, by driving the runny nose inhaler by electric and efficient It is to provide a runny nose inhaler that can be used safely and configured to maintain a constant vacuum.

In order to achieve the object of the present invention,

A case in which a storage space is formed;

A drive source disposed in the case and driven by a battery;

Power transmission means for converting the rotational motion of the drive source into a straight motion;

Vacuum generating means connected to the power transmission means for generating a vacuum;

It is coupled to the vacuum generating means, and discharges the air in the vacuum generating means or sucks the air in the runny nose and at least one intake, exhaust valve assembly;

An air circulation conduit coupled to the intake and exhaust valve assembly;

A runny nose passage connected with the air distribution conduit and storing a runny nose;

A runny nose guide member which is coupled to one side of the runny nose and guides the runny nose so that a runny nose inserted into the nose is introduced into the runny nose bucket;

It provides a portable runny nose inhaler comprising a.

1 is a configuration diagram for showing the main components according to a first embodiment of the present invention,

FIG. 2 is an exploded perspective view showing an exploded view of FIG. 1;

3 is a perspective view of some components illustrating the air access device of the first embodiment,

4 is a perspective view for explaining the air access device of the first embodiment;

5 is a circuit diagram for explaining a circuit device for operating a drive source of the first embodiment;

6 is an operating state diagram for explaining the inhalation state of the runny nose according to the first embodiment of the present invention,

FIG. 7 is a cross-sectional view illustrating an operating state of an air intake unit, which is a main part of FIG. 6;

FIG. 8 is a cross-sectional view for describing an operating state of an air discharge unit, which is a main part of FIG. 6;

9 is a cross-sectional view showing an operating state after the inhalation state of the runny nose according to the first embodiment of the present invention,

10 is a cross-sectional view for explaining an operating state of the air intake unit, which is a main part of FIG. 9;

FIG. 11 is a cross-sectional view for describing an operating state of an air discharge unit, which is a main part of FIG. 9; FIG.

12 is a partial cross-sectional view showing a structure for smoothing the expansion and relaxation of the variable length piston;

13 is a configuration diagram showing the configuration of a runny nose inhaler for explaining the second embodiment of the present invention,

14 is a view for explaining the power transmission structure of FIG. 13 in detail;

15 is a cross-sectional view illustrating a structure of an intake and exhaust valve applied to FIG. 13;

16 is a plan view illustrating an opening and closing member for forming a vacuum in the intake and exhaust valves of FIG. 15;

17 is a side view of FIG. 16;

18 is a configuration diagram showing the configuration of a runny nose inhaler for explaining the third embodiment of the present invention,

19 is an enlarged cross-sectional view showing an enlarged main part of a runny nose inhaler to pause a runny nose inhalation state;

20 is a view showing a structure in which the runny nose guide member is extended from the case.

Hereinafter, with reference to the accompanying drawings, preferred embodiments of the present invention will be described in more detail.

FIG. 1 is a schematic view illustrating a first embodiment according to the present invention, and FIG. 2 is an exploded perspective view illustrating an exploded view of an internal component.

It has a case (1) having a space that can be stored therein, in the case (1) including a battery (3), a motor (5) which is a driving source connected to the battery (3), Power transmission means capable of transmitting the driving force of the motor 5 and vacuum generating means for generating a vacuum by the power transmission means are housed.

And on the outside of the case is an air flow passage (7) connected to the vacuum generating means, a runny nose barrel (9) connected to the air flow passage (7) and a runny nose guide member (11) capable of guiding a runny nose to the runny nose barrel. Is connected.

Moreover, the switch 13 which can drive the motor 5 is arrange | positioned outside the case 1 mentioned above.

In the power transmission means, an eccentric cam 15, which also rotates with the rotation of the motor 5, is engaged with the motor shaft. The eccentric cam 15 has a rotational center coupled with the shaft of the motor 5, and the eccentric shaft 15a is provided in a direction parallel to the motor shaft at a predetermined distance from the rotational center. This eccentric shaft 15a may be formed integrally with the eccentric cam 5 or may be combined with a separate member.

The first power transmission member 17 is coupled to the outer circumference of the eccentric shaft 15a as described above to allow free rotation. The first power transmission member 17 has a predetermined length in a direction perpendicular to the eccentric shaft 15a. And the first power transmission member 17 is formed on the opposite side that is coupled to the eccentric shaft (15a) coupling hole 17a that can be coupled to the second power transmission member 19. The second power transmission member 19 has another coupling hole 19a corresponding to one end thereof so as to be coupled to the coupling hole 17a of the first power transmission member 17. Therefore, the first and second power transmission members 17 and 19 are arranged to overlap the coupling holes 17a and 19a, respectively, and then the coupling is performed by the connecting pin 21. As such, the power transmission means connected to the motor 5 allows the rotational driving force of the motor 5 to be linearly moved. Then, the other end of the 2nd power transmission member 19 is comprised in disk shape. This is for engaging the variable length piston of the vacuum generating means described later and operating the variable length piston at the same time.

The vacuum means described above is composed of an air intake and discharge conduit member 21, a sealing member 23, a cylinder member 25, and a variable length piston 27.

As shown in FIG. 3, the air intake and discharge conduit member 21 is provided with a first intake conduit 21a which protrudes out of the case 1 and allows air to be introduced therein. The second suction pipe 21b is formed inside the air suction and discharge pipe member 21 in connection with the first suction pipe path 21a. The second suction pipe line 21b extends to the lower portion of the air intake and discharge pipe member 21 to pierce the pipe line (see FIG. 3). In addition, the air suction and discharge pipe members 21 have a constant space portion 21c formed on one side of the second suction pipe passage 21b, and the discharge pipe passage 21d connected to the outside by extending the space portion 21c is provided. Formed.

As shown in FIG. 4, the sealing member 23 is tightly coupled to the air intake and exhaust conduit member 21 described above, and is a space portion communicating with the second intake conduit 21b and the exhaust conduit 21d. Holes 23a and 23b are drilled at positions communicating with 21c, respectively. The lower end of the hole 23a and the upper end of the hole 23b are coupled to the first and second opening / closing members 29 and 31 serving as the valve. The first and second opening and closing members 29 and 31 may have a size sufficient to cover the sizes of the holes 23a and 23b, and a rubber-like elastic body made of a plate is preferable, and one side of the first opening and closing member 29 and 31 extends one side thereof, and preferably an adhesive means. Has a structure which is attached to the sealing member 23 using an adhesive agent. The first and second opening and closing members 29 and 31 close the holes 23a and 23b when air pressure is applied on the first and second opening and closing members 29 and 31, and air pressure is applied on the opposite sides. It is made of a structure for opening the ground holes (23a, 23b), and has a role of closing the holes (23a, 23b) when no pressure is applied because it has an elastic force restored to its original state. In addition, the sealing member 23 serves as a sealing so that outside air is not drawn into the inside and is made of a silicone rubber material.

On the other hand, the check valve described in the embodiment of the present invention is not limited to the above-described example, any one of the structure to be mounted in the opposite direction to block air from being drawn in one direction is applied to the embodiment of the present invention can do.

The cylinder member 25 is formed in a plane so that the sealing member 23 and the air intake and discharge conduit member 21 are sequentially coupled to the upper end so as to be fixed by a separate fastening member or the like. In this plane, further holes 25a and 25b are formed so as to communicate with the above-described holes 23a and 23b.

The cylinder member 25 is coupled to a cylindrical member having a space formed therein at the lower end (see FIG. 2) of the plane described above. And the variable-length piston 27 is inserted and fixed inside this cylindrical member.

The variable-length piston 27 is fixedly coupled to an upper end (see FIG. 2) by an additional fastening member or adhesive on the inner upper surface of the cylinder member 25. The lower end of the variable piston 27 is also coupled to the upper end of the second power transmission member 19 (see FIG. 2) by a fastening member or adhesive. The variable-length piston 27 is made of a rubber material, etc., and is made of a structure that can be expanded and contracted by a bellows in which repeated wrinkles are formed on the outer circumferential surface.

The variable-length piston 27 has an elastic member in which the elastic force acts in the circumferential direction on the inner circumferential surface (shown in FIG. 12). The elastic member is for smoothing the expansion and relaxation movement of the variable length piston 27, it is preferable to use a material such as a piano string, fishing line or elastic wire.

One end of the air distribution line 7 is fitted to the outer circumference of the first suction line 21a coupled to the air intake and discharge line 21. If the diameter does not match when fitting the air distribution line 7 to the outer circumference of the first suction line 21a, it is also possible to combine the separate interface 33 and then couple to the interface 33.

It is preferable that the above-mentioned air distribution line 7 consists of a rubber material which has elastic force.

The other end of the air circulation conduit 7 is coupled to the runny nose 9.

The runny nose container 9 has a space for accommodating a runny nose therein, and after the partition 7a is formed vertically (see FIG. 1) on the air distribution line 7 side, the upper end of the partition 7a is formed. A through hole 7b is formed in the hole. The through hole 7b is formed above the surface of the runny nose so that the runny nose is not drawn to the vacuum means and only the air can flow.

The other side of the runny nose described above is fitted with a runny nose guide member (11). The runny nose guide member 11 is made of a pipe, and is also made of a soft rubber material because it is a part directly inserted into the nose of an infant or a child.

On the other hand, a switch 13 for driving the motor 5 is disposed outside the case 1, and a connection circuit diagram is shown in FIG. The switch 13 merely serves to selectively connect the power source of the battery 3 to the motor 5, and may configure an application circuit such as using a resistor or the like as necessary.

It will be described in more detail the operating state of the embodiment of the present invention made in this way.

When the user inserts a part of the tip of the runny nose guide member 11 into the nose of an infant or a child and turns on the switch 13, the power of the battery 3 is transferred to the motor 5 to drive the motor. As the eccentric cam 15 rotates as the motor 5 is driven, the rotational movement of the rotary motor shaft is converted into linear movement through the first power transmission member 17 as the eccentric cam 15 rotates. The driving force converted into linear motion is transmitted to the second power transmission member 19. Therefore, the second power transmission member 19 moves up and down.

First, when the second power transmission member 19 descends downward, as shown in FIG. 6, the variable-length piston 27 also descends downward. At this time, a vacuum is generated inside the variable length piston 27. The runny nose in the nose of the infant or child is then sucked along the runny nose guide member 11 and accumulated in the runny nose 9. And the runny nose of the runny trough 9 does not move to the vacuum means side by the partition 7a, and it accumulates only in the runny trough 9. And only air moves in the arrow direction of FIG. 6 through the through hole 7b formed in the partition 7a. This air moves to the first suction line 21a and the second suction line 21b through the air distribution line 7. At this time, the air pushes the first opening / closing member 29 while passing through the hole 23a of the sealing member 23 (shown in FIG. 7). Then, air is introduced into the variable length piston 27 through the hole of the cylinder member 25 to tension the variable length piston 27.

On the other hand, when the variable length piston 27 is tensioned, the second opening / closing member 31 coupled to the sealing member 23 blocks the outside air, as shown in FIG. 8.

When the second power transmission member 19 is raised, the inside of the variable-length piston 27 is compressed (shown in FIG. 9), and is returned to its original position by the air pressure and the elastic force of the first opening / closing portion 29. The hole 23a of the member 23 is closed (shown in FIG. 10), and the second opening / closing portion 31 is pushed down by the pressure of air (shown in FIG. 11) to open the discharge conduit 21d. It moves along and is discharged to the outside.

While repeating this process, the runny nose is removed by repeatedly performing the tension and compression state inside the variable-length piston (27).

In particular, the runny nose guide member 11 and the air distribution line 7 is made of a flexible rubber material can reduce irritation in the nose of infants and children, even if the case (1) and runny nose guide member (11) angle changes Normal instrument operation is achieved.

Hereinafter, the configuration of another embodiment of the present invention will be described in detail.

FIG. 13 is a block diagram illustrating a second embodiment of the present invention, in which a storage space is formed and an outer shape thereof is formed, and a battery housed in a storage space inside the case 1. 3, the motor 5 and the vacuum generating means are shown.

The vacuum generating means includes a cylinder 100 for generating a vacuum and a pair of intake and exhaust valve assemblies 102 and 104.

The switch 13 is coupled to the outside of the case 1 as described in the first embodiment, and electrically connected to the motor 5 to selectively drive electricity of the battery 3 to drive the motor 5. It is connected by a circuit.

The motor 5 is coupled to the rotating member 101 made of a disc shape in the shaft portion. As shown in FIG. 14, the rotating member 101 has a structure that can rotate together when the shaft portion of the motor 5 rotates as the motor 5 is driven. And one side of the rotating member 101 is formed with a projection (101a). The protrusion 101a is preferably formed at a position eccentric from the rotation center of the rotation member 101. One end of the power transmission member 103 is hinged to the protrusion 101a to change the rotational motion of the rotational member 101 into a linear motion. The other end of the power transmission member 103 is hinged to the piston rod 105 of the cylinder 100. The piston rod 105 is provided with a piston 107 for reciprocating the inside of the cylinder 100 to generate a vacuum.

The cylinder 100 has first and second vacuum ports 100a and 100b communicating with the outside so as to form a vacuum on both sides, respectively. It is preferable that the said 1st, 2nd vacuum port 100a, 100b is arrange | positioned on the outer side of the stroke (distance which a piston moves from one end to one end) to which the piston 107 moves. In addition, the first and second vacuum ports 100a and 100b have screw grooves formed on an inner circumferential surface thereof so as to fasten the first and second intake and exhaust valve assemblies 102 and 104.

The first and second intake and exhaust valve assemblies 102 and 104 are illustrated in FIG. 15 (for convenience, the first intake and exhaust valve assembly will be described as an example), and the first and second vacuum ports 100a, The connector 109 that can be screwed to the 100b), the first intake, exhaust member 111 coupled to one end of the connector 109 and the first intake, exhaust member 111 is disposed on one surface The opening and closing member 113 and the second suction and exhaust member 115 which are coupled to the first suction and exhaust member while accommodating the first suction and exhaust member 111 and the opening and closing member 113 are provided.

The connector 109 has a coupling portion 109a having an outer circumferential surface formed as a thread so that one side thereof may be screwed to the first and second vacuum ports 100a and 100b of the cylinder 100. The air passage 109b is formed in the axial center direction. In addition, the connector 109 has a predetermined storage space on the opposite side where the coupling portion 109a is formed, and a thread is formed on the outer circumference of the storage space to engage with the second suction and exhaust member 115. have. The inner circumferential surface of the storage space portion of the connector 109 has a tapered shape in which the inner side thereof is narrowed so as to secure a constant space 109c when the first suction and exhaust members are coupled to each other. This space 109c is for the smooth flow of air.

The first suction and exhaust member 111 includes an air suction hole 111a and an air discharge hole 111b so as to penetrate both surfaces thereof, and has a tapered shape so that an outer circumferential surface thereof corresponds to the tapered portion of the connector 109. It has a size enough to secure a space (109c) when coupled with the connector (109).

The opening and closing member 113 is disposed on one side of the first intake and exhaust member 111 and has first and second opening and closing portions 113a and 113b, as shown in FIGS. 16 and 17. The opening and closing member 113 is preferably made of a rubber material having an elastic force. The first and second opening and closing portions 113a and 113b have a substantially circular shape, and one side thereof is coupled to the opening and closing member 113. The first opening and closing portion 113a is preferably arranged to selectively open and close the air outlet 111b.

The second suction and exhaust member 115 has a storage space formed therein so as to accommodate the first suction and exhaust member 111 and the opening and closing member 113 therein, and on the inner circumferential surface of the storage space side The screw groove is formed to have a structure that can be combined with the thread of the connector 109. In addition, the second suction and exhaust member 115 is provided with an air intake hole 115a and an air discharge hole 115b that allow the air to pass through the surface of the storage space and the other surface. In addition, the air suction hole 115a has a structure in which the first opening and closing member 113a of the opening and closing member 113 contacts the air suction hole 115a at the storage space side to selectively open and close the air suction hole 115a. Consists of

The first intake and exhaust valve assembly 102 and the second intake and exhaust valve assembly 104 described above have the same structure, but are disposed at both ends of the cylinder 100 so that the vacuum is continuously generated as the piston reciprocates. It consists of a structure made up of. The air passage 109b of the first intake and exhaust valve assembly 102 and the air passage (not shown in the drawing) of the second intake and exhaust valve assembly 104 are connected to the conduit 117. A branch conduit 117a is formed by branching the conduit 117, and the branch conduit 117a and the runny nose 9 are formed. The runny nose 9 has a structure that is arranged on the outside of the case 1 in the first embodiment, but illustrates a structure that is arranged inside the case 1 in the second embodiment. However, the runny nose 9 can also be installed outside the case 1 as in the first embodiment, and can be made in various positions and shapes according to design convenience.

On the other hand, a runny nose guide member 11 made of a rubber material is provided on one side of the runny nose 9 as in the first embodiment.

The operation of the second embodiment made in this way is explained below.

When the runny nose guide member 11 is placed in the nose of the subject to remove the runny nose and the switch 13 is operated in the on state, the motor 5 is driven by the power source of the battery 3 (see FIG. 13) and the motor 5 Rotating member 101 is coupled to the shaft portion of the rotation. Then, one side of the power transmission member 103 is hinged with the protrusion 101a of the rotating member 101 so that one end rotates in accordance with the rotation of the rotating member 101. Since the other end of the power transmission member 103 is hinged to the piston rod 105, the piston 107 reciprocates a certain stroke in the cylinder 100 while the rotational movement of the rotating member 101 is changed into a linear movement. Will move.

This will be described in more detail the process of forming a vacuum in the runny nose (9) in accordance with the reciprocating motion of the piston (107).

Since the first and second intake and exhaust valve assemblies 102 and 104 have the same structure, the first intake and exhaust valve assembly 102 will be described.

When the piston 107 moves along the cylinder 100 from the position of the first intake and exhaust valve assembly 102 to the second intake and exhaust valve assembly 104, the cylinder on the first intake and exhaust valve assembly 102 side Vacuum pressure is formed in the 100, and the first opening / closing member 113a opens the air suction hole 115a of the second suction and exhaust member 115 to suck the air from the runny nose by the vacuum pressure. The runny nose 9 is formed with a vacuum. At this time, the air of the runny nose (9) is the air of the first intake, exhaust member 111 through the air intake hole (115a) of the second intake, exhaust member 115 along the branch pipe (117a) and the conduit (117). The suction hole 111a passes through the air passage 109b and is led to the cylinder 100 side. Therefore, a vacuum is formed in the runny nose 9 so that the runny nose can be sucked into the runny nose 9 through the runny nose guide member 11.

In contrast, when the piston 107 moves from the second intake and exhaust valve assembly 104 side to the first intake and exhaust valve assembly 102 side, the first intake and exhaust described above on the second intake and exhaust valve assembly 104 side. The action that takes place in the exhaust assembly 102 takes place equally, bringing the runny nose 9 into a vacuum. Since the operation thereof has already been described above, a detailed description thereof will be omitted. At the same time, the air in the cylinder 100 on the side of the first intake and exhaust valve assembly 102 is compressed, and the air discharge hole 111b and the second intake and exhaust of the first intake and exhaust member 111 are provided through the air passage 109b. It is discharged to the outside through the air discharge hole 115b of the exhaust member 115. This action is the first opening and closing member 113b is opened by the air pressure to communicate the air discharge holes (111b, 115b) and at the same time the first opening and closing member 113a is the air intake hole (115a) by the pressure of the air It is possible by closing

Therefore, as described above, a vacuum pressure is formed in the runny nose 9 so that the runny nose can be sucked up. Of course, runny nose (9) stores only the runny nose sucked and the air is moved through the conduit (117).

In the first embodiment described above, one vacuum is generated when the piston reciprocates once, whereas the second embodiment has a structure in which two vacuums are generated when the piston reciprocates once. It is possible to efficiently suck the runny nose by maintaining a constant pressure to a constant degree, there is an advantage that the inhalation effect of the runny nose is superior to the first embodiment.

18 is a configuration diagram of a runny nose inhaler for explaining a third embodiment according to the present invention, and shows a cross section of the runny nose inhaler.

The third embodiment of the present invention describes the configuration and operation of other parts as compared with the second embodiment, and the configuration and operation of the same parts is replaced by the description of the second embodiment described above.

First, the cylinder 301 has an opening on one side thereof, and has a piston 303 that can reciprocate on an inner surface thereof. And one side of the cylinder 301 is provided with a discharge hole for discharging the air in the interior of the cylinder in accordance with the movement of the piston 303, is connected to the runny nose and the conduit so as to generate a vacuum in the runny nose, Equipped. This on-off valve has the same structure as the above-described second embodiment, except that the second embodiment includes a plurality of on-off valves and has a structure capable of forming a continuous vacuum. The difference is that one on-off valve is provided so that a single vacuum can be generated by the stroke. As described above, the structure in which the vacuum is formed by using one open / close valve as in the third embodiment has an advantage of reducing the number of parts and reducing the manufacturing cost.

In addition, the runny nose 305 of the third embodiment is different from the second embodiment in that it is detachably coupled to the case 1.

That is, the concave portion 307 is formed on one side of the case 1, and the runny nose 305 is formed into a shape corresponding to the concave portion 307 to form the concave portion 307 of the case 1. The runny nose 305 is to force the fit.

The runny nose 305 is provided with a hole that can be connected to the vacuum pipe, the case 1 also has a structure to match each hole by providing a hole connected to the vacuum pipe.

On the other hand, the vacuum pipe is provided on one side to temporarily stop the vacuum state to provide a vacuum pause means for controlling so that the suction of runny nose can be made only when necessary.

As shown in Fig. 19, the vacuum pause means is provided with a button 311 disposed on the case 1 so as to be able to push, and the button 311 is supported, and the button 311 is initially positioned. Compression coil spring (313) for returning to the, and the button 311 is coupled to the hole stopper member 315 for selectively opening or closing the hole drilled in the vacuum pipe. The hole stopper member 315 is disposed inside the vacuum line and communicates the hole formed in the vacuum line with the atmosphere according to the pressurization of the button 311, and the elastic force of the compression coil spring 313 when the pressurized state of the button is released. The button 311 is returned to close the hole of the vacuum pipe. Therefore, if the user wants to pause the inhalation state of the runny nose, by pressing lightly the button 311, the vacuum line and the air are connected through the hole 316 to release the vacuum state.

Meanwhile, the runny nose guide member coupled to the runny nose 305 is removed, and the vacuum extension conduit 321 is fitted to connect the vacuum extension conduit 321 to the auxiliary case 323, and the auxiliary case ( A runny nose guide member extension means connecting the auxiliary runny nose 327 and the runny nose guide member 11 to 323 is shown in FIG. 20.

The auxiliary case 323 is provided with another vacuum pause means having the same structure as the vacuum pause means of the above-described third embodiment. Since the vacuum pause means has the same structure and operation as described above, the detailed description is replaced by the above description, and this structure is variously installed according to the user's convenience to facilitate convenience of use.

The means for extending the runny nose member is advantageous in use compared to the first and second embodiments because the user can remove the runny nose at various positions by holding only the extension while leaving the case forming the main body at a constant position.

The runny nose remover according to the present invention is a vacuum is formed in the vacuum means by the motor and made to remove the runny nose of the infant or child by the vacuum, it is portable and can be used with one hand, convenient, safe And it can increase the efficiency of runny nose removal, there is an effect that can maintain a constant vacuum pressure to increase the vacuum efficiency.

Claims (16)

A case in which a storage space is formed; A drive source disposed in the case and driven by a battery; Power transmission means for converting the rotational motion of the drive source into a straight motion; Vacuum generating means connected to the power transmission means for generating a vacuum; It is coupled to the vacuum generating means, and discharges the air in the vacuum generating means or sucks the air in the runny nose and at least one intake, exhaust valve assembly; An air circulation conduit coupled to the intake and exhaust valve assembly; A runny nose passage connected with the air distribution conduit and storing a runny nose; A runny nose guide member which is coupled to one side of the runny nose and guides the runny nose so that a runny nose inserted into the nose is introduced into the runny nose bucket; Portable runny nose inhaler including. The method of claim 1, wherein the power transmission means An eccentric cam coupled to the shaft portion of the drive source, the eccentric shaft being rotated in response to the rotation of the drive source, the eccentric shaft being provided at an eccentric position in the same direction as the rotation axis by spaced a certain distance from the rotation shaft; A first power transmission member coupled to the eccentric shaft coupled to the eccentric cam at right angles to change the rotational motion of the drive source in a straight line; A second power transmission member hinged to the first power transmission member and linearly moved in association with the first power transmission member; Portable runny nose inhaler. 3. A portable runny nose inhaler according to claim 1 or 2, wherein said drive source is comprised of a motor. The method of claim 1, wherein the vacuum generating means A cylindrical cylinder member having an air hole formed therein for selectively introducing air through the intake and exhaust valve assembly, and having a space formed therein; A variable length piston fixedly coupled to an inner upper end of the cylinder member and compressed and tensioned by a driving force of the power transmission means to generate a vacuum; Portable runny nose inhaler that includes. The method of claim 1, wherein the vacuum generating means A piston moving by the driving force of the power transmission means; A cylinder arranged to slide on an outer circumference of the piston to generate a vacuum according to the movement of the piston; Portable runny nose inhaler. The portable runny nose inhaler of claim 1, wherein the air flow channel is made of a rubber material having a constant elastic force. The method of claim 1, wherein the intake, exhaust valve assembly is An air intake and exhaust conduit member in which an air intake conduit and an air exhaust conduit are formed; It is coupled with the air intake and discharge pipe member and is connected to the air intake pipe and the air discharge pipe has a plurality of check valves for selectively passing the air or blocking the inlet and discharge of the air, and the sealing acts as a sealing absence; Portable runny nose inhaler. 8. The valve of claim 7, wherein the shock valve coupled to the sealing member is A first opening / closing member coupled to the length variable piston side of the sealing member by an elastic body such that the air inlet formed in the sealing member is opened when the length variable piston is lowered and closed when it is raised; A second opening / closing member which is formed of an elastic body on the opposite side of the variable variable piston of the sealing member so that the air outlet formed in the sealing member is closed when the longitudinal variable piston is lowered and opened when the longitudinal variable piston is opened; Portable runny nose inhaler consisting of. The method of claim 1, wherein the intake, exhaust valve assembly is A connector coupled to one side of the vacuum generating means and having an air passage communicating with the vacuum generating means; A first intake and exhaust member accommodated on one side of the connector and having an air outlet and an air inlet; A second intake and exhaust member accommodating the first intake and exhaust member, an air intake hole communicating with the conduit, and an air exhaust hole for discharging air from the runny nose, and coupled to the connector; ; It is provided on the surface facing the first intake, exhaust member and the second intake, exhaust member, and can selectively open and close the air intake hole of the first intake, exhaust member and the air intake hole of the second intake, exhaust member An opening and closing member having first and second opening and closing portions; Portable runny nose inhaler. 10. The portable runny nose inhaler according to claim 9, wherein the intake and exhaust valve assemblies are arranged in plural on both sides of the vacuum generating means so as to continuously generate the vacuum according to the operation of the vacuum generating means. According to claim 1, wherein the runny nose is formed in the partition to block the runny nose to be stored in the vacuum generating means side through the air pipe and to pass only the air, and the runny nose in the partition above the water surface Portable runny nose inhaler forming a through-hole to be placed. The method of claim 10, wherein the intake and exhaust valve assembly is connected to the air intake hole in the intake and exhaust valve assembly provided on one side and the air intake hole in the intake and exhaust valve assembly provided on the other side by a conduit, the conduit A portable runny nose inhaler constructed by connecting branched branch lines to a runny nose bucket. The method of claim 4, wherein the variable length piston A portable runny nose inhaler interposed between a plurality of elastic members in a direction of pressing outward on the inner peripheral surface. The method of claim 1, wherein the case A button carried by a spring to temporarily release the vacuum of the runny nose on one side, A hole stopper member coupled to the button for selectively opening and closing a hole communicating with the vacuum pipe and the atmosphere; Portable runny nose inhaler. According to claim 1, Vacuum extension pipe line is connected to the runny nose end; An auxiliary case to which the other end of the vacuum extension pipe is coupled; An auxiliary runny nose coupled to the auxiliary case and in communication with the vacuum extension conduit; A secondary runny nose guide member coupled to one side of the secondary runny nose; The portable runny nose inhaler further includes. The method of claim 15, wherein the auxiliary case A button carried by a spring so as to temporarily release the vacuum on one side, A hole stopper member coupled to the button for selectively opening and closing a hole communicating with the vacuum pipe and the atmosphere; Portable runny nose inhaler.