KR20130043833A - Apparatus of spray milky requid - Google Patents

Abstract

PURPOSE: An emulsion spray apparatus is provided to facilitate carriage and storage of the apparatus as a size of the apparatus is small, and to prevent spraying or leaking of the emulsion while carrying the apparatus. CONSTITUTION: An emulsion spray apparatus comprises an emulsion cartridge member(102) for accommodating emulsion; and a spray member(104) that is integrated with the emulsion cartridge member as a part of the spray member is inserted into the emulsion cartridge member and sprays the emulsion mixed with compressed air. The emulsion cartridge member comprises a cartridge that accommodates emulsion; an emulsion outlet that is formed in a part of the cartridge; an emulsion outlet stopper in which a first protrusion for blocking the emulsion outlet is formed; and an elastic member which provides elasticity that presses the emulsion outlet stopper with the emulsion outlet.

Description

Apparatus of spray milky requid}

The present invention relates to an emulsion spraying device, and more particularly, to an emulsion spraying device that enables to spray cosmetic milk and the like evenly.

Cosmetic emulsions applied to the skin include lotions, creams, sunscreens, essences, foundations, base creams, and the like, and these cosmetic emulsions are applied evenly over the entire skin to obtain an effective effect when penetrated into the skin.

However, when applying the cosmetic latex through the hand, sponge, brush, etc., the degree of application of the application is not even, of course, there was a problem that the particles of the latex are large, do not evenly penetrate the skin.

Patent No. 10-2003-0020398 filed with the Republic of Korea Patent Office for the injection device of the lotion, the crank is rotated by the rotational force of the motor is installed on the shaft of the motor, protrudes on one side of the crank to form the shaft of the motor The crankshaft rotated around is connected to the piston, the front end of the piston is inserted into the cylinder, and a check valve plate for transferring air in one direction is provided between the cylinder and the intake and exhaust mechanism, respectively, on the inner surface of the cylinder and the intake and exhaust mechanism. An intake chamber and a discharge chamber are formed in the intake / exhaust mechanism by means of a bottom plate and a plate of the intake / exhaust mechanism which are formed to seal the formed suction hole and the discharge hole, and the air is supplied to the intake unit in communication with the intake chamber of the intake / exhaust mechanism. Air flows into the discharge part which flows in and communicates with the discharge chamber, and is transported by the piston and the cylinder. Injection means for injecting finely built-in toilet water by the pressure, it discloses a lotion injector made to be connected to the intake and exhaust discharge unit sphere.

The spraying device of the lotion has a problem that the lotion is evenly and finely applied to the skin by spraying and ejecting the lotion finely, but the volume and complexity of the apparatus are not easy to carry and store.

Therefore, in the past, the development of an emulsion spray device that is small in size and simple and easy to carry and store is urgently required.

An object of the present invention is to provide an emulsion spraying device which is small in size and is simple and easy to carry and store.

Another object of the present invention is to provide an emulsion spraying device which can prevent the emulsion from being sprayed or spilled while being carried.

In addition, another object of the present invention is to provide an emulsion spraying device which enables the cartridge containing the emulsion to be replaced so that the emulsion spraying device can be used semi-permanently.

Emulsion injection device according to the present invention for achieving the above object, the emulsion cartridge member for accommodating the fluid; and is integrally inserted while being inserted into the interior of the emulsion cartridge member, the emulsion and compressed air to mix and spray The fluid cartridge member comprises: a cartridge accommodating the fluid, an fluid discharge port formed in a part of the cartridge, an oil discharge outlet stopper member having a first protrusion blocking the fluid discharge port, and the fluid discharge port stopper. It is composed of an elastic member for providing elasticity for pressing the member to the fluid discharge port, the injection member, the injection nozzle for supplying and mixing the fluid and compressed air, and the fluid connecting the fluid discharge port and the injection nozzle A moving tube, a compressed air pump for generating compressed air, and between the compressed air pump and the injection nozzle A compressed air moving pipe to be connected, and a second projection which pushes the fluid discharge port stopper member toward the elastic member in contact with the projection of the fluid discharge port stopper when the fluid cartridge member is pushed out of the injection member, and opens the fluid discharge port; And a control device for driving the compressed air pump according to the fluid injection command through the user control unit for receiving an injection command from a user.

The present invention described above has an effect that the size of the emulsion spray device is small and simple, so that it is easy to carry and store.

In addition, the present invention has the effect of ensuring that the cartridge containing the latex is airtight when the jet of the latex is not required, and the user operation for the jet of the latex is composed of a plurality of steps, thereby preventing the jet of the latex from being improperly sprayed. .

In addition, the present invention has an effect that can be used to semi-permanently use the emulsion injection value by configuring the cartridge containing the emulsion to be replaced.

1 is an external perspective view of an emulsion spray apparatus according to a preferred embodiment of the present invention.
Figure 2 is an exploded perspective view of the emulsion injection device according to a preferred embodiment of the present invention.
3 and 4 are cross-sectional views of the emulsion injection device according to a preferred embodiment of the present invention.
5 is a block diagram of an emulsion injection device according to a preferred embodiment of the present invention.
6 is a view showing the operation of the emulsion injection device according to a preferred embodiment of the present invention.
7 is a view schematically showing an emulsion injection process according to a preferred embodiment of the present invention.

The present invention has a small and simple configuration of an emulsion spraying device. When the emulsion injection is not required, the cartridge containing the emulsion is hermetically sealed, and the user operation for the emulsion injection is composed of a plurality of steps. This prevents the fluid from being sprayed incorrectly while carrying.

In addition, the present invention can be configured to replace the cartridge containing the latex so that the latex injection can be used permanently.

<Mechanical configuration of the fluid injection device>

The mechanical configuration of the emulsion spray apparatus according to the preferred embodiment of the present invention described above will be described in detail with reference to FIGS.

The emulsion injection device 100 is largely composed of an emulsion cartridge member 102 and an injection member 104.

The latex cartridge member 102 is composed of a cylindrical housing 200 having an opening formed on one side thereof, and a cartridge 202 having a semi-cylindrical shape and containing an emulsion, which is accommodated inside the housing 200.

The cartridge 202 contains a latex. The cartridge 202 is a semi-cylindrical shape, the curved surface of the side surface is bound to the inner surface of the housing 200, the side of the plane is formed with a fluid discharge port 208 for discharging the fluid, the bottom surface for the air inlet An air inlet 220 is formed. In addition, the inside of the cartridge 202 has a built-in stirring hole 204 for mixing the emulsion.

The air inlet 220 is hermetically sealed by the upper surface 260 of the injection member 104 when the latex cartridge member 102 is fitted into the upper surface of the injection member 104, and the emulsion cartridge member ( When the fluid reaches the fluid discharge preparation state in which 102 is pushed up from the injection member 104 by a predetermined length, it is opened as it is spaced apart from the upper surface 260 of the injection member 104 to introduce air into the cartridge 202. Let's do it.

The opening and closing mechanism 206 is fitted into the latex discharge port 208. The opening / closing mechanism 206 provides the fluid discharge port stopper member 212 for opening and closing the fluid discharge port 208 and the fluid discharge port stopper member 212 to elastically pressurize the fluid discharge port stopper member 212 to the fluid discharge port 208. An elastic member 214 that blocks 208 and a support member 216 that supports the elastic member 214.

In addition, a first protrusion 210 is formed at an end of the latex discharge cap stopper member 212, and the first protrusion 210 is formed in the state where the latex cartridge member 102 is fitted to the injection member 104. When it reaches the ready-to-be-discharge fluid discharged state pushed up from the injection member 104 by the predetermined length, it contacts the 2nd protrusion 236 provided with the injection member 104. As shown in FIG. In particular, when the emulsion cartridge member 102 is pushed up from the injection member 104 while the first protrusion 210 and the second protrusion 236 abut, the fixed second protrusion 236 is fixed. As the elastic member 214 is compressed by the first protrusion 210 is pushed into the cartridge 202, the emulsion discharge port 208 is opened. In this state, the fluid discharge port 208 is opened and the air inlet 220 is opened in the fluid discharge ready state.

In addition, when the latex cartridge member 102 and the injection member 104 are fitted to each other and coupled to each other, the first and second protrusions 210 and 236 do not come into contact with each other while the elastic member 214 The first protrusion 210 is pushed back to the fluid discharge port 208 while being extended again, thereby closing the fluid discharge port 208. In this manner, when the fluid is not ready to discharge, the fluid discharge port 208 and the air inlet 220 are hermetically sealed.

In addition, a stopper guide groove for guiding the movement of the stopper 232 of the injection member 104 on any inner surface of the housing 200 of the latex cartridge member 102 where the cartridge 202 is not located. 222 is formed. The stopper guide groove 222 is fitted with a protrusion formed in the stopper 232, and the protrusion moves along the stopper guide groove 222. As a result, the latex cartridge member 102 is pushed up only by a predetermined length from the jetting member 104 or the latex cartridge member 102 is coupled with the jetting member 104. In addition, the stopper guide groove 222 has a stopper removal hole 224 is formed. Here, the user pushes the stopper 232 inwardly through the stopper removal opening 224 to separate the protrusion of the stopper 232 from the stopper guide groove 222, and the latex cartridge member 102. And the injection member 104 can be separated.

In addition, an injection hole 242 is formed on an upper surface of the latex cartridge member 102, and an injection nozzle 240 of the injection member 104 is inserted into the injection hole 242.

The injection member 104 includes a housing 230, a stopper 232, a second protrusion 236, an emulsion moving tube 238, a compressed air moving tube 244, and an injection nozzle 240 of the injection member 102. And a compressed air pump 246, a charging unit 248, a charging terminal 250, a first switch unit 252, a second switch unit 256, an operation state guide unit 254, and a circuit unit 258. .

The housing 230 of the jetting member 104 has a cylindrical shape at the bottom and a semi-cylindrical shape at the top thereof, and houses and supports each part of the jetting member 104. In particular, the fluid moving tube 238, the compressed air moving tube 244, the injection nozzle 240, the second projection 234 and the stopper 232 is located on the upper portion of the housing 230 of the injection member 104, The latex moving tube 238, the compressed air moving tube 244, the injection nozzle 240, the second protrusion 234, and the stopper 232 are formed in a semi-cylindrical hollow space formed inside the latex cartridge member 102. It is arranged to fit in. In particular, the stopper 232 is inserted into the stopper guide groove 222 of the latex cartridge member 102 and guided by the stopper 232 inserted into the stopper guide groove 222 while the latex cartridge member 102 is When the second protrusion 234 is pushed up to the maximum, the position of the second protrusion 234 is determined to be in contact with the first protrusion 210.

The injection nozzle 240 is positioned to be interpolated in the injection hole 242. The fluid moving tube 238 connects the injection nozzle 240 and the fluid discharge port 208 to move the fluid discharged through the fluid discharge port 208 to the injection nozzle 240. The compressed air moving pipe 244 connects the injection nozzle 240 and the compressed air discharge port of the compressed air pump 246 so that the compressed air from the compressed air pump 246 moves to the injection nozzle 240. To be.

The compressed air pump 246 is embedded in the lower portion of the housing 230 of the injection member 104 and generates compressed air to provide compressed air to the injection nozzle 240 through the compressed air moving pipe 244. do.

A charging unit 248 is positioned below the compressed air pump 246, and the charging unit 248 receives and charges external charging power introduced through the charging terminal 250, and charges the charged power to the latex. The injection device 100 is supplied to the driving power of each part.

The charging terminal 250 is located on the lower surface of the housing 230 of the injection member 102 to receive the charging power from the outside to supply to the charging unit 248.

The first switch unit 252 is a switch for instructing the user to enter the fluid injection standby state, and the standby state guide unit 254 is driven as the first switch unit 252 is turned on, and thus the fluid injection standby state. Guide the user.

The operation state guide unit 254 is a light emitting device such as an LED, and guides the user to the fluid injection standby state.

The second switch unit 256 is a switch for commanding the fluid injection by driving the compressed air pump 246 when the first switch unit 252 is turned on in the standby state, the first switch unit 252 is As the second switch unit 256 is turned on in the on state, the compressed air pump 246 is driven to supply compressed air to the injection nozzle 240. Here, the second switch unit 256 may be one or more touch switches for a beautiful appearance.

The circuit unit 258 includes circuits such as a control unit for driving the operation state guide unit 254 and the compressed air pump 246 according to the operation of the first and second switch units 252 and 256.

<Circuit configuration of the fluid injection device>

The circuit configuration of the fluid injection device 100 will be described in more detail with reference to FIG. 5.

The fluid injection device 100 includes a control device 300, a charging unit 248, a charging terminal 250, a compressed air pump 246, a first switch unit 252, a second switch unit 256, and an operation. A status display unit 254 is provided.

The control device 300 controls the respective parts of the fluid injection device 100, and in particular, when the second switch unit 256 is turned on while the first switch unit 252 is turned on, the compressed air pump 246 is turned on. Drive.

In addition, the control device 300 drives the operation state display unit 254 to guide that the standby state for the fluid injection when the first switch unit 252 is turned on.

The charging unit 248 receives and charges the charging power introduced through the charging terminal 250, and supplies the charged power to the respective parts of the fluid injection device 100 as driving power.

The first switch unit 252 is turned on according to a user's operation, and provides a switch on signal to the control device 300. Here, the first switch unit 252 is a switch for command to enter the emulsion injection standby state.

The second switch unit 252 is turned on according to a user's operation, and provides a switch on signal to the control device 300. Here, the second switch unit 256 is a switch for commanding the fluid injection.

The operation state display unit 254 is a light emitting device that is turned on under the control of the control device 300.

The compressed air pump 246 is turned on under the control of the control device 300 to generate compressed air and inject it into the compressed air moving pipe 244.

<Operation of the fluid injection device>

The operation of the fluid injection device 100 will be described in more detail with reference to FIG. 6.

The user of the latex injection device 100 first pushes the latex cartridge member 102 by a predetermined length from the injection member 104 for use of the latex injection device 100 to release the latex discharge port 208 and the air inlet ( Create a liquid discharge standby state that opens 220).

In this latex discharging standby state, the user may instruct to enter the latex spray standby state by turning on the first switch unit 252.

When the first switch unit 252 is turned on by the user (step 400), the control device 300 of the latex injection device 100 enters into the latex injection state and guides the entry into the latex injection standby state. In operation 402, the operation state display unit 254 is driven. Accordingly, the operation state display unit 254 emits light to inform the user that the liquid injection standby state.

In such a liquid injection standby state, the user may turn on the second switch unit 256 to command the fluid injection.

When the second switch unit 256 is turned on by the user in the fluid injection standby state (step 404), the control device 300 of the fluid injection device 100 drives the compressed air pump 246 (step 406). . As the compressed air pump 246 is driven, the emulsion is injected.

A process of spraying the emulsion according to the driving of the compressed air pump 246 will be described with reference to FIG. 7. The compressed air pump 246 generates compressed air and injects it into the compressed air moving tube 220. The compressed air injected into the compressed air moving tube 220 is discharged through the injection nozzle 240.

A pressure difference occurs as compressed air is discharged through the injection nozzle 240, and the pressure inside the fluid moving tube 238, which is another pipe connected to the injection nozzle 240, is lowered by the pressure difference, thereby being embedded in the cartridge 202. The fluid is moved to the injection nozzle 240. The fluid that has moved to the injection nozzle 240 is mixed with compressed air in the injection nozzle 240 to be finely and evenly divided and sprayed to the outside.

100: latex injection device
102: latex cartridge member
104: injection member

Claims (7)

In the latex injection device,
Latex cartridge member for receiving the latex; And,
Consisting part is inserted into the latex cartridge member is integrated, the injection member for mixing and injecting the emulsion and compressed air;
The latex cartridge member,
A cartridge to accommodate the latex,
An emulsion discharge port formed in a portion of the cartridge;
An emulsion discharge port stopper member having a first protrusion blocking the emulsion discharge port;
It is composed of an elastic member for providing an elastic force for pressing the latex discharge port stopper member to the latex discharge port,
The injection member,
An injection nozzle for supplying the fluid and compressed air to mix and spray
An emulsion moving pipe connecting the fluid discharge port and the injection nozzle;
Compressed air pump to generate compressed air,
A compressed air moving pipe connecting between the compressed air pump and the injection nozzle,
A second projection for contacting the first projection of the latex discharge port stopper member to push the latex discharge port stopper toward the elastic member to open the latex discharge port when the latex cartridge member is pushed out of the injection member;
A user operation unit for receiving a spray command from a user,
And a control device for driving the compressed air pump according to the fluid injection command through the user manipulation unit. The method of claim 1,
And an air inlet formed in a part of the cartridge, the air inlet being closed when the latex cartridge member and the jetting member are brought into contact with each other, and opened when the latex cartridge member is pushed out of the jetting member. . The method of claim 1,
The user operation unit,
A first switch unit for instructing to enter the fluid injection standby state,
It consists of a second switch unit for commanding the fluid injection,
The control device enters into the fluid injection standby state when the command to enter into the fluid injection standby state through the first switch unit, and enters the fluid injection through the second switch unit in the fluid injection standby state, the compressed air pump Emulsion injection device characterized in that for driving. The method of claim 1,
And a charging unit for supplying driving power to the compressed air pump and the control device in the injection member. The method of claim 1,
The injection member,
A housing surrounding the outside of the injection member and a stopper provided in the housing and having a protrusion formed thereon,
The latex cartridge member,
A housing surrounding the exterior of the latex cartridge member, a stopper guide groove provided in the housing and guided so that the stopper protrusion is inserted and moved by a predetermined length, and in the center of the groove, the stopper is pushed from the stopper guide groove. Emulsion injection device, characterized in that provided with a stopper removal opening for separating the separation. In the latex cartridge member for the latex injection unit,
The latex cartridge member,
A cartridge to accommodate the latex,
An emulsion discharge port formed in a portion of the cartridge;
An emulsion discharge port stopper member having a first protrusion blocking the emulsion discharge port;
It is composed of an elastic member for providing an elastic force for pressing the latex discharge port stopper member to the latex discharge port,
The first projection is pushed toward the elastic member side by a second projection formed in the injection member of the fluid injection device, according to the latex cartridge member for the fluid injection unit, characterized in that the fluid discharge port is opened. The method according to claim 6,
And an air inlet formed in a part of the cartridge, the air inlet being closed when the latex cartridge member and the jetting member are brought into contact with each other, and opened when the latex cartridge member is pushed out of the jetting member. Latex cartridge member for use.

Images