KR102615716B1 - Personalized cosmetics manufacturing device - Google Patents

Abstract

A personalized cosmetics manufacturing device according to an embodiment of the present invention includes a housing having an input unit where the user's status and requirements are input and a storage unit that stores data transmitted from the input unit, a driving unit located inside the housing, and A control unit that is connected and controls the operation of the drive unit according to the comparative analysis results by comparing and analyzing the input data with the data previously stored in the storage unit, is located inside the housing, and stores a plurality of solution storage containers in which the solution is stored. It may include a solution storage unit, a solution extractor connected to the end of the driving unit and precisely extracting the solution, and a mixing unit in which the extracted solution is mixed.

Description

Personalized cosmetics manufacturing device}

The present invention relates to personalized cosmetics and to a device that automatically manufactures ingredients tailored to the individual based on a doctor's diagnosis and stably manufactures cosmetics tailored to the individual without being influenced by the external environment.

Cosmetics are widely used for the practical aspect of being able to pursue beauty in addition to skin health. In particular, recently, many functional cosmetics have been introduced as specialized cosmetics that go beyond the basic base effect of cosmetics. For example, the demand for functional cosmetics to manage acne, wrinkles, blemishes, etc. is increasing day by day.

In general, cosmetics are manufactured not to meet the needs of numerous types of consumers, but to avoid causing trouble to the majority of people. However, since consumers are demanding cosmetics optimized for their skin condition, it is very difficult for cosmetics manufactured through the above process to be suitable for a specific consumer's preference or skin condition.

There are various differences in skin characteristics from person to person, and if you are receiving skin treatment, skin problems may actually occur due to the cosmetics currently produced and sold in large quantities by manufacturers.

Recently, personal cosmetics manufacturing devices have been developed, but most cosmetics are manufactured using dedicated cartridges, so it is difficult to know the amount of residual oil and frequency of use, and while the cartridges are easily contaminated, maintenance thereof is difficult.

The present invention, which was conceived based on the above technical background, seeks to provide a personalized cosmetics manufacturing device that enables more accurate dispensing and mixing and is not affected by the external environment, allowing for more stable manufacturing of personalized cosmetics.

A personalized cosmetics manufacturing device according to an embodiment of the present invention includes a housing having an input unit where the user's status and requirements are input and a storage unit that stores data transmitted from the input unit, a driving unit located inside the housing, and A control unit that is connected and controls the operation of the drive unit according to the comparative analysis results by comparing and analyzing the input data with the data previously stored in the storage unit, is located inside the housing, and stores a plurality of solution storage containers in which the solution is stored. It may include a solution storage unit, a solution extractor connected to the end of the driving unit and precisely extracting the solution, and a mixing unit in which the extracted solution is mixed.

The housing may include a supply part that supplies the solution extractor at a position spaced apart from the solution storage part, and a collection part that is located inside the housing and collects the solution extractor that is removed from the driving part.

The control unit may further include a path setting unit that sets a mixing movement path from the selected solution storage container to the mixing unit and a collection movement path from the mixing unit to the collection unit.

The driving unit is connected to the control unit and may include a first sensing unit that detects a boundary space formed when the plurality of solution storage containers are arranged.

The mixed movement path may be set as a curved path along the edge of the selected solution storage container and the adjacent solution storage container in the boundary space.

The driving unit is connected to the control unit and may include a second sensing unit that recognizes the surface level of the solution stored in the solution storage container.

The solution storage unit includes a storage unit in which each of the plurality of solution storage containers is stored, a weight detection unit connected to the control unit and provided on the bottom of the storage unit to detect the weight of each of the plurality of solution storage containers, and the control unit. It may include a protrusion that is connected to and protrudes each of the plurality of solution storage containers.

The housing may include a HEPA filter installed at the top, and a supply fan connected to the HEPA filter to introduce filtered air into the housing to maintain a positive pressure inside the housing.

The control unit may store and compare data input through the input unit when the data is stored in the storage unit.

The personalized cosmetics manufacturing device according to an embodiment of the present invention allows for more accurate dispensing and mixing, and is not affected by the external environment, allowing for the production of personalized, more stable cosmetics.

1 is a plan view of a personalized cosmetics manufacturing apparatus according to an embodiment of the present invention.
Figure 2 is a side view of the personalized cosmetics manufacturing device shown in Figure 1.
Figure 3 is a side view of the personalized cosmetics manufacturing apparatus shown in Figure 2 as seen from another side.
Figure 4 is a schematic diagram of the solution storage unit shown in Figure 1.
Figure 5 is an exemplary diagram to explain that the solution storage container shown in Figure 2 protrudes.
Figure 6 is an exemplary diagram for explaining how the solution storage container shown in Figure 2 is collected.
Figure 7 is a schematic diagram showing the movement path of the solution extractor shown in Figure 2.
FIG. 8 is a flowchart of the operation of the personalized cosmetics manufacturing device shown in FIG. 1.

Hereinafter, with reference to the attached drawings, embodiments of the present invention will be described in detail so that those skilled in the art can easily implement the present invention. The present invention may be implemented in many different forms and is not limited to the embodiments described herein. In order to clearly explain the present invention in the drawings, parts not related to the description are omitted, and identical or similar components are given the same reference numerals throughout the specification.

In this specification, terms such as “comprise” or “have” are intended to designate the presence of features, numbers, steps, operations, components, parts, or combinations thereof described in the specification, but are not intended to indicate the presence of one or more other features. It should be understood that this does not exclude in advance the possibility of the existence or addition of elements, numbers, steps, operations, components, parts, or combinations thereof. Additionally, when a part of a layer, membrane, region, plate, etc. is said to be “on” another part, this includes not only cases where it is “directly above” the other part, but also cases where there is another part in between. Conversely, when a part of a layer, membrane, region, plate, etc. is said to be “beneath” another part, this includes not only cases where it is “immediately below” another part, but also cases where there is another part in between.

Figure 1 is a plan view of a personalized cosmetics manufacturing device according to an embodiment of the present invention, Figure 2 is a side view of the personalized cosmetics manufacturing device shown in Figure 1, and Figure 3 is another view of the personalized cosmetics manufacturing device shown in Figure 2. This is a side view from the side.

Referring to Figures 1 to 3, the personalized cosmetics manufacturing apparatus 100 according to the present invention includes a housing 10, a control unit 20, a driving unit 30, a solution storage unit 40, and a solution extractor 50. , may include a mixing unit 60, a supply unit 70, and a collection unit 80.

The housing 10 can seal the internal space and provide a manufacturing space blocked from the outside. For example, a Baratron O-ring can be inserted into the gap of the housing 10. This creates a more perfectly sealed space and prevents cosmetics from being contaminated by external contaminants.

The housing 10 may include an input unit 11, a storage unit 13, a HEPA filter, and a supply fan.

The input unit 11 can input the user's status and requirements. For example, the input unit 11 is formed as a button or a display so that a material or symbol can be selected according to the user's intention. If the user is interested in acne treatment, they can enter information about acne treatment. This information may be a consultation with a doctor, a doctor's prescription, or a prescription from a cosmetics manufacturer. Through this, users can input information that suits their interests or doctor's prescriptions and manufacture cosmetics tailored to their individual needs.

The storage unit 13 can store data input from the input unit 11. For example, data continuously entered by the user can be stored in the storage unit 13 to continuously check the user's status.

The HEPA filter may be installed at the top of the housing 10. Outside air can be filtered through a HEPA filter. Recently, due to poor air quality such as fine dust or yellow dust, it is possible to manufacture more stable cosmetics by filtering the air through a HEPA filter to create an environment similar to a clean room.

The supply fan is connected to a HEPA filter to maintain positive pressure inside the housing. The internal pressure is maintained at positive pressure, preventing contaminants from entering the housing from the outside.

The control unit 20 is connected to the housing 10 and can compare and analyze data input from the input unit 11. For example, the control unit 20 may compare and analyze the input data and data previously stored in the storage unit 13 and control the operation of the drive unit 30 according to the results of the comparative analysis. Through this, the user's past status can be tracked and accurate dosing and mixing can be checked. Accordingly, the effects and prognosis of using cosmetics can be managed through user history management.

The control unit 20 can control the operation of the driving unit 30 according to the results of comparative analysis of data. For example, distributive mixing may be possible according to the manufacturer's prescription. This may enable more accurate dispensing and mixing.

The control unit 20 may include a code recognition unit 21, a route setting unit 23, a first control unit 25, and a second control unit 27.

The code recognition unit 21 is connected to the code detection unit 35a and recognizes the QR code or barcode attached to the solution extractor 50 connected to the driving unit 30, so that the solution extractor 50 is a bio-verification consumable. You can check whether it is recognized or not. Through this, more stable and safer cosmetics can be manufactured.

The path setting unit 23 sets the mixing movement path from the solution storage container 41 selected by the input unit 11 to the mixing unit 60 and the collection movement path from the mixing unit 60 to the collection unit 80. You can. For example, the mixing movement path may be formed diagonally of the selected solution storage container 41, or may be set as a curved path along the edge of an adjacent solution storage container.

The first control unit 25 is connected to the first detection unit 35b and can detect the boundary space of a plurality of solution storage containers. Accordingly, the solution extractor 50 connected to the driving unit 30 can move along the edges of the plurality of solution storage containers 41 so as not to contact each of the plurality of solution storage containers 41. Since the solution extractor 50 does not move to the inlet portion of the solution storage container 41, mixing and contamination of the solution can be prevented, and the solution can be protected from falling bacteria. Additionally, manufacturing time can be shortened by reducing unnecessary movement.

The second control unit 27 is connected to the second detection unit 35c, so that the path setting unit 23 sets the movement length of the driving unit 30 up to the surface level of the solution. Surface level can be perceived. Accordingly, it is possible to prevent the bottom surfaces of the solution extractor 50 and the solution storage container 41 from contacting each other during the process of extracting the solution.

The control unit 20 can store and compare input data when the user matches existing input data. In addition, the control unit 20 includes a manufacturing error prevention unit that notifies the manufacturer after comparing data with existing stored data except for the initial period when collecting data, a data management unit that manages access passwords and login functions for the data, and wired and wireless access to the data. It may further include a communication unit for. Through this, cosmetics can be manufactured more safely and stably.

The driving unit 30 is located inside the housing 10 and may be connected to the control unit 20. The driving unit 30 can move along x-y-z axes inside the housing 10, and step motors 34x and 34y can be connected in each axis direction. The driving unit 30 according to an example includes a first moving unit (31x), a second moving unit (31y), a third moving unit (31z), a code detecting unit (35a), a first detecting unit (35b), and a second moving unit (31x). It may include a detection unit.

The first moving part 31x may be a rail provided long in the x-axis direction. Both ends of the first moving part 31x may be vertically connected to two second moving parts 31y that are parallel to each other. The first moving part 31x may be connected to the third moving part 31z through a connecting part 33. Accordingly, the first moving part 31x can move the third moving part 31z in the x-axis direction. Additionally, the first moving part 31x can move the solution extractor 50 connected to the end of the third moving part 31z in the x-axis direction.

The second moving part 31y may be a rail provided long in the y-axis direction. According to one example, the two second moving parts 31y arranged parallel to each other are connected perpendicularly to the first moving part 31x, and the first moving part 31x and the first moving part 31x are connected to each other. 3 The movement of the moving part 31z can be controlled. That is, the second moving part 31y can move the first moving part 31x and the third moving part 31z in the y-axis direction. Accordingly, the second moving part 31y can move the solution extractor 50 connected to the end of the third moving part 31z in the y-axis direction.

The third moving part 31z may be connected to the first moving part 31x through a connecting part 33. The third moving unit 31z may be a robot arm capable of moving in the z-axis direction. The end of the third moving part 31z may be provided with an insertion hole into which the solution extractor 50 can be inserted, but the solution extractor 50 is not limited to this, and the solution extractor 50 can be attached to the third moving part 31z in various ways. can be connected

As described above, the driving unit 30 can form a path along which the connected solution extractor 50 can move, and can move step by step by the step motor 34. This may enable more accurate movement control.

Each of the code detection unit 35a, the first detection unit 35b, and the second detection unit 35c may be provided at the end or side of the third moving unit 31z so as not to overlap each other.

The code detection unit 35a is connected to the code recognition unit 21 and can recognize a QR code or barcode attached to the solution extractor 50. Accordingly, more stable and safer cosmetics can be manufactured.

The first detection unit 35b is connected to the control unit 20 and can detect the boundary space formed when the plurality of solution storage containers 41 are arranged. The driving unit 30 may be set to a curved path along the edge of the selected solution storage container and the adjacent solution storage container in the boundary space. Accordingly, the solution extractor 50 connected to the driving unit 30 can move along the edges of the plurality of solution storage containers 41 so as not to contact each of the plurality of solution storage containers 41. Since the solution extractor 50 does not move to the inlet portion of the solution storage container 41, mixing and contamination of the solution can be prevented, and the solution can be protected from falling bacteria. Additionally, manufacturing time can be shortened by reducing unnecessary movement.

The second detection unit 35c is connected to the control unit 20 and can recognize the surface level of the solution stored in the solution storage container 41. Accordingly, it is possible to prevent the bottom surfaces of the solution extractor 50 and the solution storage container 41 from contacting each other during the process of extracting the solution.

The driving unit 30 may further include a solution replacement unit 39 for replacing the solution storage container 41 containing the solution. The solution replacement unit 39 may be connected to the first moving unit 31x. A container holder (39a) for extracting the solution storage container (41) may be provided at the bottom of the solution exchange unit (39). The solution exchange unit 39 may be a robot arm capable of moving in the z-axis direction and extracting the solution storage container 41. The solution replacement unit 39 can replace the used solution storage container 41 according to the solution replacement signal transmitted from the control unit 20. A detailed description of the solution replacement unit 39 will be described with reference to the drawings below.

The solution storage unit 40 is located inside the housing and can accommodate a plurality of solution storage containers 41 in which the solution is stored. The solution storage portion 40 may include a storage portion concave toward the bottom to accommodate a plurality of solution storage containers 41. Each of the plurality of solution storage containers 41 can be stored in the solution storage unit 40 through the solution exchanger 39 and collected into the collection unit 80. Each of the plurality of solution storage containers 41 may have various sizes and heights, and may be, for example, a light-shielding container, etc. depending on the components of the solution. Accordingly, the storage portion of the solution storage unit 40 can be provided to accommodate solution storage containers 41 of various sizes and heights. This solution storage unit 40 will be described in more detail with reference to the drawings below.

The solution extractor 50 is connected to the end of the driving unit 30 and can precisely control the extraction amount of the solution. More precisely, the solution extractor 50 may be connected to the third moving part 31z provided in the driving part 30.

The solution extractor 50 may move along the edges of each of the plurality of solution storage containers 41 according to the mixing movement path transmitted from the path setting unit 23 and the detection signal transmitted from the second control unit 25. . The solution may be moved by the driving unit 30 and stored in the mixing unit 60. When the solution is stored in the mixing unit 60, the driving unit 30 can move from the mixing unit 60 to the collection unit 80 according to the collection movement path. When the driving unit 30 is located in the collection unit 80, the solution extractor 50 can be collected in the collection unit 80. In this case, the collection movement path may be set to an area where the solution storage unit 40 is not placed. In other words, the collection movement path can be set so as not to pass through the upper part of the solution storage unit 40.

Since the solution extractor 50 does not move to the inlet portion of the solution storage container 41, mixing and contamination of the solution can be prevented, and the solution can be protected from falling bacteria. Additionally, by reducing unnecessary movement, manufacturing time can be shortened and the efficiency of cosmetics manufacturing can be improved.

The solution extractor 50 may be a micro tip or a micro pipette, but is not limited thereto. By using the replaceable solution exchanger 50, cross-contamination can be prevented and the time and cost required to clean the solution exchanger 50 can be reduced.

The mixing unit 60 is located inside the housing 10 and can mix the extracted solution. A stirrer capable of mixing the solution may be provided at the lower or upper part of the mixing unit 60, and the mixing of the solution can be performed more stably by adjusting the speed of the stirrer.

The supply unit 70 and the collection unit 80 may be located inside the housing 10. The solution extractor 50 connected to the driving unit 30 is removed after one use. For this purpose, the driving unit 30 continuously receives the solution extractor 50 from the supply unit 70, and after use, it is stored in the collection unit 80. By removing the solution extractor 50, unintentional mixing of solutions can be prevented.

Figure 4 is a schematic diagram of the solution storage unit shown in Figure 1.

Referring to FIG. 4, the solution storage unit 40 according to an embodiment of the present invention may include a receiving unit 43, a weight sensing unit 45, and a protrusion 47.

The storage unit 43 can accommodate each of a plurality of solution storage containers 41. Accordingly, the plurality of solution storage containers 41 can be stably stored in the storage unit 43 at regular intervals. In the present invention, the size of the receiving part 43 is the same as an example, but the present invention is not limited to this, and the receiving part 43 may be formed in various ways depending on the size of the solution storage container 41. That is, each of the plurality of solution storage containers 41 may have different heights and diameters. Accordingly, the receiving portion 43 may be formed in various sizes.

The weight sensing unit 45 is located on the bottom of the storage unit 43 and can be connected to the control unit. The weight sensing unit 45 may be located at the center of the bottom surface of the storage unit 43 for precision. The weight sensing unit 45 can detect the weight of each of the plurality of solution storage containers 41 and transmit data on the remaining amount of solution to the control unit.

The protrusion 47 may be provided on the bottom of the storage unit 43 at a predetermined distance from the weight sensing unit 45. The protrusion 47 is connected to the control unit and can protrude each of the plurality of solution storage containers. In this specification, the present invention has been described using the solution storage unit 40 provided with two protrusions 47 as an example, but it is not limited thereto and two or more protrusions 47 may be provided.

In one embodiment of the present invention, by providing a solution storage unit 40 equipped with a weight sensor 45 and a protrusion 47, the replacement time of the solution is recognized and managed in advance, regardless of the type of solution storage container, so that the consumer can Cosmetics can be provided more safely to people.

FIG. 5 is an exemplary diagram for explaining how the solution storage container shown in FIG. 2 protrudes, and FIG. 6 is an exemplary diagram for explaining how the solution storage container shown in FIG. 2 is collected.

Referring to Figures 5 and 6, the solution storage container 41 can be inserted into the solution storage unit 40. In this case, the lower surface of the solution storage container 41 may be in contact with the weight sensing unit 45. The weight sensing unit 45 can detect the weight of the solution contained in the solution storage container 41. For example, the weight sensing unit 45, which detects a decrease in the weight of the solution storage container 41 according to the amount of solution used, can transmit the weight information to the control unit 20 through the weight sensing line 45a. The control unit 20 may analyze the transmitted weight information and generate a solution replacement signal if the analyzed amount of solution is less than the amount input to the input unit. When the solution replacement signal is generated, the control unit 20 can send an opening/closing signal to the opening/closing unit 48 through the opening/closing signal line 47a. The entrance of the opening and closing part 48 that receives the opening and closing signal can be opened and closed, and accordingly, the protruding spring 49 provided below the opening and closing part 48 can bounce in the direction of the protruding part 47. The protrusion 47 on the protrusion spring 49 can protrude the solution storage container 41.

In this case, the solution replacement unit 39, which receives the driving signal from the control unit 20, collects the protruding solution storage container 41, moves it to the collection unit, and receives the solution storage container 41 containing the new solution. It can be deposited for payment. That is, the solution exchanger 39 collects the used solution storage container 41 into the collection unit 80, receives the solution storage container 41 containing the new solution from the supply unit 70, and stores it in the storage unit 43. It can be stored in .

The solution exchange unit 39 may further include a container holder (39a). The container holder (39a) may be provided at the end of the solution exchange part (39). The container holder 39a may have a concave area corresponding to the inlet of the solution storage container 41 so as to accommodate the inlet of the solution storage container 41. At least two or more container adsorption units (39b) may be provided inside the container holder (39a). The container adsorption portion 39b is in contact with the upper surface of the solution storage container 41 except for the inlet, and can adsorb the solution storage container 41. Accordingly, the solution storage container 41 is adsorbed to the container holder 39a and can be moved to the collection unit.

The solution extraction amount of the solution extractor 50 is determined by the prescription entered in the input unit, and if the amount of solution in the solution storage container 41 is the same as or less than the solution extraction amount, a physical error may occur. Accordingly, it is important to recognize and manage the solution replacement time each week in cosmetics manufacturing equipment. Additionally, depending on the type of solution, it is difficult to determine when to replace the solution when using a light-blocking container.

The present invention can recognize and manage the replacement time of the solution in advance through the above-described configuration. Accordingly, it is possible to prevent physical errors from occurring depending on the amount of solution during solution extraction.

Additionally, in the present invention, since the solution is replaced in a closed space, it is possible to prevent the solution from being contaminated by external contaminants introduced from the outside.

In addition, by using a method of replacing the solution storage container 41 rather than filling the solution storage container 41 by additionally injecting the solution, mixing and contamination of solutions with different manufacturing dates and expiration dates can be prevented. .

Figure 7 is a schematic diagram showing the movement path of the solution extractor shown in Figure 2.

Referring to FIG. 7, the solution extractor containing the solution may move in a curved path along the edge of the selected solution storage container and the adjacent solution storage container in the boundary space detected by the first sensor according to the mixing movement path. First, the driving unit can receive a solution extractor from the supply unit 70 and extract the solution by moving to the solution storage container selected from the input unit. Next, the solution extractor may be stored in the mixing unit 60 by moving along a curved path along the edge of the selected solution storage container and the adjacent solution storage container according to the mixing movement path. Next, when the solution is stored in the mixing unit 60, the driving unit can move the solution extractor from the mixing unit 60 to the collecting unit 80 according to the collection movement path. Once the solution extractor is located on the collection unit 80, the driving unit can collect the solution extractor into the collection unit 80. Here, the collection movement path may be set to an area where the solution storage unit 40 is not placed. In other words, the collection movement path can be set to an external path of the solution storage unit 40 so as not to pass through the upper part of the solution storage unit 40.

In one embodiment of the present invention, since the solution contained in the solution extractor moves along the edges of the plurality of liquid storage containers (41), the solution and the solution extractor can be prevented from passing over the inlet of the solution storage container (41). Accordingly, mixing and contamination of the solution that occurs when the solution and the solution extractor are moved can be prevented, and the solution can be protected from falling bacteria.

Additionally, by reducing unnecessary movement, manufacturing time can be shortened and the efficiency of cosmetics manufacturing can be improved.

Figure 8 is an operation flow chart of the personalized cosmetics manufacturing device shown in Figure 1.

Referring to Figure 8, the user's input is entered and compared and analyzed. At this time, if the input information is judged to have been entered incorrectly based on the prescription or the user's past history, the operation is stopped and the user is notified of the incorrect information.

If the control unit determines that the user's input is appropriate as a result of comparative analysis, the data is saved and operation begins. This information determines the type of solution and mixing ratio of the solution through the signal processing board. Next, the solution extractor is connected through the drive unit, and the solution is extracted using the solution extractor. Afterwards, the driving unit is moved to inject the extracted solution into the mixing unit and the solution extraction unit is removed.

Using the solution extraction unit, the exact amount of solution required can be extracted and injected, and by injecting various solutions into the mixing unit, more accurate mixing tailored to the user's situation can be possible.

As described above, a clean room-like environment is created inside the housing, making it possible to manufacture safer cosmetics without contaminants, and through data processing in the control unit, it is possible to control cosmetics more tailored to the user.

Although the embodiments of the present invention have been described above, the spirit of the present invention is not limited to the embodiments presented in the present specification, and those skilled in the art who understand the spirit of the present invention will understand the spirit of the present invention within the scope of the same spirit, including addition of components, Other embodiments can be easily proposed by changes, deletions, additions, etc., but this will also be said to fall within the scope of the present invention.

100: Personalized cosmetics manufacturing device
10: Housing
11: input unit 13: storage unit
20: Control unit 21: Code recognition unit
23: route setting unit 25: first control unit
27: second control unit 30: driving unit
31x: first moving part 31y: second moving part
31z: third moving part 33: connecting part
34x, 34y: step motor 35a: code detection unit
35b: first detection unit 35c: second detection unit
39: Solution replacement unit 39a: Container holder
39b: container adsorption unit
40: solution storage unit 41: solution storage container
43: Storage part 45: Weight sensing part
47: protrusion 48: opening/closing portion
49: protruding spring 50: solution extractor
60: mixing section 70: supply section
80: Collection department

Claims (9)

A housing having an input unit where the user's status and requirements are input and a storage unit that stores data transmitted from the input unit;
a driving unit located inside the housing;
a control unit connected to the housing, which compares and analyzes the input data with data previously stored in the storage unit and controls the operation of the drive unit according to the results of the comparative analysis;
a solution storage unit located inside the housing and accommodating a plurality of solution storage containers storing solutions;
a solution extractor connected to an end of the driving unit and precisely extracting the solution; and
It consists of a mixing section where the extracted solution is mixed,
The housing is,
a supply unit supplying the solution extractor at a location spaced apart from the solution storage unit;
a collection unit located inside the housing and collecting the solution extractor removed from the drive unit;
A HEPA filter installed on the top of the housing; and
A personalized cosmetics manufacturing device comprising a supply fan connected to the HEPA filter to introduce filtered air into the housing and maintain the inside of the housing at a positive pressure. delete According to claim 1,
The control unit,
A personalized cosmetics manufacturing device further comprising a path setting unit that sets a mixing movement path from the selected solution storage container to the mixing unit and a collection movement path from the mixing unit to the collection unit. According to claim 3,
The driving unit,
A personalized cosmetics manufacturing device that is connected to the control unit and includes a first sensing unit that detects a boundary space formed by arranging the plurality of solution storage containers. According to claim 4,
The mixed movement path is,
A personalized cosmetics manufacturing device that is set to a curved path along the edge of the selected solution storage container and the adjacent solution storage container in the boundary space. According to claim 4,
The driving unit,
A personalized cosmetics manufacturing device connected to the control unit and including a second sensing unit that recognizes the surface level of the solution stored in the solution storage container. According to claim 1,
The solution storage unit,
a receiving portion in which each of the plurality of solution storage containers is stored;
A weight sensing unit connected to the control unit and provided on the bottom of the storage unit to detect the weight of each of the plurality of solution storage containers; and
A personalized cosmetics manufacturing device comprising a protrusion connected to the control unit and protruding each of the plurality of solution storage containers. delete According to claim 1,
The control unit,
A personalized cosmetics manufacturing device, characterized in that when the data input through the input unit is a user stored in the storage unit, the data is stored and compared.