TWM647918U - Container structure for soap crystallization - Google Patents

Abstract

A container structure for soap crystallization, which has a base. There is a chamber inside the base. The chamber has an upward opening and is used for filling with water. The base has a support part formed integrally with the base in the chamber. The support part includes A support column and a plurality of support ribs integrally formed from the inner wall of the base and protruding around the base. The top surface of the support portion receives a breathable layer, and the top surface of the breathable layer is used for placing a soap body. Since the breathable layer has good It has good air permeability, and only uses a single breathable layer to reduce the degree of obstruction to the flow of water vapor, thereby improving the crystallization efficiency, and the one-piece support part is also easy to manufacture.

Description

Container structure for soap crystallization

The invention relates to a container structure for crystallizing soap, and particularly refers to a container structure for soap crystallization that has a simple structure and can improve the efficiency of crystallization.

Press, in the beauty industry, in order to remove the oil buried deep in the pores, crystals precipitated from crystallized soaps such as essential oil soap and enzyme soap are generally used to smear the face. The active enzymes in the crystals can not only cleanse the surface layer of skin, but also It cleans deep pores. Long-term use can also improve skin conditions such as pimples, acne, rough skin, etc., and promote the metabolism of cutin.

The traditional method of precipitating soap crystallization is as follows: first, place a soap body for crystallization in a culture box with a water layer at the bottom, and the soap body is placed on a soap table located in the culture box. On the top, keep a certain distance between the soap body and the water surface to separate the soap body and the water layer. Then, cover the culture box to isolate the outside air. After a period of time, the precipitated crystal particles can be found scattered throughout the culture box. , Finally, open the lid of the crystal culture box and use a crystal scraper to pick out the crystals in the box. The precipitated crystals can be used for skin cleansing and beauty.

However, the above approach has several shortcomings. First, the traditional soap table structure is made of airtight plastic. The bottom surface of the soap body is opposite to the soap table and cannot come into contact with water vapor. Therefore, crystals cannot precipitate, which in turn leads to crystallization. The efficiency is reduced. Secondly, when scraping crystals, in order to prevent the scraping rod from colliding with the crystal culture box, a high degree of coordination between the eyes and hands must be maintained. This makes the process tiring and laborious. If you are not careful, the soap body may be tipped to the bottom of the container. in the water layer, causing the soap body to shrink in size due to water exposure, thereby accelerating the consumption of the soap body.

In order to solve the aforementioned problems, the industry has improved the container structure. For example, Taiwan Patent No. 601034 provides a moisturizing container, which replaces the water layer in the traditional container with a water-absorbing sponge. The sponge is placed at the bottom of the container, and a layer of water is added above the sponge. The air-conducting layer is made of hydrophobic foam or non-woven fabric, and then the soap body is placed on the air-conducting layer. In this way, the bottom surface of the soap body in contact with the air-conducting layer can also contact water vapor and precipitate crystals, and the air-conducting layer Completely separate the sponge and soap body along the inner edge of the container to prevent the soap body from tipping over and directly contacting the water.

However, the aforementioned moisturizing container has an air conductive layer installed between the soap body and the sponge, which prevents water vapor from flowing smoothly and affects the crystallization efficiency. Moreover, the structure of the moisturizing container is relatively complex and has many components, which in turn increases the manufacturing cost. Improvement. In addition, the sponge and air conductive layer need to be put in order during assembly, which is more inconvenient. Therefore, there is still room for improvement.

In view of this, how to improve the above problems is the primary issue to be solved in this article.

One of the purposes of this invention is to provide a container structure for soap crystallization, which has a high efficiency of crystallization and has a support part in the container to ensure the stability of the soap body.

Another purpose of this invention is to provide a container structure for soap crystallization, which has a simple structure and fewer components, thereby reducing the manufacturing cost, and is easy to manufacture because the container and the supporting part are integrally formed.

In order to achieve the aforementioned purpose, this invention provides a container structure for soap crystallization, which includes: A base, which contains a chamber inside. The chamber has an upward opening for filling with water. The base has a support part in the chamber, and the base and the support part are integrally formed; and An air-permeable layer has an opposite bottom surface and a top surface. The air-permeable layer is arranged in the chamber. The bottom surface of the air-permeable layer is in contact with the top surface of the support part, and the top surface of the air-permeable layer is used for placing a soap body.

Preferably, there is an upper cover to detachably cover the opening of the base; and, the outer edge of the opening of the base is retracted to form a first annular shoulder, and the upper cover is formed with a second annular shoulder corresponding to the first annular shoulder. When the upper cover is placed in the opening, the second ring shoulder fits the first ring shoulder so that the upper cover and the base are docked and positioned; and the upper cover is made of transparent material.

Preferably, the support part is composed of a support column, the support column is integrally formed and raised upward from the middle position of the base relative to the bottom surface of the chamber, the top surface of the support column abuts the bottom surface of the breathable layer; and, the support column The height of the top surface is lower than the top surface of the base, so that when the bottom surface of the breathable layer is connected to the top surface of the support column, the side peripheral surface of the breathable layer is against the inner edge of the opening.

Preferably, the support portion is composed of a plurality of support ribs, the plurality of support ribs are integrally formed and protruding from the inner wall surface of the base, and the top surfaces of the plurality of support ribs bear the bottom surface of the breathable layer; and, each support rib The height of the top surface is lower than the height of the top surface of the base, so that the base forms a step portion between the inner wall surface of the chamber and the top surface of each support rib, so that when each step portion receives the bottom surface of the breathable layer, the side periphery of the breathable layer The face rests against the inner edge of the opening.

Preferably, the breathable layer is made of hydrophobic foam or non-woven fabric.

Preferably, the base has grid-shaped grooves relative to the bottom surface of the chamber.

The above-mentioned purposes and advantages of the present invention can be easily understood from the detailed description and drawings of the selected embodiments below.

Please refer to Figures 1 to 4, which show the container structure for soap crystallization provided by this invention, including a base 1, a breathable layer 2 and a top cover 3. However, the disclosure of the above embodiments is only used to illustrate this invention. , is not intended to limit this creation, and any replacement of equivalent components shall still fall within the scope of this creation.

The base 1 contains a chamber 11 inside. The chamber 11 has an upward opening 111 for filling water. In addition, the base 1 includes a support part 12 in the chamber 11. In this embodiment, the support part 12 is made of A support column 121 is composed of a plurality of support ribs 122. The support column 121 is integrally formed and stands upward from the middle position of the base 1 relative to the bottom surface of the chamber 11. The outline of the support column 121 is heart-shaped to add a unique visual effect. In other aspects, other patterns can also be used. A plurality of support ribs 122 are integrally formed and protruding from the inner wall surface of the base 1. The heights of the support pillars 121 and the support ribs 122 are aligned, and each has a top. The surface bears the breathable layer 2. It should be emphasized that the base 1 and the support part 12 are made in one piece. They can usually be made by injection molding or compression molding. The support part 12 is also completed when the base 1 is manufactured. Therefore, the components Manufacturing is relatively easy.

The height of the top surface of the support ribs 122 is lower than the height of the top surface of the base 1 , so that the base 1 forms a step 13 between the inner wall of the chamber 11 and the top surface of each support rib 122 , which can be used to hold the breathable layer 2 , In addition, the base 1 also has a grid-shaped groove 14 relative to the bottom surface of the chamber 11, and the base 1 is retracted to form a first ring shoulder 15 on the outer edge of its opening 111, the purpose of which will be described in detail below.

The breathable layer 2 is made of hydrophobic foam or non-woven fabric and has good air permeability. The breathable layer 2 is in the shape of a disc and has an opposite bottom surface 21 and a top surface 22. In this embodiment, it is breathable. The bottom surface 21 of the layer 2 is placed on the support part 12, and the top surface 22 is used to place enzyme soap or crystallized soap.

In more detail, the bottom surface 21 of the breathable layer 2 is placed on the top surfaces of the support pillars 121 and the support ribs 122. Since the top surface of the support part 12 is lower than the top surface of the base 1, the bottom surface 21 of the breathable layer 2 is placed on the support. When the top surface of the portion 12 is placed, the side peripheral surface of the breathable layer 2 is against the inner edge of the opening 111, so that the breathable layer 2 is laterally restricted in the chamber 11 and cannot move horizontally. It can only be taken or put in from the opening 111. .

The upper cover 3 removably covers the opening 111 of the base 1. The upper cover 3 is made of transparent material, so the crystallization can be directly observed with the naked eye during the crystallization process. The upper cover 3 corresponds to the first ring shoulder. The portion 15 is formed with a second shoulder portion 31. When the upper cover 3 is placed on the opening 111, the second shoulder portion 31 fits the first shoulder portion 15 so that the upper cover 3 and the base 1 are docked and positioned.

The above is a structural description of the structure of the soap crystallization container of this invention. The actual use situation will be explained below with a soap body S. The soap body S is placed in the container and soap crystals are precipitated. The soap body S can be an enzyme soap or Essential oil soap, etc. are not limited. When you want to use the soap crystallization container structure of this invention to precipitate crystallization:

First, water is injected into the container 11. The container 11 is filled with water to form a water surface W, and the water surface W needs to be lower than the top surface of the support part 12. Then, the breathable layer 2 is put into the container 11 from the opening 111. At this time, the top surface of the support part 12 bears against the bottom surface 21 of the breathable layer 2, so that the water surface W and the bottom surface 21 of the breathable layer 2 are kept at a distance, and the top surface 22 of the breathable layer 2 is for the soap S to be placed, and then Cover the upper cover 3, as shown in Figure 3, let the container stand and observe the progress of precipitation through the upper cover 3. After a period of time, as shown in Figure 4, you can observe the crystallization and dispersion in the soap through the upper cover 3. On the body.

To sum up, through the structure of the soap crystallization container of this invention, water vapor can contact the bottom surface of the soap body S through the breathable layer 2, and there is only one breathable layer 2 between the water surface W and the soap body S, so that the water vapor can be There are fewer obstructions and better circulation effects, thereby improving the precipitation efficiency of crystals and also avoiding the risk of the soap body S falling into the water. In addition, the support part 12 of the base 1 limits the freedom of the breathable layer 2 to move downward. The inner edge of the opening 111 limits the freedom of horizontal movement of the breathable layer 2. Through the above-mentioned double restrictions, the breathable layer 2 is more firmly installed in the chamber 11, and can only be taken out or put in through the opening 111. This further improves the bearing stability of the soap body S placed on the breathable layer 2 .

On the other hand, since the chamber 11 is only provided with one breathable layer 2, the number of components of the invention is reduced, the structure is relatively simple, and the base 1 and the support part 12 can be manufactured in one piece, which can also reduce the manufacturing cost and make the soap of the invention crystallize. The container structure can also take into account commercial considerations, is easy to manufacture and low-cost, and is highly practical.

However, the disclosure of the above embodiments is only for illustrating the present invention and is not intended to limit the present invention. All substitutions of equivalent components shall still fall within the scope of the present invention.

To sum up, those skilled in the art can understand that this invention can indeed achieve the aforementioned purpose and is in compliance with the provisions of the Patent Law, so the application can be filed in accordance with the law.

1: Base 11:Room 111:Open your mouth 12: Support part 121:Support column 122:Support rib 13:Stage 14:Trench 15: First ring shoulder 2: Breathable layer 21: Bottom 22:Top surface 3: Upper cover 31: Second ring shoulder S: soap body W: water surface

Picture 1 is a three-dimensional view of this creation; Picture 2 is an exploded view of this creation; Figure 3 is a schematic diagram of the structure of this creation; Figure 4 is a schematic diagram of the use of this creation.

1: Base

11:Room

111:Open your mouth

12: Support part

121:Support column

122:Support rib

13:Stage

14:Trench

15: First ring shoulder

2: Breathable layer

21: Bottom

22:Top surface

3: Upper cover

31: Second ring shoulder

S: soap body

Claims (10)

A container structure for soap crystallization, including: A base, which contains a chamber inside. The chamber has an upward opening and is used for filling with water. The base has a support part in the chamber, and the base and the support part are integrally formed; as well as An air-permeable layer has an opposite bottom surface and a top surface. The air-permeable layer is installed in the chamber. The bottom surface of the air-permeable layer is in contact with the top surface of the support part, and the top surface of the air-permeable layer is used for One soap body is placed. The container structure for soap crystallization as claimed in claim 1, further comprising an upper cover, the upper cover being detachably covering the opening of the base. The container structure for soap crystallization as described in claim 2, wherein the outer edge of the opening of the base is retracted to form a first annular shoulder, and the upper cover is formed with a second annular shoulder corresponding to the first annular shoulder. When the cover is installed in the opening, the second shoulder ring fits the first shoulder part so that the upper cover and the base are butted and positioned. The container structure for soap crystallization as described in claim 2, wherein the upper cover is made of transparent material. The container structure for soap crystallization according to claim 1, wherein the support part is composed of a support column, and the support column is integrally formed and raised upward from the middle position of the base relative to the bottom surface of the chamber. The top surface of the column abuts the bottom surface of the breathable layer. The container structure for soap crystallization as described in claim 5, wherein the height of the top surface of the support column is lower than the height of the top surface of the base, so that when the bottom surface of the breathable layer is connected to the top surface of the support column, the breathable layer The lateral peripheral surface is against the inner edge of the opening. The container structure for soap crystallization according to claim 1, wherein the support part is composed of a plurality of support ribs, the plurality of support ribs are integrally formed and protruding from the inner wall surface of the base, and the plurality of support ribs are The top surface of the ribs receives the bottom surface of the breathable layer. The container structure for soap crystallization as described in claim 7, wherein the height of the top surface of each support rib is lower than the height of the top surface of the base, so that the base is between the inner wall surface of the chamber and the top surface of each support rib. A step portion is respectively formed therebetween. When each step portion receives the bottom surface of the breathable layer, the side peripheral surface of the breathable layer abuts against the inner edge of the opening. The container structure for soap crystallization according to claim 1, wherein the breathable layer is made of hydrophobic foam or non-woven fabric. The container structure for soap crystallization as claimed in claim 1, wherein the base has grid-shaped grooves relative to the bottom surface of the chamber.

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