JP2000256101A - Antibacterial method inside shoes and aerosol injection device used in the method - Google Patents

Abstract

(57) [Summary] [Purpose] The inside of the shoe and the tip inside the shoe are a hotbed of various bacteria. An antibacterial method in a shoe, which is excellent in antibacterial effect by a short-time spraying treatment, and an aerosol spraying device used in the method. [Structure] An aerosol containing an antibacterial agent can be directly sprayed by limiting the distance between the inside tip of the shoe and the button nozzle, spraying direction, spraying amount, etc., or by using a shielding plate to shorten the time. An antibacterial method inside shoes characterized by performing antibacterial treatment over time and an aerosol spraying device used in the method.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

TECHNICAL FIELD The present invention relates to aerosol products. More particularly, the present invention relates to an aerosol product for keeping the inside of shoes clean.

[0002]

2. Description of the Related Art Conventionally, as an aerosol product used for treating the inside of a shoe for antibacterial purposes such as disinfection and deodorization of the shoe, an external opening of the shoe (where a foot is put).
There are only products that spray simply from the vicinity to the inside of the shoe, and in fact, the content of the active ingredient does not reach the inner end of the shoe tip where the most necessary toe portion is stored Or, even if it arrived, it was a very small amount, so it is hardly possible to obtain any effect.Therefore, an appropriate method for treating the inside of shoes with the purpose of disinfection, sterilization, deodorization, deodorization, etc. There was no.

[0003]

There are many germs inside shoes, and the inside tip is a hotbed of those germs. In particular, it has been reported that in boots, which are deep-seated products, there are several ten times as many bacteria as ordinary shoes. As mentioned above, the only aerosol products used inside shoes for antibacterial purposes such as sterilization and deodorization are products that spray-apply from the vicinity of the outer opening of the shoe toward the shoe sole (inside). In addition, the antibacterial performance displayed on the product was almost only an apparent effect, and in fact, no product was expected to be effective.

[0004]

The inventor of the present invention has made the following measures so as to eliminate the drawbacks and to perform a process for efficiently and effectively obtaining an antibacterial effect inside the shoe without damaging the shoes.

That is, according to the present invention, (1) a content component solution containing at least one or more antibacterial agents is sealed in an aerosol container, and the distance between the inside tip of the shoe to be processed and the button nozzle of the aerosol container is 23. The button spout is positioned within a centimeter, and the button spout is positioned in a direction directly facing the inside tip of the shoe. An antibacterial method inside shoes, wherein the inside of shoes is subjected to antibacterial treatment by spray coating. (2) The antibacterial method inside shoes according to the above (1), wherein the antibacterial treatment is performed by inverting the aerosol container body. (3) A content component liquid containing at least one or more antibacterial agents is sealed in an aerosol container, a shielding plate is attached to an opening of the shoe, and the content component liquid of the aerosol container is sprayed into the shoe via the shielding plate. The antibacterial method in a shoe, characterized in that the spray fog sprayed into the shoe spreads the inside of the shoe in a state of spreading to every corner of the shoe. (4) The antibacterial method inside shoes according to the above (3), wherein the aerosol container body is inverted to perform antibacterial treatment. (5) A content component liquid containing at least one or more antibacterial agents is sealed in an aerosol container, a contact surface portion of a shoe inner sole is provided at the top of a button of the aerosol container, and an injection amount of the content component liquid is 3 per 30 seconds. An aerosol spraying device for use in an antibacterial method inside shoes, wherein the aerosol is not less than milliliter. (6) The button body or a part of the button body is formed into a shape of a shoe, a foot, an animal, or a character, and a spout is provided in a front direction such as a shoe tip, a foot tip, and a face. An aerosol injection device used in the antibacterial method inside shoes according to 5). (7) A content component liquid containing at least one or more antibacterial agents is sealed in an aerosol container,
A nozzle is provided on the button of the aerosol container, and a nozzle is provided at the end of the nozzle at a right angle to the direction of extension of the nozzle, or a nozzle having a center of injection between 30 degrees and 150 degrees. The aerosol spraying device used in the antibacterial method inside shoes, wherein is less than 3 milliliters per 30 seconds. (8) An antibacterial method in shoes, characterized in that a content component liquid containing at least one antibacterial agent is sealed in an aerosol container, and a shield plate for a shoe opening is provided behind a button of the aerosol container. Aerosol injection device used for (9) The aerosol injection device used in the antibacterial method inside shoes according to the above (8), further comprising a shielding plate capable of changing an area covering an opening of the shoe. (10) The aerosol spraying device used in the antibacterial method inside shoes according to (8) or (9), wherein the cap body serves as a shielding plate. (11) The aerosol injection device used in the antibacterial method inside shoes according to any one of (8) to (10), wherein the shielding plate has a button insertion hole.

[0006]

Next, working examples will be described in order to enhance the understanding of the present invention. However, the present invention should not be understood as being limited to this embodiment.

First, the antibacterial agent used in the present invention will be described. Although there is no specific rule on antibacterial in the law, the terminology "antibacterial" means "sterilization""sterilization""bacterialelimination"
It is meant to include all such as "antibacterial"("All of Antibacterial" published by Textile Co., Ltd.-published on September 5, 1997). Therefore, the antimicrobial agent claimed in the present invention includes all agents generally called a sterilizing agent, a bactericide, a disinfectant, and a bacteriostatic agent. There is something like that.

Organic acids such as benzoic acid, benzoates, salicylic acid, carboxylic acid, sorbic acid, potassium sorbate and salts thereof, dehydroacetic acid, sodium dehydroacetate, ethyl parahydroxybenzoate, methyl paraoxybenzoate, propyl paraoxybenzoate; Hexachlorophene, boric acid, resorcinol, tribromosalan, phenol, isopropylmethylphenol, orthophenylphenol, cresol, chlorxylenol, chlorcresol, thymol, parachlorophenol, parachloromethcresol, resorcinol, cetylpyridinium chloride, benzalco chloride , Benzethonium chloride, chlorhexidine, chlorhexidine hydrochloride, chlorhexidine gluconate, alkylisoquinolinium bromide, thiram, photosensitive element 101, Hikarimoto No. 201, photosensitizer 301
No. 401, phenoxyethanol, trichlorohydroxydiphenyl ether (triclosan), zinc pyrithione, chlorobutanol, trichlorocarbanide, 3-trifluoromethyl-4,4'-dichlorocarbanilide (halocarban), trichlorosalicylanilide ( TCSA), tribromosalicylanilide,
Inorganic compounds such as mercury compounds, formalin, white calomel, bitionol, boric acid and borax, dichlorophen, hexachlorophen, halogenated salicylanilide << tribromosalan (TBS), dibromosalan (DBS), metabromosalan (MBS ) >>, sulfur-containing substances such as chloramine T, thiantol, chamomile (containing azulene), oils such as eucalyptus oil, hinokitiol, catechin, grapefruit extract, cocoalkyldimethylbenzylammonium chloride, didecyldimethylammonium chloride, dioleyl A surfactant such as dimethylammonium chloride can be exemplified.

[0009]

FIG. 1 is an external perspective view including a partial longitudinal sectional view showing a first embodiment of the present invention. 1 is an aerosol container main body, 2 is a button main body, 3 is an injection hole, 4 is an inner bottom contact surface portion, 5
Is a shoe and 6 is an inner sole of the shoe. How to use will be explained. The first embodiment is an example of the case where the aerosol container body 1 with the button body 2 is inserted upside down into the shoe 5 and the shoe 5 is processed with the shoe 5 down. The aerosol container body 1 is inserted into the shoe 5 with the nozzle 3 of the button body 2 facing the inner end 15 of the shoe tip. After insertion, button body 2
When the aerosol container main body 1 is held down with the bottom or side surface of the aerosol container main body 1 in a state where the inner bottom contact surface portion 4 of the aerosol container main body 1 is in contact with the inner bottom 6 of the shoe 5, When a certain valve core 7 is opened, the component liquid in the aerosol container main body 1 is jetted from the injection port 3 in the button main body 2 connected to the valve core 7.
Since the nozzle 3 faces the inner tip of the shoe 5, the contents can be efficiently applied to the inner tip of the shoe, so that the internal processing can be performed in a form that is excellent in efficiency and effect. At this time, when the aerosol container main body 1 is inside the shoe 5 or in the upper portion near the opening 9, the aerosol container main body 1 covers the opening 9 entirely or partially of the shoe 5. To become
The spray of the mist of the sprayed content component liquid is prevented from leaking from the opening 9 of the shoe 5, so that the active ingredient-containing content at the time of processing is more efficiently and effectively applied in the shoe 5.

FIG. 2-1 shows an example of the button body 2 in which the inner bottom surface 4 of the button body 2 used in the present invention is grooved so that it does not slip on the inner bottom 6 of the shoe during use. FIG. 2B is a perspective view showing the appearance, and FIG. 2-2 shows that the inner bottom contact surface 4 of the button body 2 reduces the contact with the inner bottom 6 of the dirty shoe.
It is an external appearance perspective view showing an example of button body 2 which provided projection 8 in inner bottom contact surface part 4 of button body 2, and said projection 8 has a non-slip effect at the same time. FIG. 2-3 is an external perspective view showing an example of the embodiment of the present invention in which the button body 2 is shaped like a shoe. By making the shape of the button body 2 into a character such as a shoe or a foot, a person or an animal, the direction of the spray can be instantaneously confirmed when the spray application is performed and the aerosol container body 1 is directed toward the shoe 5 and set. By doing so, the antibacterial treatment can be performed simply and reliably.

[0011]

Embodiment 2 FIG. 3 is an external view including a partial sectional view showing a second embodiment of the present invention. In the second embodiment, the shielding plate 10
This is an example of a case in which the button body 2 having the above function is used and the shoe 5 is used in a state where the shoe 5 is placed below. The button body 2 shown in FIG. 3 also has a shielding plate 10. 1 is an aerosol container main body, 2 is a button main body, 3 is a nozzle, 4 is an inner bottom contact surface part,
5 is a shoe, 6 is an inner sole of the shoe, and 10 is a shielding plate. The aerosol container body 1 is held upside down and inserted into the shoe 5. After the insertion, the user holds the aerosol container body 1 and pushes it down (to the side of shoes), so that the valve core 7 in the aerosol container body 1 is pressed.
Is opened, and the content component liquid in the aerosol container main body 1 is jetted from the injection port 3 in the button main body 2 connected to the valve core 7. Since the nozzle 3 faces the inside of the shoe tip, the active ingredient-containing content can be efficiently applied to the inside of the shoe tip. In addition, the content sprayed due to the presence of the shielding plate 10 can be applied to the inside of the shoe without scattering to the outside of the shoe or with only a small amount of scattering, so that it is more efficient and effective. Internal processing can be performed in an excellent manner. Also, after the application, by keeping the shielding plate 10 as it is inside the shoe 5 for a while, the content component liquid is retained in the shoe while the concentration is high, so that the effect is further improved and the processing is improved. It will be sure.

FIG. 4 shows a shielding plate 10 used in the second embodiment.
FIG. 1 is an external perspective view showing an example of a button main body 2 which also has a function. 2 is a button body, 10 is a shielding plate, 3 is a nozzle, and 4 is an inner bottom contact surface portion.

FIG. 5 shows a shielding plate 10 used in the second embodiment.
FIG. 3 is an external perspective view showing an example of the button body 2 when the button body 2 having the function of the button body 2 can be separated into the button body 2 and the shield plate 10. 2 is the button body, 1
Reference numeral 0 denotes a shielding plate, 3 denotes an injection port, and 4 denotes an inner bottom contact surface portion. By making the button body 2 and the shield plate 10 separable, if a plurality of shield plates 10 are formed and the shield plate 10 is left on each shoe 5, a plurality of shoes can be processed at once. Become.

When the present invention is carried out and, for example, an antibacterial treatment is performed, a complete antibacterial treatment can be performed by leaving the shielding plate 10 in the shoe 5 and leaving it for a certain period of time every time the spraying treatment is performed. You can do it.

FIG. 6 shows that the button body 2 also having the shielding plate 10 used in the second embodiment includes the button body 2 and the shielding plate 1.
The shielding plate 10 shown in FIG.
FIG. 2 is an external perspective view showing an example of a shielding plate 10 in which a shielding portion can be adjusted to an arbitrary size. 10-1, 10
-2 is a shielding plate, 11 is a set pin, and 12 is a pin hole. In practicing the present invention, the size of the shielding plate 10 (10-1, 10-2) is adjusted according to the size of the opening of the shoe 5, and set inside the shoe 5, and the processing is started.
6-1 is an external view of the shielding plate 10 before size setting, 6-2.
Shows an external view of the shielding plate 10 after the size setting.

[0016]

Embodiment 3 FIG. 7 shows that the portion corresponding to the inner bottom surface 4 of the button body 2 does not contact the inner bottom 6 of the dirty shoe.
In addition, when antibacterial treatment is applied to a deep boot or the like, a part of the shielding plate 10 is hooked on the upper edge of the shoe 5 so that the present invention can be effectively implemented. A third embodiment in which the present invention in which the undiluted component liquid is injected into the shoe in a substantially sealed state using the button body 2 of the present invention having the above and the spray fog stays inside the shoe for a long time is used. FIG. Thus, for each of the reasons described below, the shield plate 10 is left in the shoe every time the spraying process is performed, and is left for a certain period of time. Antibacterial treatment can be applied to every corner inside the shoe tip.

The button body 2 shown in FIG. 7 also has a shielding plate 10, and a hook-shaped projection 14 on the outer periphery of the shielding plate 10 so as to hang on the upper edge of the shoe. It has a projection 14. 1 is an aerosol container body,
2 is the button body, 3 is the spout, 5 is the shoe, 6 is the inner bottom of the shoe, 1
0 is a shielding plate. How to use will be explained. As in the case of the first embodiment, when the shoe 5 is used with the shoe body down, the aerosol container body 1 is inserted into the shoe 5 with the button body 2 down, and the hook-shaped protrusion 14 is It is set so as to hang on the upper edge 12 of the shoe as shown in FIG. After setting
Holding the bottom or side of the aerosol container body 1 and pressing it down (shoe side) opens the valve core 7 in the aerosol container body 1, and opens the aerosol container body 1 through the nozzle 3 in the button body 2 connected to the valve core 7. The content component liquid that was inside is injected into the shoe 5. When the nozzle 3 is designed so as to face the inside tip 15 of the shoe and reach the inside tip of the shoe 5, the contents can be directly and efficiently applied to the inside tip and every corner of the shoe. Due to the presence of the shielding plate 10, the sprayed contents can be applied to the inside of the shoe without scattering to the outside of the shoe or with a small amount of scattering. Can process.

Here, when the shielding plate 10 is to be kept in the shoe 5 for a while after the spraying, it is designed so that the injection port 3 does not face the inner end portion 15 of the shoe tip and the jet directly reaches the inner tip of the shoe. By leaving it for a certain period of time even when it is not in use, the content component liquid stays in the shoe 5 with a high concentration, so the effect is further improved, and the antibacterial treatment is completely completed up to the inner tip of the shoe. Can be done. That is, in this case, the effect can be sufficiently exhibited even when the nozzle 3 is not directed to the shoe tip. In order to carry out the present invention in such a manner that the aerosol container body 1 is removed each time the spraying process is performed, in other words, each time the spraying to one shoe 5 is completed, and only the shielding plate 10 is left inside the shoe 5 as it is. For example, a button insertion hole 17 is provided in the shield plate 10, a button body step 16 is provided in the button body 2 attached to the aerosol body 1, and the button body 2 is inserted into the button insertion hole 17 of the shield plate 10 at the time of spraying. Button body step 1
6 is applied to the shielding plate 10. After spraying the component liquid inside the shoe 5, the aerosol body 1 is removed while the shielding plate 10 is left inside the shoe 5, and another shielding plate 10 is attached to another shoe to perform the same operation. Good.

[0019]

Fourth Embodiment FIG. 8 shows a button body 2 having a nozzle 13 having a nozzle 3 having an injection center at the end of the nozzle 13 at right angles to the direction of extension of the nozzle, or between 30 degrees and 150 degrees. 1 is an external view showing an example of an embodiment of the present invention. FIG. 9 is a conceptual diagram showing the relationship between the direction in which the nozzle 13 extends in the nozzle 13 used in the fourth embodiment and the center of the injection of the injection port 3.
A is 30 degrees (or 150 degrees), B is 90 degrees, C is 150 degrees
Indicates the position in degrees (or 30 degrees). The usage is as follows. The nozzle 13 is inserted through the opening 9 of the shoe, the nozzle 3 is directed toward the tip of the shoe, the button body 2 is operated, and the valve core 7 in the aerosol container body 1 is opened. The content component liquid in the aerosol container main body 1 is jetted from the injection port 3 of the nozzle 13 in the button main body 2. Although the injection port 3 is used toward the inside of the shoe tip, it does not extend to the first to third embodiments, but it can still sufficiently and efficiently apply the component liquid to the inside of the shoe tip, so that the inside of the shoe is excellent in efficiency and effect. Can process.

In each of the above-described embodiments, there is no difference in the effect and the effect when the shoe 5 is implemented at a position above the aerosol container main body 1 or at a position below the aerosol container main body 1. Further, the method of opening the valve core 7 in the aerosol container main body 1 when carrying out the present invention does not cause any problem with any method conventionally used as an aerosol product. Similar results can be obtained. Inclusion of an antibacterial agent in the resin used for the button body 2 is effective in preventing bacteria attached to the button body 2 from growing after work and preventing germs from sticking to hands and the like during implementation of the present invention. Means.

[0021]

[Effect test examples] In order to compare the effects of the present invention, a test was performed in the following procedure. (1) Preparation of content component liquid (aerosol product formulation)

[Table 1] Active ingredient solution (the following composition) 50% by volume (0.7% by weight of phenoxyethanol) (0.2% by weight of ethyl paraben) (0.5% by weight of propylene glycol) (98.6 of ethyl alcohol) % By weight) Propellant (the following composition) 50% by volume (20.0% by weight of DME) (80.0% by weight of LPG)

[Table 2] Active ingredient solution (the following composition) 50% by volume (0.7% by weight from PREVENTOL EX / Bayer) (Purier N / 2.5% by weight from Matsushita Electric Works, Ltd.) Puriere S / 2.5% by weight manufactured by Matsushita Electric Works, Ltd. (Propylene glycol 1.5% by weight) (Purified water 27.8% by weight) (Ethyl alcohol 65.0% by weight) Propellant (the following composition) 50 Capacity% (LPG 100.0% by weight)

[Antibacterial effect test 1] (Difference test of antibacterial effect due to difference in injection amount) Each of the prescription [Table 1] and the prescription [Table 2] was dispensed into each aerosol container, and the core hole of the valve and the Adjusted by the nozzle diameter of the button, the injection amount per 30 seconds was 2g, 3g, 4g, 5g, 7g, 10g, 15
g, 30 g, 45 g, 60 g, 75 g, and 85 g of the aerosol were prototyped and manufactured. The spray application time of the active ingredient stock solution was set to 1 second from a distance of 17 cm from the shoe inner tip toward the shoe inner tip. Injection, injection for 2 seconds,
Injection was performed for 3 seconds, 10 seconds, 15 seconds, 20 seconds, and 25 seconds, and the antibacterial effects of the following challenge bacteria were compared.

The challenge bacteria used to compare the antibacterial effects used were challenge bacteria grown from adult socks. The challenge bacterium was inoculated into the inside of a shoe tip of a men's shoe manufactured so as to be disassembled and assembled. In this test, 2 g, 3 g, 4 g, 5 g, 7 g, 10 g
g, 15 g, 30 g, 45 g, 60 g, 75 g, 85 g
Each injection amount is an injection amount rounded off at the first digit because production at a rated injection amount (for example, 2 g to 2.0 g) was impossible. In the test of the antibacterial effect of the challenge bacterium, the side of the shoe was measured 3 cm from the center of the tip inside the shoe.

The criteria for the antibacterial effect were as follows: ：: The effect was confirmed to be effective, △: The effect was effective, but the effect was a little anxious, ×: The effect was judged to be ineffective or effective It was difficult to do. Regarding the internal state, ：: applied and left no problem after 3 minutes, Δ: applied and left slightly moist after 3 minutes, ×: uncomfortable such as moist after 3 minutes What was there. The test results of the antibacterial effect were as follows. Tables 3-1 and 3-2 show the results of the injection for 1 second, and Tables 3-3 and 3-4 show the results of the injection for 20 seconds. 2
Tables 3-1 and 3 show the results of the injections for seconds to 15 seconds.
-2 and Tables 3-3 and 3-4 were omitted, so the posting was omitted.

[Results of Antimicrobial Test] As shown in Tables 3-1 to 3-4, the antimicrobial effect was not obtained unless the injection amount per 30 seconds was 3 g or more.
(Here, in the claims of the present invention, the injection time is set to 20
The reason for setting the time to be less than second is that if the time exceeds 20 seconds, it takes a long time to inject the content liquid from the aerosol container, and this gives the antibacterial work troublesome. )

[0028]

[0029]

[Antimicrobial effect test 2] (Test of difference in effect depending on injection distance) The injection amount of the above-mentioned prescription [Table 1] and prescription [Table 2] was 3 g and 20
g, 15 cm, 20 cm, 23 cm,
The active ingredient stock solution was sprayed onto the inside tip of the shoe for 3 seconds from a distance of 24 cm, 25 cm, or 26 cm, and the antibacterial effects of the challenge bacteria were compared. In the test of the antibacterial effect of the challenge bacterium, a side portion 3 cm from the center of the inside tip of the shoe was measured inside the shoe. The criteria for the antibacterial effect were as follows: ：: The effect was confirmed to be effective, も の: The effect was effective but a little uneasy about the effect, ×: It was difficult to judge that the effect was ineffective or effective Things.

[Antibacterial Test Results] The test results of the antibacterial effect were as follows. Table 4-1 shows the results when the injection amount was 3 g, and Table 4-2 shows the results when the injection amount was 20 g. Table 4 also affects the relationship between the nozzle and the position of the shoe opening.
As can be seen from Tables -1 to 4-2, the antibacterial effect could not be said to be obtained unless it was within 23 cm.

[0032]

[0033]

[Antibacterial effect test 3] (Antibacterial effect test based on difference in treatment method for shoes) Using the above-mentioned prescription [Table 1] having an injection amount of 15 g, the following effect tests were performed. The active ingredient stock solution was spray-coated for 3 seconds from each predetermined position toward each predetermined position inside the shoe, and the antibacterial effects of the challenge bacteria were compared. In the test of the antibacterial effect of the challenge bacterium, a side portion 3 cm from the center of the inside tip of the shoe was measured inside the shoe.

[Preparation of bacteria and criteria for determination] In order to compare the efficacy and the effect, challenge bacteria grown from adult socks were inoculated into the boots of women's short boots. An ingredient-containing content was prepared to prepare an aerosol disinfectant. Each of the aerosol disinfectants was sprayed for 3 seconds and 5 seconds, and each of the two sprayed was prepared.
The state of the bacteria after standing for a period of time was examined and determined. The evaluation results were ranked as ◎: remarkable effects, も の: those that can be judged to be effective, Δ: those that are difficult to judge that there is or were not effective, and ×: those that were not effective.

Effect test 1: The effect test was carried out as in Example 1 described above, and was set as effect test 1. That is, the button body 2 of the first embodiment
The aerosol container body 1 with the mark was inserted into the shoe 5 upside down and processed. Effect test 2: The aerosol container main body 1 was inserted in a state where the shoes were placed under the button main body 2 having the shielding plate 10 of the above-described second embodiment, and the test was performed. Effect test 3: A part of the button body 2 of the third embodiment described above is
Using the button body 2 of the present invention having the hook-shaped projections 14 to be hooked on the upper edge of the shoe, the processing was carried out with the shielding plate 10 left after the processing. Effect test 4: Using the button body 2 having the nozzle 13 having the injection port 3 having the injection center at right angles to the extension direction of the nozzle of Example 4, the injection was performed through the opening 9 of the shoe.

Comparative test 1: A content component liquid having the same content formula as in the effect test was prepared, and a conventional nozzle (0.4 mmφ) was used.
Was sprayed and applied from the opening 9 of the shoe 5 using the straight button of the above. Comparative test 2: A content component liquid having the same content formulation as that of the effect test was prepared, and sprayed and applied from the opening 9 of the shoe 5 using a break-up button of a conventional nozzle (0.4 mmφ).

[Antibacterial test results] The test results of the antibacterial effect were as shown in Table 5. It can be seen that the antimicrobial treatments of Examples 1 to 4 of the present invention are clearly performed better than the comparative examples.

[0039]

As described above, in the present specification, formulation examples using only an antibacterial agent component are given, and only examples in which an antibacterial test was carried out using them are shown. However, as agents used in the present invention, in addition to the antibacterial agent, Deodorant component, fragrance component such as fragrance,
Antiperspirant component, drug carrier made of silicic anhydride and other metal salts used to maintain antibacterial and fragrance effects, hygroscopic agent, and other surfactants used to control permeability, antibacterial properties, and spray condition Agents, alcohols, hydrocarbon oils,
Various chemicals such as silicones, fine particles such as organic or / and inorganic powders can be mixed and used, and adding these does not depart from the present invention.

[0041]

According to the present invention, a mechanism capable of applying the active ingredient-containing content at a high concentration to the inside tip portion 15 of the shoe, which is a portion where a large amount of bacteria are present, enables efficient and effective treatment of the inside of the shoe 5. Can be Further, when the shielding plate 10 is used, the sprayed contents can be applied to the inside of the shoe in a small amount without scattering to the outside of the shoe. In addition to the internal processing, it does not pollute the external environment. When the shielding plate 10 is held in the opening 9 of the shoe 5 for a certain period of time after spraying by using the shielding plate 10, efficient and effective processing can be performed even when the nozzle 3 is not directed toward the inside of the tip of the shoe. This is particularly effective for processing long boots. Holding the shield plate 10 for a while inside the shoe after application with the orifice 3 facing the shoe inner tip 15 means that the content of the shoe is higher at the shoe inner tip 15 and the Since the stagnation occurs, the effect is further improved, and the processing can be ensured in a shorter time.
As is clear from the test results of the effect test described above, the practice of the present invention makes it possible to reduce the antibacterial treatment or the like of the shoe inner tip portion 15 which was conventionally only incompletely treated so that the effect was remarkably exhibited. It became certain.

[Brief description of the drawings]

FIG. 1 is a partial longitudinal sectional external view showing an example of an antibacterial treatment according to the present invention.

FIG. 2A is an external perspective view showing an example of the embodiment of the present invention. 2-2 is an external perspective view showing an embodiment of the present invention.
2-3 is an external perspective view showing an embodiment of the present invention.

FIG. 3 is a partial longitudinal sectional external view showing an example of an embodiment of an antibacterial treatment according to the present invention.

FIG. 4 is an external perspective view showing an example of the embodiment of the present invention.

FIG. 5 is an external perspective view showing an example of the embodiment of the present invention.

FIG. 6A is an external perspective view illustrating an example of the embodiment of the present invention. 6-2 is an external perspective view showing an embodiment of the present invention.

FIG. 7 is a partial vertical cross-sectional external view showing an example of an antibacterial treatment according to the present invention.

FIG. 8 is a partial vertical cross-sectional external view showing an example of an antibacterial treatment according to the present invention.

FIG. 9 is an external perspective view showing an embodiment of the present invention.

[Explanation of symbols]

 1 is an aerosol container main body 2 is a button main body 3 is a nozzle 4 is an inner bottom contact surface 5 is a shoe 6 is an inner bottom of a shoe 7 is a valve core 8 is a projection 9 is an opening 10 is a shielding plate 10-1 is a shielding plate 10-2 Is a shield plate 11 is a set pin 12 is a pin hole 13 is a nozzle 14 is a hook-like projection 15 is a tip inside a shoe 16 is a button body step 17 is a button insertion hole A is a jetting direction B is a jetting direction C is a jetting direction Direction

Claims (11)

[Claims] An aerosol container is filled with a component liquid containing at least one antibacterial agent, and a distance between a front end of the shoe, which is a surface to be treated, and a button nozzle of the aerosol container is within 23 cm. And, by positioning the button nozzle in a direction in which the button nozzle directly faces the inside tip of the shoe, the amount of spray per 30 seconds is 3 milliliters or more, and the tip of the shoe is directly spray-coated for 20 seconds or less. An antibacterial method inside shoes, wherein the inside of shoes is subjected to antibacterial treatment. 2. The antibacterial method inside shoes according to claim 1, wherein the antibacterial treatment is performed by inverting the aerosol container body. 3. A component solution containing at least one antibacterial agent is sealed in an aerosol container, a shielding plate is attached to an opening of the shoe, and the content component solution of the aerosol container is inserted into the shoe via the shielding plate. The spray fog that injects and injects into the shoe,
An antibacterial method in a shoe, characterized in that the inside of the shoe is antibacterial in a state where it reaches every corner of the shoe. 4. The antibacterial method in a shoe according to claim 3, wherein the antibacterial treatment is performed by inverting the aerosol container body. 5. A content component liquid containing at least one antibacterial agent is sealed in an aerosol container, a contact surface portion of a shoe inner sole is provided at the top of a button of the aerosol container, and a spray amount of the content component liquid is 30 seconds. An aerosol spraying device used in an antibacterial method inside shoes, wherein the aerosol spraying amount is 3 ml or more per shoe. 6. The button body or a part of the button body is formed in a shape of a shoe, a foot, an animal, or a character, and a spout is provided in a front direction such as a shoe tip, a foot tip, and a face. An aerosol injection device used in the antibacterial method inside shoes according to claim 5. 7. A content component liquid containing at least one antibacterial agent is enclosed in an aerosol container, a nozzle is provided on a button of the aerosol container, and a nozzle is provided at an end of the nozzle at right angles to the direction in which the nozzle extends. An aerosol spray device for use in an antibacterial method inside shoes, wherein a spray hole having a center of spray is provided between 150 ° and 150 °, and a spray amount of the content component liquid is 3 ml or more per 30 seconds. 8. The inside of a shoe, characterized in that a content component liquid containing at least one antibacterial agent is enclosed in an aerosol container, and a shield plate for a shoe opening is provided behind a button of the aerosol container. Aerosol injection device used for antibacterial method. 9. The aerosol spraying device used in the antibacterial method in a shoe according to claim 8, further comprising a shielding plate capable of changing an area for closing the opening of the shoe. 10. The aerosol spraying device used in the antibacterial method inside shoes according to claim 8, wherein the cap body serves as a shielding plate. 11. The aerosol spraying device according to claim 8, wherein said shielding plate has a button insertion hole.