JP6974074B2 - A long-term maintenance method for the reducing function of strongly electrolytic alkaline reduced water used in cleaning lotion - Google Patents

Description

In the present invention, by adding and mixing hydrated electron water to strongly electrolytic alkaline reduced water, the ORP (oxidation-reduction potential) maintains a negative potential for a long period of at least 6 months, and the cleaning ability and permeation during that period. While maintaining the reducing functions such as property, moisturizing property, and bactericidal ability, the cleaning ability is maintained for a long period of time by using the strongly electrolytic alkaline reduced water to which the hydrated electron water is added and mixed as the cleaning cosmetic water. It relates to a method for maintaining the reducing function of strongly electrolytic alkaline reduced water for a long period of time.

Generally, it is said that if the ORP is +200 mV (vs. Ag. / AgCl) or less, it has a reducing function. On the other hand, strongly electrolytic alkaline reduced water is active water having a reducing function such as excellent detergency, permeability, moisturizing property, and bactericidal ability at pH 11 or higher and ORP-200 to -900 mV, and is called functional water. The strongly electrolytic alkaline reduced water having the above-mentioned excellent properties is widely used at present as a raw material water for many cosmetics or cosmetics. In particular, it is considered desirable that the detergency of the strongly electrolytic alkaline reduced water has a large negative potential of the ORP value. The pH of the strongly electrolytic alkaline reduced water is relatively stable, but the ORP value easily increases with the passage of time and shifts from a negative potential to a positive potential. Further, it is considered that the reducing function of the strongly electrolytic alkaline reduced water is mainly caused by hydrogen generated by electrolysis of water. This is clear from the fact that hydrogen is detected when the hydrogen concentration is actually measured with a dissolved hydrogen meter. However, since hydrogen is a gas that is difficult to dissolve in water, it easily evaporates. Therefore, the ORP value easily rises with the passage of time, and changes from a negative potential to a positive potential. Along with this, there is a problem that the reducing functions such as detergency, permeability, moisturizing property, and bactericidal ability of strongly electrolytic alkaline reduced water are gradually lost.

By the way, the applicant of the present application owns Patent No. 4390125 for "name of invention, cosmetics or cosmetics using strongly electrolytic alkaline reduced water" shown in Patent Document 1 below. As described above, the pH of the patented cosmetic water or the strongly electrolytic alkaline reduced water which is the raw material water for cosmetics is relatively stable, but the ORP value easily increases with the passage of time from a negative potential to a positive potential. As a result, there is a problem that the reducing functions such as the detergency, permeability, moisturizing property, and bactericidal ability of the strongly electrolytic alkaline reduced water are gradually lost.

Japanese Patent No. 4390125

The present invention has been made to solve the above problems, and hydrated electron water is added and mixed with strongly electrolytic alkaline reduced water having a pH of about 12.0 to 12.5 and an ORP of about -200 to -900 mV. By doing so, the ORP maintains a negative potential of -50 mV or less for a long period of at least 6 months to maintain the reducing function, and the strongly electrolytic alkaline reduced water to which the hydrated electronic water is added and mixed is used for cleaning. It is an object of the present invention to provide a method for maintaining the reducing function of strongly electrolytic alkaline reduced water for a long period of time, which can maintain the detergency for a long period of time by using it as a cosmetic water.

In the present invention, the konnyakui powder, which is the first base material, is put into water, mixed and stirred, the konnyakui powder is dissolved in water, and the stirring operation is continued until the stickiness is obtained. To make a konjac moist solution having a property, and to the konjac moth solution having the adhesiveness, with 30% by weight of tolumarin fine powder as a second base material and a third base material with respect to the weight of the konnyaku moth solution. 30% by weight of a certain charcoal fine powder is mixed, and 5% by weight of ceramic fine powder having far infrared radiation characteristics such as horn flash stone and granule rock is added and mixed as an additive, and the mixture is stirred and mixed. In addition, 3% by weight of sodium carbonate is mixed as a solidifying material in the mixed solution of the additive material, and this is melted in boiling water to semi-solidify to form a small spherical molded body, and the molded body is put into boiling water for about 1 After boiling for about 3 hours to solidify the molded product to a hardness of about konjac, the molded product is taken out from boiling water, rapidly frozen at about -100 ° C., and then the rapidly frozen molded product. Is vacuum-dried at about 40 ° C. to remove water from the molded body to produce a small spherical electron generator.
A partition wall having a large number of small holes for ventilation is fixed to a cylindrical body having small diameter portions at both ends, and the gap between the partition walls is used as a storage portion for the electron generator and the storage portion. A plurality of annular magnets are fixed to the inner peripheral wall surface of the portion at intervals in the circumferential direction to form a hydrated electron water generator.
Further, the large number of electron generators are housed in the storage portion of the hydrated electron water generator, one small diameter portion is connected to the blower via a connecting tube, and the blower tube is connected to the other small diameter portion. Te, was charged with the distal end opening portion of the air blowing tube into the tank water, and blown to the storage portion to start the blower, contact the blown air to the surface of each electron generating body that is formed into small spheres and then, before expediting wind speed in the other small-diameter portion of the hydrated electron water producing device SL through the blowing tube to inject strong wind in the water of the aquarium, by pre SL strong wind is injected into water, the water in the water tank is being turbulent mixing occurs many ultrafine bubbles, while hydrated electrons water is generated,
Reduced water obtained by electrolyzing pure water using a 3-chamber type electrolytic tank, having a pH of about 12.0 to 12.5 at the time of production and a strong ORP of about -200 to -900 mV. In the electrolytic alkaline reduced water, 3.0 to 10.0% by weight of the generated hydrated electron water with respect to the weight of the strongly electrolytic alkaline reduced water, or in the strongly electrolytic alkaline reduced water, the hydrated electrons. Add and mix 3.0 to 5.0% by weight of water and 1.0 to 5.0% by weight of coconut oil fatty acid PEG-7 glyceryl or 1.0 to 5.0% by weight of lauryl glucoside as an activator. By adopting the means of doing so, the above problem was solved.

The strongly electrolytic alkaline reduced water produced by adding and mixing the hydrated electronic water of the present invention maintains a negative potential with an ORP of -50 mV or less for a long period of at least 6 months or more, and maintains a reducing function. By using the strongly electrolytic alkaline reduced water to which the hydrated electron water is added and mixed as the cleaning cosmetic water, the cleaning ability can be maintained for a long period of at least 6 months or more, and thus the cleaning cosmetic water can be used. It can be used for a long time and is extremely beneficial to consumers.

It is a vertical sectional view which shows the generator of hydrated electron water used for the long-term maintenance method of the reducing function of the strongly electrolytic alkaline reduced water of this invention. ORP value of strongly electrolytic alkaline reduced water mixed with hydrated electron water generated by changing the mixing ratio of hydrated electron water added to and mixed with strongly electrolytic alkaline reduced water and strongly electrolytic alkaline reduced water not mixed with hydrated electron water. It is a graph which shows the time-dependent change of. The hydrated electron water mixture produced by the method for maintaining the reducing function of the strongly electrolytic alkaline reduced water of the present invention for a long period of time is not mixed with general-purpose purified water and hydrated electron water for comparison. It is an evaluation table of a cleansing (detergency) test after using strongly electrolytic alkaline reduced water as a cosmetic water for cleaning and applying a foundation, which is a cosmetic for a foundation, to the bare skin of a plurality of women.

Examples of the present invention will be described in detail. First, electrons have a negative charge and are the basic substance of reducing action. As is clear from the definition of redox, the acquisition of electrons by a substance is reduction, and the loss of electrons is oxidation. It is known that electrons exist fairly stably in the state of so-called hydrated electron water, which is surrounded by water in water. The present inventors have confirmed that such hydrated electron water shows a negative potential when measured with an ORP meter and actually has a reducing function. However, since it is not hydrogen that has a reducing function, hydrogen is not detected by the dissolved hydrogen meter.

The present inventors have added hydrated electron water produced by various methods to strongly electrolytic alkaline reduced water, for example, strongly electrolytic alkaline reduced water having an ORP of about -200 to -900 mV as described in Patent Document 1. Was added and the test was repeated to maintain the reducing function for a long period of at least 6 months, thereby providing the reducing function such as detergency, permeability, moisturizing ability, and bactericidal ability of strongly electrolytic alkaline reduced water for a long period of time. We searched for hydrated electron water that could be maintained. Then, the present inventors add and mix the hydrated electron water produced by using the method for producing negative ionized water disclosed in Patent No. 3850645 to the strongly electrolytic alkaline reduced water for at least 6 months or more. It was confirmed that the reducing functions such as detergency, permeability, moisturizing property, and bactericidal ability of strongly electrolytic alkaline reduced water can be maintained for a long period of time, and the present invention has been completed.

The strongly electrolytic alkaline reduced water, which is the raw material water in the method of the present invention, is produced by the method described in Patent Document 1. That is, in FIG. 1 of Patent Document 1, an intermediate chamber 5 is provided by arranging diaphragms 3 and 4 at intervals between the cathode chamber 1 and the anode chamber 2, and the cathode chamber 1 and the anode are provided. It is manufactured by using a three-chamber type electrolytic cell A formed by arranging a cathode pole 6 and an anode pole 7 in the chamber 2, respectively.

When pure water is put into the cathode chamber 1 and the anode chamber 2 and salt is put into the intermediate chamber 5 and electrolyzed, strongly electrolytic alkaline reduced water is generated in the cathode chamber 1, while strong in the anode chamber 2. Electrolyzed acidic oxidized water is produced. In the present invention, the strongly electrolytic alkaline reduced water generated in the cathode chamber 1 is used. Then, when the pH and ORP at the time of producing the strongly electrolytic alkaline reduced water are measured, the pH is 10.5 to 12.5 and the ORP is -150 to -900 mV, but in the present invention, the pH is 12.0 to 12. Use strongly electrolytic alkaline reduced water of about .5 and ORP-200 to -900 mV.

The hydrated electron water that can be added and mixed with the strongly electrolytic alkaline reduced water is produced by using the method for producing negative ion water disclosed in Japanese Patent No. 3850645. By adding and mixing the hydrated electron water produced by using the method for producing negative ionized water to the electrolytic alkaline reduced water, it is strong for a long period of at least 6 months or more, which is the object of the present invention. It was confirmed that the reducing functions such as detergency, permeability, moisturizing property, and bactericidal ability of electrolytic alkaline reduced water can be maintained for a long period of time.

The hydrated electron water that can be added and mixed with the strongly electrolytic alkaline reduced water is produced by utilizing the method for producing negative ion water disclosed in Japanese Patent No. 3850645. That is, the hydrated electron water used in the present invention is based on konjac fine powder, tourmaline fine powder, and charcoal fine powder, and further uses ceramic fine powder having far-infrared radiation characteristics as an additive to generate electrons. It is generated by injecting electrons generated by the body into water.

The electron generator is manufactured by the first step to the fourth step of the patent No. 3850645. That is, the konjac flour (konjac flour), which is the first base material, is put into water, mixed and stirred, and the konjac flour is sufficiently dissolved in water, and the stirring work is performed until the stickiness appears. Subsequently, a sticky konjac flour solution was prepared, and the obtained sticky konjac flour solution was added to the konjac flour solution having a second base material in an amount of 30% by weight based on the weight of the konjac flour solution. And 30% by weight of konjac flour, which is the third base material, is mixed, and 5% by weight of konjac fine powder, which has far-infrared radiation characteristics such as konjac and konjac, is added and mixed as an additive. After stirring, 3% by weight of sodium carbonate as a solidifying material is mixed in the mixed solution of the base material and the additive, and this is melted in boiling water to semi-solidify to the extent of a freshly made rice cake, and a large number of small spheres. It is molded into a shaped body, and the obtained molded body is put into boiling water and boiled for about 1 to 3 hours to solidify the molded body to a hardness of about konjac, and then the boiled molding. The body is taken out from boiling water and rapidly frozen at about -100 ° C., and then the rapidly frozen molded product is vacuum-dried at about 40 ° C. to remove water from the molded product to form a small sphere. Manufacture the electron generator of.

In the manufactured electron generator, the fibers of the konjac are shrunk and tightly entangled by removing water by quenching and vacuum drying, and at the same time, the tourmaline fine powder and the charcoal fine powder are tightly entangled between the fibers. And the ceramic fine powder is taken in and integrated in a mixed form, and since only the fibrous part of the konjac remains in a sponge state due to the water removal, the tourmaline fine powder, the charcoal fine powder and the ceramic fine powder are integrated. The electron-generated material taken into the powder becomes porous, and thus the surface area becomes large, and the contact area between the tolumarin fine powder, the charcoal fine powder and the ceramic fine powder becomes large.

In the electron generation mechanism by the electron generator, no matter how small the base material, tourmarin, is crushed, the crystal state always keeps a constant shape even if it is powdered, and anode and cathode electrodes are generated at both ends of the anode. Has the electrical property of attracting electrons present in the surrounding atmosphere or liquid, incorporating them into the crystal, transporting the electrons to the cathode, and continuing to emit electrons from the cathode.

Tourmaline, which continues to emit electrons due to the electrical characteristics, is affected by the electrical induction characteristics of carbon-based charcoal and the photosensitizing phenomenon of far infrared rays emitted by ceramics such as amphibole and granite. Due to the synergistic effect of both actions, more electrons existing in the surrounding atmosphere and liquid are attracted and taken into the tourmaline crystal, and more electrons are emitted by that amount, and tourmaline is a fine powder. As described above, the contact area with the atmosphere or liquid becomes large, and the tourmaline takes in more electrons from the atmosphere. Therefore, more electrons can be generated from the tourmaline.

The method of the present invention uses hydrated electron water produced using the electron generator produced as described above. That is, the hydrated electronic water used in the present invention is the fiber of konjac by removing water by quenching and vacuum-drying the konjac molded product in substantially the same manner as shown in FIG. 1 of Japanese Patent No. 3850645. The quality shrinks and is tightly entangled, and the electron generator 1 produced by incorporating and integrating tourmaline fine powder, charcoal fine powder and ceramic fine powder in a mixed form between the fibers is hydrated. Manufactured by storing it in the electronic water generator 2. As described above, the electron generator 1 housed in the hydrated electron water generator 2 is formed into a large number of small spheres.

As shown in FIG. 1, the hydrated electron water generator 2 has a small hole 6 for ventilation inward of the small diameter portion 3.4 of a cylindrical body 5 integrally provided with small diameter portions 3 and 4 at both ends. A large number of partition walls 7 and 8 are fixedly formed, and the gap between the partition walls 7 and 8 is used as the storage portion 9 of the electron generator 1, and the inner peripheral wall surface of the storage portion 9 is formed. A plurality of annular magnets 10 are fixedly formed with an interval in the circumferential direction. In the figure, reference numeral 11 is a mounting bolt for holding and fixing the partition walls 7 and 8.

Then, a large number of electron generators 1 are housed in the storage portion 9 of the hydrated electron water generator 2, one small diameter portion 3 is connected to the blower 13 via a connecting tube 12, and the other small diameter portion 3 is connected. The blower tube 14 is connected to the portion 4, and the tip opening of the blower tube 14 is charged into the water 16 of the water tank 15.

When the tip opening of the blower tube 14 of the hydrated electron water generator 2 is charged into the water 16 of the water tank 15 and the blower 13 is activated to blow air into the storage part 9, air is formed into small spheres. In contact with the surface of each electron generator 1 and turbulent flow, the turbulent flow energy stimulates the tourmaline fine powder constituting each electron generator 1 to activate the tourmaline fine powder, and both ends thereof. Of the electrodes of the anode and cathode generated in the above, the anode attracts electrons existing in the surrounding atmosphere or liquid and takes them into the crystal, transports these electrons to the cathode, and continues to emit electrons from the cathode. Due to the characteristics, air enters the pores in the porous electron generator 1, and many electrons are taken into the tourmaline fine powder constituting the electron generator 1 from the air, and many electrons are taken from the electron generator 1. Is emitted, and the action of the Lorentz force by the plurality of annular magnets 10 assists in the generation of electrons from the electron generator 1, and more electrons can be emitted from the electron generator 1.

In the step of generating the hydrated electron water used in the method of the present invention by using the hydrated electron water generator 2 having the above configuration, a large number of electron generators 1 are housed in the storage portion 9, and one of the small diameters is stored. The portion 3 is connected to the blower 13 via the connecting tube 12, and the blower tube 14 is connected to the other small diameter portion 4, and the tip opening of the blower tube 14 is charged into the water 16 of the water tank 15. After that, the blower 13 is activated to blow air into the storage portion 9, and after the blown air comes into contact with the surface of each electron generator 1 formed in the small sphere, the other of the hydrated electron water generator 2 Since the small diameter portion 4 of the small diameter portion 4 is narrowed down to a small diameter, the wind speed is increased in the small diameter portion 4, strong wind is jetted into the water 16 of the water tank 15 through the blower tube 14, and the strong wind is jetted into the water 16. by being, water 16 in the water tank 15 is of hydrated electrons water is generated is turbulent mixing occurs many ultrafine bubbles.

The present inventors have a strong electrolytic alkaline reduced water having a pH of 12.0 to 12.5 and an ORP of about -200 to -900 mV, which is produced by the method described in Patent Document 1, and the ORP has a pH of 12.0. The above method is applied to three types of strongly electrolytic alkaline reduced water: -750 mV strong electrolytic alkaline reduced water, ORP-700 mV strong electrolytic alkaline reduced water at pH 12.0, and ORP-600 mV strong electrolytic alkaline reduced water at pH 12.0. Three types of hydrated electron water mixed reduced water produced by changing the ratio of adding and mixing the hydrated electron water generated by, and pH 12.0 without adding and mixing hydrated electron water at all for comparison. FIG. 2 shows the results of measuring the time course of each ORP value with the strongly electrolytic alkaline reduced water of ORP-900 mV.

FIG. 2 is a graph showing the time course of ORP from April 26, 2016 to October 23, 2016. The ORP value gradually increases from the start to the end of the measurement, but hydrogen hydrated. The larger the amount of water added and mixed, the slower the rate of increase in the ORP value. That is, in the strongly electrolytic alkaline reduced water of ORP-900 mV (a in FIG. 2) at pH 12.0 and not mixed with the addition of hydrated electron water, the ORP increased to +270 mV 7 months after the final measurement day. The reduction function has disappeared.

On the other hand, in the strongly electrolytic alkaline reduced water having an ORP of -600 mV (b in FIG. 2) at pH 12.0 to which 1% by weight of hydrated electron water was added, the ORP increased to +100 mV 7 months after the final measurement day. It was confirmed that the reducing function was considerably reduced. Then, in the strongly electrolytic alkaline reduced water (c in FIG. 2) having an ORP of 750 mV at pH 12.0 to which 3% by weight of hydrated electron water was added, the ORP increased only to -50 mV 7 months after the final measurement day. Furthermore, the ORP-700 mV strongly electrolytic alkaline reduced water (d in FIG. 2) at pH 12.0 to which 5% by weight of hydrated electron water was added had an ORP of only up to -100 mV 7 months after the final measurement day. It was confirmed that the reduction function was maintained in all cases without increasing.

From the measurement results of FIG. 2, as shown in c to d of FIG. 2, the larger the amount of the hydrated electron water added, the lower the increase in the ORP value was suppressed, and in each case, the ORP value maintained a negative potential. It was confirmed that the reducing function was maintained. Then, the ORP value of the hydrated electron water mixed reduced water shown in FIGS. 2C to 2 is within a range in which the reducing function can be maintained at a negative potential of −50 mV to −200 mV for a long period of at least 6 months or more. This is because, in the process of producing the hydrated electron water, a large number of electrons taken into the water are surrounded by the water and become hydrated electron water, and the evaporation of the electrons is suppressed. The present inventors speculated. Furthermore, from the above test results, the present inventors have found that even with strongly electrolytic alkaline reduced water having an ORP of about -200 to -550 V, the ORP value can be increased by increasing the amount of the hydrated electron water added and mixed. It was judged that the ORP value maintained a negative potential and the reducing function could be maintained for a long period of time.

Based on the above measurement results, the present inventors conducted a cleansing (cleansing power) test after having a plurality of female subjects as subjects and applying a foundation, which is a cosmetic for a base, to bare skin. The test evaluation table is shown in FIG. As shown in FIG. 3, in the test, as samples, only "1 purified water" and "2 strongly electrolytic alkaline reduced water" and "3 strongly electrolytic alkaline reduced water + 1.0% by weight of hydrated electron water were added and mixed". , "4 strong electrolytic alkaline reduced water + hydrated electron water 3.0% by weight added mixture", "5 strong electrolytic alkaline reduced water + hydrated electron water 5.0% by weight added mixture" and "6 strong electrolytic alkaline reduced water" + 10.0% by weight of hydrated electron water was added and mixed ”reduced water was used for the test. Each of the tests was carried out by repeating the test of applying the foundation and then applying reducing water or the like three times. As the strongly electrolytic alkaline reduced water, the strongly electrolytic alkaline reduced water having a pH of 12.0 and ORP-800 mV was used, and as the hydrated electron water, the hydrated electron water produced by the above-mentioned production method was used. The hydrated electron water mixed strong electrolytic alkaline reduced water used in the test was manufactured on April 26, 2014, and the test was conducted on December 20, 2014, eight months later. carried out

As a result of the above test, as shown in FIG. 3, the detergency of the samples "1" and "2" is "evaluation 1" and the detergency is poor, and the sample "3" is "evaluation 2" and the detergency is fair. Well, all of the samples "4" to "6" were evaluated as "evaluation 3" and the detergency was good. From the evaluation results of FIG. 3, the present inventors added and mixed the "reduced water" which is the raw material water with the blending ratios of the samples "4" to "6" of FIG. 3 to obtain hydrated electron water. It was confirmed that the reducing function of the mixed strongly electrolytic alkaline reduced water could be maintained for a long period of time.

In FIG. 3, "5 strong electrolytic alkaline reduced water + 5.0% by weight of hydrated electron water added and mixed" and "6 strongly electrolytic alkaline reduced water + 10.0% by weight of hydrated electron water added and mixed" The test of "strongly electrolytic alkaline reduced water + 7.5% by weight of hydrated electron water", which is an intermediate value between the two, has not been carried out. From the test results of FIG. 3, the detergency of the samples "5" and "6" is "evaluation 3", so naturally, the intermediate value of "strong electrolytic alkaline reduced water + hydrated electron water 7" is obtained. It can be predicted that "0.5% by weight addition mixture" is "evaluation 3". Further, from the evaluation results of FIG. 3, the evaluation of the addition amount of 5% by weight and the addition amount of 10% by weight is "evaluation 3", so even if the addition amount of the hydrated electron water is increased. It was judged that a maximum of 10% by weight was sufficient.

From the test results of FIG. 3, the present inventors have added hydrated electronic water produced by the above-mentioned production method to strongly electrolytic alkaline reduced water having a pH of about 12.0 and an ORP of about -200 to -900 mV. When 0 to 10.0% by weight is added and mixed to generate hydrated electron water mixed strong electrolytic alkaline reduced water and used as a cosmetic water for cleaning, the cleaning ability is maintained for a long period of at least about 6 months. I confirmed that I was doing it.

In addition, in c of FIG. 2, the hydrated electron water mixed strong electrolytic alkaline reduced water mixed with 3.0% by weight of hydrated electron water added to the strongly electrolytic alkaline reduced water of ORP-700 mV at pH 12.0 is reduced for a long period of time. Described that the function is sustained. Then, the present inventors added 3.5% by weight of hydrated electronic water, which has a larger amount of mixed water than 3.0% by weight of the hydrogen hydrated water, to the strongly electrolytic alkaline reduced water of ORP-300 mV at pH 12.0. Along with mixing, 2.0% by weight of coconut oil fatty acid PEG-7 glyceryl as an activator was added and mixed to generate hydrated electronic water mixed strongly electrolytic alkaline reduced water containing an activator, and April 26, 2016. The time course of ORP from the day to October 23 was measured, and the result is shown as e in FIG. That is, as shown in FIG. 2e, the ORP value of the hydrated electron water mixed strong electrolytic alkaline reduced water containing the activator was ORP-300 mV at the start of measurement, but was ORP-200 mV on the end date. It was found that the increase was only 100 mV, which was superior to the hydrated electron water mixed strong electrolytic alkaline reduced water of FIGS. 2C to 2 above. The coconut oil fatty acid PEG-7 glyceryl is known as a detergency because the detergency can be maintained for a long period of time by further adding the activator even if the mixed amount of hydrated electronic water is small. However, when this is used as an activator, the coconut oil fatty acid PEG-7 glyceryl has the property of being excellent in permeability, and thus activates the hydrated electron water mixed strong electrolytic alkaline reduced water and has a detergency. Is presumed to be able to be maintained for a long period of time. The amount of coconut oil fatty acid PEG-7 glyceryl added in the test was 2.0% by weight, but the amount of coconut oil fatty acid PEG-7 glyceryl added was in the range of 1.0 to 5.0% by weight. However, since the difference is extremely small, it is considered that there is no big difference in the test results. Furthermore, the amount of hydrated electron water added in the test is 3.5% by weight, but even if the amount of hydrated electron water added is in the range of 3.0 to 5.0% by weight, the difference is still large. Since the amount is extremely small, it is considered that there is no big difference in the test results.

Then, on December 20, 2016, eight months after the production on April 26, 2016, the active agent-containing hydrated electron water mixed strong electrolytic alkaline reduced water was used.
We asked multiple women to become subjects and conducted a cleansing (cleansing power) test after applying foundation, which is a cosmetic for the foundation, to the bare skin. The test was carried out by repeating the test three times each by applying the foundation and then applying the hydrated electron water mixed strong electrolytic alkaline reduced water containing the activator. As the hydrated electron water mixed strong electrolytic alkaline reduced water containing the activator, the strongly electrolytic alkaline reduced water having an ORP-900 mV at pH 12.0 is used, and the hydrated electron water is the hydration produced by the above-mentioned production method. Electronic water was used.

The active agent-containing hydrated electron water mixed strong electrolytic alkaline reduced water used in the test was manufactured on April 26, 2016, and was tested on December 20, 2016, eight months later. Was carried out. The evaluation table of the test is shown as "evaluation 3" in "7" of FIG. From this test result, it was confirmed that the detergency was maintained for a long period of time even if the activator was additionally mixed.

In FIG. 3, coconut oil fatty acid PEG-7 glyceryl 2.0% by weight is additionally mixed as an activator, but lauryl glucoside 2.0 having the same action as the coconut oil fatty acid PEG-7 glyceryl 2.0. Although detailed description is omitted even if the weight% is additionally mixed, the same result as that in which 2.0% by weight of the coconut oil fatty acid PEG-7 glyceryl cleaning agent is additionally mixed is obtained. The lauryl glucoside has the same action as the coconut oil fatty acid PEG-7 glyceryl, and even if the amount of hydrated electron water added is small, the detergency can be achieved by further adding the lauryl glucoside as an activator. The lauryl glucoside is known as a cleaning agent, but when it is used as an activator, the lauryl glucoside is excellent in permeability, so that the hydrated electron water can be maintained for a long period of time. It is presumed that the mixed strong electrolytic alkaline reduced water can be activated and the detergency can be maintained for a long period of time. The amount of lauryl glucoside added in the test is 2.0% by weight, but even if the amount of lauryl glucoside added is in the range of 1.0 to 5.0% by weight, the difference is extremely small. , I think there is no big difference in the test results. Furthermore, the amount of hydrated electron water added in the test is 3.5% by weight, but even if the amount of hydrated electron water added is in the range of 3.0 to 5.0% by weight, the difference is still large. Since the amount is extremely small, it is considered that there is no big difference in the test results.

The activator is the trade name "Hiber Oil HE" manufactured by Koyo Fine Chemical Co., Ltd. (The general name of the product is "Palm oil fatty acid PEG-7 glycer", which has excellent permeability and is used as a makeup remover cleaning agent. ), And "My Doll 12" manufactured by Kao Co., Ltd. (the general name of the product is "lauryl glucoside", which has excellent permeability and is used as a makeup remover). Further, the test was carried out by repeating the test three times each by applying the foundation and then applying the hydrated electron water mixed strong electrolytic alkaline reduced water containing the activator. As the hydrated electron water mixed strong electrolytic alkaline reduced water containing the cleaning agent, the strongly electrolytic alkaline reduced water having a pH of 12.0 and ORP-900 mV was used.

In addition, in FIGS. 2 and 3, the measurement and the test were carried out using the strongly electrolytic alkaline reduced water having a pH value of 12.0, and the measurement using the strongly electrolytic alkaline reduced water having a pH value of 12.5. And although it has not been tested, since the pH value only increases by 0.5, it is presumed that almost the same measured values and test results as those shown in FIGS. 2 and 3 can be obtained.

Claims (2)

The konjac powder, which is the first base material, is put into water and mixed and stirred to dissolve the konjac powder in water, and the stirring work is continued until the stickiness appears. 30% by weight of tolumarin fine powder as the second base material and charcoal fine powder as the third base material with respect to the weight of the konjac moist solution which is made into a potato solution and has the adhesiveness. In addition to mixing 30% by weight, 5% by weight of fine ceramic powder having far-infrared radiation characteristics such as horn flash stone and granulated rock is added and mixed as an additive, and the mixture is stirred and mixed, and the base material and the additive material are mixed. 3% by weight of sodium carbonate is mixed with the mixed solution as a solidifying material, and this is melted in boiling water to semi-solidify to form a small spherical molded body, and the molded body is put into boiling water for about 1 to 3 hours. After boiling to solidify the molded product to a hardness of about konjac, the molded product is taken out from boiling water and rapidly frozen at about -100 ° C., and then the rapidly frozen molded product is rapidly frozen at about 40 ° C. While vacuum-drying with the above-mentioned molded body to remove water from the molded body, a small spherical electron generator is produced.
A partition wall having a large number of small holes for ventilation is fixed to a cylindrical body having small diameter portions at both ends, and the gap between the partition walls is used as a storage portion for the electron generator and the storage portion. A plurality of annular magnets are fixed to the inner peripheral wall surface of the portion at intervals in the circumferential direction to form a hydrated electron water generator.
Further, the large number of electron generators are housed in the storage portion of the hydrated electron water generator, one small diameter portion is connected to the blower via a connecting tube, and the blower tube is connected to the other small diameter portion. Te, was charged with the distal end opening portion of the air blowing tube into the tank water, and blown to the storage portion to start the blower, contact the blown air to the surface of each electron generating body that is formed into small spheres and then, before expediting wind speed in the other small-diameter portion of the hydrated electron water producing device SL through the blowing tube to inject strong wind in the water of the aquarium, by pre SL strong wind is injected into water, the water in the water tank is being turbulent mixing occurs many ultrafine bubbles, while hydrated electrons water is generated,
It is reduced water obtained by electrolyzing pure water using a 3-chamber type electrolytic tank, and has a pH of about 12.0 to 12.5 at the time of production and an ORP- 200 to -900 mV. Strong electrolysis used for cleaning cosmetic water, which comprises adding and mixing 3 to 10% by weight of the generated hydrated electron water with respect to the weight of the strongly electrolytic alkaline reduced water to the strongly electrolytic alkaline reduced water. A method for maintaining the reducing function of alkaline reduced water for a long period of time. The konjac powder, which is the first base material, is put into water and mixed and stirred to dissolve the konjac powder in water, and the stirring work is continued until the stickiness appears. 30% by weight of tolumarin fine powder as the second base material and charcoal fine powder as the third base material with respect to the weight of the konjac moist solution which is made into a potato solution and has the adhesiveness. In addition to mixing 30% by weight, 5% by weight of fine ceramic powder having far-infrared radiation characteristics such as horn flash stone and granulated rock is added and mixed as an additive, and the mixture is stirred and mixed, and the base material and the additive material are mixed. 3% by weight of sodium carbonate is mixed with the mixed solution as a solidifying material, and this is melted in boiling water to semi-solidify to form a small spherical molded body, and the molded body is put into boiling water for about 1 to 3 hours. After boiling to solidify the molded product to a hardness of about konjac, the molded product is taken out from boiling water and rapidly frozen at about -100 ° C., and then the rapidly frozen molded product is rapidly frozen at about 40 ° C. While vacuum-drying with the above-mentioned molded body to remove water from the molded body, a small spherical electron generator is produced.
A partition wall having a large number of small holes for ventilation is fixed to a cylindrical body having small diameter portions at both ends, and the gap between the partition walls is used as a storage portion for the electron generator and the storage portion. A plurality of annular magnets are fixed to the inner peripheral wall surface of the portion at intervals in the circumferential direction to form a hydrated electron water generator.
Further, the large number of electron generators are housed in the storage portion of the hydrated electron water generator, one small diameter portion is connected to the blower via a connecting tube, and the blower tube is connected to the other small diameter portion. Te, was charged with the distal end opening portion of the air blowing tube into the tank water, and blown to the storage portion to start the blower, contact the blown air to the surface of each electron generating body that is formed into small spheres and then, before expediting wind speed in the other small-diameter portion of the hydrated electron water producing device SL through the blowing tube to inject strong wind in the water of the aquarium, by pre SL strong wind is injected into water, the water in the water tank is being turbulent mixing occurs many ultrafine bubbles, while hydrated electrons water is generated,
It is reduced water obtained by electrolyzing pure water using a 3-chamber type electrolytic tank, and has a pH of about 12.0 to 12.5 at the time of production and an ORP- 200 to -900 mV. In the strongly electrolytic alkaline reduced water, 3.0 to 5.0% by weight of the generated hydrated electron water and the coconut oil fatty acid PEG-7 glyceryl as an activator with respect to the weight of the strongly electrolytic alkaline reduced water. Long-term maintenance of the reducing function of strongly electrolytic alkaline reduced water used in cleaning cosmetics, which comprises adding and mixing either 0 to 5.0% by weight or 1.0 to 5.0% by weight of lauryl glucoside. How to make it.

Images