JP2009056126A - Light irradiation method and apparatus by electromagnetic wave synchronized light derived from activated mineral water - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a method for exerting operations such as health promotion affected by favorable characteristics derived from the activated mineral water without directly processing the activated mineral water, irradiate an electromagnetic wave synchronized light derived from the activated mineral water by a relatively simple optical process, improve the manufacturing efficiency of a light irradiation apparatus with desired characteristics and save the labor of manufacturing work. <P>SOLUTION: This light irradiation method by the electromagnetic wave synchronized light derived from the activated mineral water is formed by previously irradiating a light from an electric lighting device to a component consisting of a light transmission section or a light reflection section of the light irradiation apparatus or the both sections, transmitting or reflecting the light emitted from the light irradiation apparatus through/to the component to form an electromagnetic wave synchronized light resonated to the electromagnetic wave derived from the activated mineral water, and irradiating the electromagnetic wave synchronized light to a subject to be treated. An electric lighting device is provided with a light transmission section or a light reflection section for transmitting or reflecting the light from an electric energy light emitting device, and the light transmission section or the light reflection section of the electric lighting device or the both sections are defined to come into contact with the activated mineral water produced by a predetermined method. This method irradiates the electromagnetic wave emitted from the activated mineral water to absorb the electromagnetic vibration energy, thus providing a favorable operation effect equivalent to the contact process of the activated mineral water. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention relates to a light irradiation treatment method using electromagnetically tuned light derived from activated mineral water, which is subjected to irradiation treatment with electromagnetically tuned light derived from activated mineral water and processed so that the properties possessed by the activated mineral water can be imparted to general-purpose products, and the like The present invention relates to a light irradiation processing apparatus.

  In general, normal water is a state in which molecules form clusters by hydrogen bonding, and it has recently been clarified by experimental studies by many scholars that the degree of cluster formation has a great influence on the decay rate of water. ing.

  When water molecules are collapsed into small clusters, or small molecules are grouped by centering on ions dissolved from an inorganic substance in a step-up / down state, for example, the permeability to the substance increases and the fibers It is also known that when used as processed water, there are various effects such as improved dyeability or suppression of growth of various bacteria.

  The activated mineral water was developed by the inventor of the present application as water for food processing or fiber processing, which is suitable for small molecule grouping or unimolecularization, and disclosed the production method as activated mineral water. Yes (Patent Document 1).

  As described in Patent Document 2, the activated mineral water includes a step of passing water pressurized to 5 to 30 atmospheres in contact with a predetermined mineral inorganic substance, and the pressurized water that has undergone this step is subjected to the predetermined atmospheric pressure. And a process of storing in an atmosphere of less than the above, and by repeating these processes alternately, the pressurized water can be circulated and manufactured.

  There is known a contact reaction method in which such activated mineral water is preferably pressurized to 2 to 30 atm and passed through a solid processing object such as ceramics, glass, resin, metal, etc. and exerts a preferable physicochemical action. (Patent Document 2).

  When a liquid or solid container is molded using resin pellets in contact with activated mineral water, the freshness of the fresh food contained in this container is moderately reduced, and the taste of the fresh food is mellow. It is also disclosed that there is a physicochemical action (Patent Document 3).

  In addition, the physicochemical action of the activated mineral water can be performed even in a non-contact state, and it should be a device that is useful for promoting human health through light, and various other benefits are also expected. A lightning device that exhibits the physicochemical action of activated mineral water and a lighting device using this as a light source are disclosed (Patent Document 4).

Japanese Patent Publication No. 4-74074 (Claims) Japanese Patent No. 3561532 (Claims, paragraph [0020]) Japanese Patent No. 3634021 (Claims, paragraph [0036]) JP 2006-332439 A

  However, the above-described conventional lightning device and the lighting device using this as a light source have the expected effect unless the light-transmitting hollow molded body enclosing the light emitting element of the lightning device is directly contacted with activated mineral water. Such a lighting device requires a pressurization facility and the like, and requires a long contact treatment process with activated mineral water. It took effort.

  Therefore, an object of the present invention is to solve the above-mentioned problems, and the effects such as health promotion due to the favorable characteristics derived from activated mineral water reaching humans and animals can be indirectly achieved without using activated mineral water directly. A method that reaches the target, that is, a light irradiation process synchronized with the electromagnetic wave derived from the activated mineral water can be performed by a relatively simple optical process, and the labor of manufacturing a light irradiation apparatus having a desired characteristic is saved. It is to improve the manufacturing efficiency of the device.

In order to solve the above-described problems, in the present invention, light from the following lightning device is preliminarily irradiated on the light transmitting device or the light reflecting portion of the light irradiation device, or a component composed of both members, and then the light is irradiated. Because the light from the electric light source of the irradiation device is transmitted or reflected by the constituent members to be electromagnetic wave tuning light that resonates with the electromagnetic waves derived from the activated mineral water, and this electromagnetic wave tuning light is irradiated from the light irradiation device to the object to be processed. This is a light irradiation treatment method using electromagnetic wave tuning light derived from activated mineral water.
The light transmission part which transmits or reflects the light from an electrical light source, or the light transmission part which has a light reflection part, The light transmission part or light reflection part of this lightning apparatus, or both members are the activated mineral water manufactured by the predetermined method It is a lightning device that has been subjected to the contact treatment.

  The light irradiation treatment method of the present invention configured as described above is a method of irradiating an electromagnetic wave emitted from activated mineral water to a light transmitting part or a light reflecting part or both members which are constituent members of a light irradiation apparatus. By absorbing energy, it is possible to obtain a preferable effect equivalent to the case where the activated mineral water is contacted and treated.

  Specifically, for the light irradiation apparatus to be initially manufactured, contact is made in advance by, for example, spraying or immersing activated mineral water on the light transmitting part or the light reflecting part or both members which are constituent members of the light irradiation apparatus. Processing is performed, and the predetermined component of the light irradiation device in which the activated mineral water is directly acted is prepared. For the light irradiation device to be manufactured in the next stage, the light transmitting portion that is the component member or The light reflecting part or both members are subjected to light irradiation treatment with electromagnetic wave tuned light derived from activated mineral water emitted from the light irradiation device, and the same advantageous effects as the treatment of directly contacting the activated mineral water are exhibited. Use a light irradiation device.

  That is, in the light irradiation treatment method using the electromagnetic wave tuning light derived from the activated mineral water described above, the lightning device is replaced with the light transmitting portion or the light reflecting portion or both members subjected to the contact treatment with the activated mineral water manufactured by a predetermined method. It is also possible to employ a light irradiation treatment method using electromagnetic wave tuning light derived from activated mineral water, which is a light transmission device or light reflection portion treated by the above-described light irradiation treatment method, or an electro-optical device using both members.

  Such a light irradiation device may be any light irradiation device that emits one or more kinds of light selected from visible light, infrared light, far infrared light, and ultraviolet light, and the wavelength of the light to be generated is not particularly limited, The light irradiation processing method by the electromagnetic wave tuning light derived from activated mineral water can be used universally.

  In particular, when the light irradiation device is a fluorescent lamp, the light transmitting portion or the light reflecting portion or the member replacing the two members is a fluorescent tube coated with a phosphorescent material, that is, applied to the inner surface of the fluorescent tube. The light storage material may be a light irradiation treatment method using electromagnetic wave tuned light derived from activated mineral water, which is an electromagnetic wave propagating light storage material in which electromagnetic vibration energy is absorbed by irradiating electromagnetic waves emitted from the activated mineral water.

  That is, if the phosphorescent material applied to the fluorescent tube is subjected to light irradiation treatment with the electromagnetic wave tuning light derived from the activated mineral water emitted from the light irradiation device, the same effect as that obtained when the activated mineral water is contact treated is obtained. It becomes a light irradiation device.

  As a method for producing the activated mineral water having the predetermined characteristics described above, a step of bringing water pressurized to 5 to 30 atmospheres into contact with a mineral inorganic substance containing one or more minerals selected from basalt, andesite and magnetite; A method of producing activated mineral water by alternately repeating the step of storing the water that has undergone this step in an atmosphere below the atmospheric pressure can be employed.

  Predetermined activated mineral water is water that is small in size at the molecular level, that is, water that is highly permeable by reducing the size of water clusters, mainly divalent and trivalent ions eluted from inorganic substances. Although it is easy to penetrate when it comes into contact with the material of the optical component, even if it does not penetrate, the light transmitting part or the light reflecting part, which is a component of the light irradiation device, or both members as electromagnetic vibration energy from the activated mineral water It is thought that the electromagnetic wave propagates and has a physicochemical effect.

  Optical components that absorb electromagnetic vibration energy derived from such activated mineral water are considered to resonate with light that passes through or reflects (electromagnetic waves), and are obtained when electromagnetic waves are transmitted or reflected. It gives unique photochemical properties that are likely to have some physicochemical action on water and other polar molecules and metals.

  The effect is exhibited even when the light transmitted through the light transmission part is visible light. For example, the light irradiating device is exhibited when the light irradiating device is an incandescent lamp, a fluorescent lamp, or a light emitting diode.

  In addition, even if the activated mineral water does not come into contact with solid processing objects such as ceramics, glass, metal, etc., the vibration energy of molecules propagates through electromagnetic waves in the same way as electromagnetic fields, as in the case of temporary contact with these. As a result, it is considered that the molecular energy of the object to be processed changes as a result.

  As the light irradiation device that can obtain the above-described effects, a light irradiation device is provided in which electromagnetic vibration derived from the activated mineral water produced by the above-described predetermined method is applied to a constituent member composed of a light transmitting portion or a light reflecting portion. Derived from activated mineral water having a light path for preparing electromagnetically tuned light that resonates with electromagnetic waves derived from activated mineral water by transmitting or reflecting light emitted from the electric light source of the light irradiation device to the light transmitting portion or the light reflecting portion. The electromagnetic wave tuning light irradiation apparatus can be used.

  The invention according to the light irradiation treatment method and the irradiation apparatus of the present application is to apply electromagnetic vibration of activated mineral water to a predetermined constituent member of the light irradiation apparatus or to irradiate light in synchronization with the electromagnetic vibration, and then apply light to the constituent member. Since the electromagnetic wave tuning light obtained by transmission or reflection is irradiated on the object to be processed, electromagnetic vibration energy of the activated mineral water can be irradiated from the light irradiation device, and preferable characteristics derived from the activated mineral water are obtained. The effects of health promotion and the like become a method that does not need to be directly treated with activated mineral water, that is, there is an advantage that light irradiation by electromagnetic wave tuning light derived from activated mineral water can be performed by relatively simple optical treatment. .

  If irradiation treatment is performed using this electromagnetic wave tuning light, the characteristics derived from the activated mineral water can be easily transmitted to the object to be treated. In particular, the effect of enriching negative ions in the irradiated air, organic substances Expected to be effective in decomposing and deodorizing causative odorous components and improving blood flow by irradiating electromagnetic wave tuning light.

  In addition, by simplifying the manufacturing process of the light irradiation device by the electromagnetic wave tuning light derived from the activated mineral water, there is an advantage that it is possible to improve the manufacturing efficiency of the light irradiation device with the expected characteristics and save labor in the manufacturing work. is there.

A light irradiation treatment method using electromagnetic wave tuning light derived from activated mineral water and an irradiation apparatus of electromagnetic wave tuning light derived from activated mineral water according to the present invention will be described below with reference to the accompanying drawings as appropriate.
The light irradiation processing method according to the embodiment includes, for example, an indoor / outdoor lamp such as an incandescent lamp and a fluorescent lamp, a flashlight, a light-transmitting light that serves as a protective cover for a condenser lens and a light bulb that are components of the light-emitting device or the light-emitting device. Irradiate electromagnetic waves emitted from activated mineral water to a member such as a light reflecting part or a phosphorescent material for concentrating or scattering light in a part or a predetermined direction, and preferably, energy such as electromagnetic vibration after a predetermined time treatment To absorb.

  Next, the light emitted in the light irradiation device is transmitted through the constituent transmissive member in the device, reflected by the reflective member, or stored in a fluorescent agent to resonate with the electromagnetic vibration. The light irradiation processing method by the electromagnetic wave tuning light derived from the activated mineral water by irradiating the processing object with the electromagnetic wave tuning light obtained in the above is adopted.

  As shown in FIG. 1, the lightning device or the light irradiation device according to the embodiment uses light generated from a light source (lightning device) A as a head 6 with a convex lens 5 or one or more other optically or light-reflective optical elements. Examples of the illumination device that can irradiate the object to be illuminated through the component, such as a flashlight, and other well-known illumination devices can be given. The light transmitting part, which is a component of the light irradiation device, includes a transparent lens made of a convex lens, a concave lens, a transparent or semi-transparent ceramic such as flat or curved glass, or a synthetic resin such as polycarbonate or acrylic resin. Examples thereof include exterior parts (covers, cases, etc.) formed of similar materials.

  In addition, the light reflecting portion may be made of a metal such as aluminum, chromium, silver, nickel, stainless steel, physicochemically plated by vapor deposition on metal, synthetic resin or glass, or glass or synthetic. For example, an optical component such as one deposited on a resin, ceramics, or the like plated with a part of a light bulb as a reflecting surface, or a reflective concave mirror separately installed on the back side of the light bulb.

In addition, as the lightning device, the light emitting element is not only an incandescent light bulb, but also a light emitting diode (LED) as a light emitting element (see FIG. 1) or a fluorescent lamp (visible light fluorescent lamp, so-called black light). Other well-known lightning devices can be employed.
As the power source used for these, not only a DC power source but also an AC power source can be appropriately adjusted and used.

  The activated mineral water used in the present invention allows water that has been pressurized to 5 to 30 atmospheres to pass through a mineral inorganic substance containing one or more minerals selected from basalt, andesite, and magnetite, and the water that has passed through the contact is the above-mentioned When aeration is performed in an atmosphere of less than atmospheric pressure and these steps are repeated in order, activated mineral water containing a mineral inorganic compound is obtained.

  The activated mineral water produced by the above method contains inorganic ions (for example, divalent or trivalent inorganic ions) eluted from the mineral inorganic material that has passed through the contact, and the hydrogen bond is broken and the water molecules are 5 to 5. It is considered that the state of water is changing at the molecular level, such as about 6 clusters, which is smaller than the case of 20 to 30 molecules of normal water molecules, and penetrates various substances well. There are physical properties.

Incidentally, the main components of basalt, andesite and magnetite, which are representative examples of mineral inorganic substances, are SiO ₂ , TiO ₂ , Al ₂ O ₃ , Fe ₂ O ₃ , FeO, MnO, MgO, CaO, Na ₂ O, It consists of K ₂ O.

  The reason why the water pressurized to 5 to 30 atmospheres is used to contact and pass the mineral inorganic substance is that the production efficiency of the activated mineral water is poor at a low pressure of less than 5 atmospheres, such as improved permeability of the generated mineral water. This is because the action is inadequate, and the upper limit of pressurization is that even if pressurized water exceeding 30 atm is brought into contact with the activated mineral water, no further change is seen, and practicality is lost.

  Moreover, the process of storing in the atmosphere below the atmospheric pressure at the time of pressurization of 5 to 30 atmospheres is provided, and the reason why the pressure is preferably reduced to atmospheric pressure by aeration, for example, is that the pressurized water is decompressed and pressurized again. By repeating the process, the hydrogen bond of water is cut and denatured, and the electrons that have previously contributed to the hydrogen bond are made to contribute to the reducibility. Is considered to be a process necessary for imparting specific physical properties to the activated mineral water.

  When other contact treatment is performed by immersing translucent hollow molded bodies, resin pellets, glass raw materials, etc. in the activated mineral water produced by the above-mentioned predetermined method, the activated mineral water and the mineral properties eluted in this raw material If an inorganic ionic substance from an inorganic substance is added and the vibration energy of the contacted water molecule propagates in the same way as an electromagnetic field, the energy in the molecule of the processing object such as resin pellets will change as a result. Conceivable. From the experimental results, it is considered that the physicochemical properties of the activated mineral water have been transferred to the raw materials of resin and glass.

  In this way, the process of bringing the activated mineral water into contact with the light transmitting part or the light reflecting part or both members which are constituent members of the light irradiation device can be performed at room temperature and normal pressure. A part or the whole of the device (water wet), including a light transmitting part such as a lens through which light passes and a light reflecting part (an optical reflecting surface for concentrating the light diffused from the lightning device to the front). Is stored in a pressure-resistant tank, and activated mineral water whose pressure is adjusted in the range of 2 to 30 atm. It is preferable to carry out the above in terms of production efficiency.

Next, using the light irradiation apparatus manufactured as described above, a light irradiation apparatus having the same characteristics is manufactured without contacting the activated mineral water.
That is, light from the light irradiation device obtained as described above is irradiated to the light transmission portion or the light reflection portion, or both members, which are constituent members of the light irradiation device. Examples of the light transmitting part or the light reflecting part which are constituent members of the light irradiation device are the same as those described above.

  The irradiation time is preferably as long as possible. If the irradiation time is at least 1 hour, preferably 10 hours, more preferably 24 hours or more, the surface is irradiated evenly in accordance with the size and structure of the object to be treated. In addition, light is sufficiently irradiated even when the surface of the product to be processed has a large number of irregularities as viewed from the three-dimensional shape, or in other complicated shapes.

  In addition, it is preferable that the irradiation with light is performed while spraying the activated mineral water in the form of a mist on the article to be treated, because it is considered that the electromagnetic waves emitted from the activated mineral water work together with the mineral inorganic substance. . Thus, the electromagnetic wave emitted from the activated mineral water manufactured by the predetermined method is irradiated to the predetermined constituent member of the light irradiation device so as to absorb the electromagnetic vibration energy.

  The structure of the light irradiation device is not particularly limited, and a light irradiation device having a basic structure of a well-known lighting fixture can be adopted. For example, a fluorescent lamp that emits visible light or ultraviolet light, a light emitting diode (LED), argon An incandescent lamp using an incandescent bulb (including a miniature bulb) enclosing gas or krypton gas, a mercury lamp, or a halogen lamp that generates infrared rays or far infrared rays can be applied.

  Incidentally, a halogen lamp has a tungsten filament built in a quartz tube and sealed with a halogen gas, and 80% or more of light emitted from the halogen lamp is heat (infrared rays).

  On the other hand, the light emission mechanism of a fluorescent lamp is that when current flows, electrons are emitted from the fluorescent tube filament, collide with mercury contained in the gas, and ultraviolet rays are emitted, and the ultraviolet rays are applied to the inside of the fluorescent glass tube. It emits light when it hits a fluorescent paint (paint blended with a high-luminance phosphorescent pigment and various resins and additives), and emits visible light outside the fluorescent tube.

  In the fluorescent lamp mentioned as the first embodiment of the present invention, a light transmission part such as a glass tube or a light reflection part such as a phosphorescent material or a reflection plate is a processing object, for example, a phosphorescent paint or a phosphorescent material contained therein. The light from the light irradiation device is irradiated, or the glass tube is irradiated with light from the light irradiation device. Incidentally, as a phosphorescent material, an inorganic pigment of an alumina-based oxide is a representative example, and they are manufactured by melting at a temperature of 1000 ° C. or higher.

  Moreover, in the light irradiation apparatus (thing used as a light source) A which consists of the light emitting diode (LED) of 2nd Embodiment shown in FIG. 1, the light emitting diode (LED) chip | tip 1 was enclosed with the light transmissive part 2 made from a synthetic resin. The light transmission unit 2 is irradiated with light from the light irradiation device.

  The light-emitting diode (LED) chip 1 uses a well-known semiconductor material for LED and has a well-known laminated structure such as a two-layer structure or a double hetero structure, and is connected to a + terminal 3 and a − terminal 4 from a DC power supply. The materials can be selectively employed so that they can be connected from the front and back and electroluminescence such as red, blue, yellow, and white is possible.

  For example, known semiconductor materials for LEDs and their emission colors include INGAN (blue), ZnCdSe (blue), ZnTeSe (green), GaP (green), AGaInP (yellow), INGAN (yellow), AlGaAs (red) GaP (Zn-O) (red), GaAs (Si) (infrared), (InGaAsP) (infrared), and the like.

  Furthermore, by combining electroluminescence (EL) and photoluminescence (PL), the light is changed to another wavelength (different color), and a blue LED and YAG (yttrium, aluminum, garnet) phosphor are combined to produce a white LED Can also be used.

  The light transmitting portion 2 may be made of a heat-resistant glass material that can be used for a light bulb or a synthetic resin that is durable and transparent, and is not only a transparent material but also a colored material. It may be. In addition to the so-called light-emitting diode capsule type as shown in the figure, the light transmission part 2 may have any shape such as a sphere, an elliptical sphere, a cylindrical shape, an incandescent bulb type, etc. A lens having a lens portion 2a for condensing light is suitable.

  As shown in FIG. 2, the illuminating device is an object to be illuminated with light generated from the light source A of the lightning device via a head 6 with a convex lens 5 or one or more other light transmissive or light reflective optical components. For example, a flashlight or other well-known lighting device can be exemplified. Light transmissive optical parts include transparent lenses such as convex lenses, concave lenses, flat or curved glass, or transparent parts made of synthetic resin such as polycarbonate or acrylic resin, or similar materials. The exterior parts (cover, case, etc.) formed in (1) are mentioned.

[Manufacture of activated mineral water]
Connect a water channel with a control valve and a drainage channel to both ends of a stainless steel pressure resistant container, and a stainless steel porous plate or a mesh plate facing the inside of the pressure resistant vessel, with as much space as possible. A mineral inorganic substance mainly composed of basalt grains having a particle size of about 5 mm was filled between the filters. The drainage channel was connected to a water storage tank released to the atmosphere, and water from the water storage tank was returned to the water passage of the pressure vessel and circulated. The raw tap water is pressurized to 25 atm by a pressure pump and passed through one end of the pressure vessel, and the water pushed out from the other end is aerated from the upper part of the water storage tank and accumulated in the lower part of the water storage tank. The water was returned to the water passage with a pressure pump and repeatedly pressed and released under reduced pressure for 24 hours to produce 600 liters of activated mineral water.

[Manufacture of lightning devices (conventional products)]
The pressure tank containing the light emitting diode and the head with the lens of the flashlight is filled with the activated mineral water produced as described above, and immersed in the pressurized state of 3 atm for 24 hours to perform the contact treatment with the activated mineral water. It was. Then, the light-emitting device of DC power supply 3V to which the obtained five light emitting diodes were used as a light source and a head with a lens was attached was manufactured.

[Manufacture of irradiation apparatus (Examples 1, 2, 3, 4) of electromagnetic wave tuning light derived from activated mineral water]
Irradiate the glass tube of the ultraviolet fluorescent lamp (commercial product: black light, 4W, FL4BL) with the light from the lightning device obtained as described above for 24 hours from the outside, and irradiate the electromagnetic wave tuning light derived from the activated mineral water. An apparatus (Example 1) was obtained.

  In addition, the glass tube of a daylight fluorescent lamp (commercial product: 100 V, 15 W, straight tube) is irradiated with light from the lightning device obtained as described above for 24 hours from the outside, and electromagnetic wave tuning derived from activated mineral water is performed. A light irradiation apparatus (Example 2) was obtained.

  Further, the glass tube of a fluorescent lamp (commercial product: daylight color, 200 V, 40 W) is irradiated with light from the lightning device obtained as described above for 24 hours from the outside, and irradiation with electromagnetic wave tuning light derived from activated mineral water is performed. An apparatus (Example 3) was obtained.

  Further, the light-emitting diode and the head with the lens of the flashlight are irradiated with light from the lightning device obtained as described above for 24 hours from the outside, and an irradiation device (Example 4) of electromagnetically tuned light derived from activated mineral water is used. Obtained.

[Experimental Example 1]
In order to investigate the influence of the number of charged particles on water vapor in the air by irradiation treatment of Example 1 (ultraviolet fluorescent lamp), as shown in FIG. A “tub” -shaped container 7 having a wall diameter of 60 cm and an inner peripheral wall diameter of 17.5 cm is prepared, and tap water W is stored between the outer wall 7a and the inner wall 7b to a depth of 15 cm, and then at the center of the inner peripheral wall. Example 1 (ultraviolet fluorescent lamp) 8 was turned on in an upright state, and water in the container immediately after lighting for 60 minutes was sampled.

  The obtained water is put in a sprayer and sprayed indoors (the average number of negative ions in the room at the time of measurement: 43 / cc), and the number of positive ions and negative ions per unit volume for 1 minute immediately after spraying is measured ( Measurement was performed with an air ion counter FIC-2000 manufactured by Fiesa. The results are shown in Table 1 and the chart of FIG.

For comparison, Example 1 is the same as Example 1 except that the ultraviolet fluorescent lamp (commercial product: black light, 4W, FL4BL) of Comparative Example 1 that is not subjected to light irradiation treatment using electromagnetically tuned light derived from activated mineral water is used. The number of positive ions and negative ions per unit volume was measured in exactly the same manner, and the results are shown in Table 1 and in the diagram of FIG.
Further, tap water was simply put in a sprayer and sprayed indoors, and the number of positive ions and negative ions per unit volume in the spray atmosphere was measured, and the results are also shown in Table 1 and the diagram of FIG.

  As is clear from the results in Table 1 and FIG. 4, the spraying of normal tap water never enriches negative ions in the room, and the tap water is irradiated with simple ultraviolet light. However, the negative ion in the room air was about 1.3 times the positive ion on average for 1 minute in the measurement time, but according to the irradiation treatment of Example 1 compared to the amount, the negative ion was positive ion in the air. It was significantly enriched to 1.7 times the amount.

[Experimental example 2]
In order to investigate the influence of the number of charged particles on the water vapor in the air by the irradiation treatment of Example 2 (daylight fluorescent lamp), as shown in FIG. 3, Example 2 was turned on, and the inside of the container immediately after lighting for 90 minutes. Water was collected as data.

  The obtained water was put in a sprayer and sprayed indoors, and the number of positive ions and negative ions per unit volume for 1 minute immediately after spraying was measured with a measuring instrument (Fiesa Corporation: air ion counter FIC-2000). . The results are shown in Table 2 and in the chart of FIG. Incidentally, the number of negative ions present in the room atmosphere at the time of measurement was 43 / cc.

  For comparison, the same procedure as in Example 2 was performed except that the fluorescent lamp of Comparative Example 2 (commercial fluorescent lamp: 4W, FL4) that was not subjected to light irradiation treatment using electromagnetic wave tuning light derived from activated mineral water was used. The number of positive ions and negative ions per unit volume was measured, and the results are shown in Table 2 and in the diagram of FIG.

  As is clear from the results of Table 2 and FIG. 5, the negative ions in the indoor air were not enriched by irradiating tap water with simple ultraviolet light and spraying it, but the irradiation of Example 2 According to the treatment, negative ions were enriched in the air to 2.0 times the amount of positive ions.

[Experiment 3]
Using the fluorescent lamp of Example 3, an experiment was conducted to examine the deodorizing performance of odorous components in an organic solvent (toluene, xylene, etc.) in the air in an automobile painting factory (tact feed type painting booth).

  That is, as a lighting facility using a fluorescent lamp in the factory, the fluorescent lamp of Example 3 was replaced with a commercially available normal fluorescent lamp (commercial product: daylight color, 200 V, 40 W). The body was painted on a 2-ton truck, and the general exhaust port was used as the measurement point. That is, the exhaust mist before and after replacing the fluorescent lamp in the booth illuminated with 30 fluorescent lamps or the booth illuminated with 40 fluorescent lamps from the normal fluorescent lamp to the fluorescent lamp of Example 3 is 1 L / The sample was sucked for 20 minutes with a suction amount of 1 minute and collected in a plastic bag. The VOC (Volatile Organic Compounds) concentration value (ppmC) of the sample collected in this manner was measured with a flame ionization analyzer, and the results are shown in Table 3.

  As is apparent from the results in Table 3, it was found that the fluorescent lamp that had undergone the treatment of Example 3 had an odor reduction rate of about 20 to 49% due to the deodorizing function as compared with a normal fluorescent lamp.

[Experimental Example 4]
In order to examine the blood flow change of the living body by irradiating the LED lamp of Example 4, the change rate of the blood flow velocity and the blood flow rate before and after the irradiation was measured using the normal LED lamp as a control.
That is, a healthy adult male (49 years old) was subject to a rest at room temperature of 22.2 ° C. for 10 minutes, and then a normal LED light was applied to the shoulder from a distance of 10 cm, and blood flow velocity and blood for 20 minutes The flow rate was measured over time with a laser Doppler blood flow meter.

Then, after 20 minutes of rapid irradiation, the LED light of Example 4 was irradiated in exactly the same manner, and the blood flow velocity and blood flow for 20 minutes were measured over time with a laser Doppler blood flow meter.
These results are shown in Table 4.

  As is apparent from the results in Table 4, by irradiating the LED lamp of Example 4, the blood flow velocity increased by 8.0% and the blood flow increased by 6.6% compared to the normal LED irradiation. . Thereby, it turns out that the irradiation device (LED lamp) of the electromagnetic wave tuning light derived from the activated mineral water of Example 4 has an effect of improving blood flow.

Partially cutaway front view of a light-emitting diode that is the lightning device of the embodiment The perspective view which shows schematic structure of the flashlight which is the illuminating device of embodiment. The perspective view which shows schematic structure of the experimental apparatus of Experimental example 1 The chart which shows the time-based enrichment effect of the negative ion in the air of Example 1 The chart which shows the time-based enrichment effect of the negative ion in the air of Example 2

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Light emitting diode chip 2 Translucent hollow molded object 2a Lens part 3 + Terminal 4-Terminal 5 Convex lens 6 Head 7 Container 7a Outer wall 7b Inner wall 8 Ultraviolet fluorescent lamp A Lightning device (light source)
W Water

Claims (10)

A light transmission unit or a light reflection unit of the light irradiation device or a component member composed of both members is preliminarily irradiated with light from the following lightning device, and then light is applied to the component member from the electric light source of the light irradiation device. A light irradiation treatment method using electromagnetic wave tuning light derived from activated mineral water, comprising transmitting or reflecting electromagnetic wave tuning light resonating with electromagnetic waves derived from activated mineral water and irradiating the object to be treated with the electromagnetic wave tuning light.
The light transmission part which transmits or reflects the light from an electrical light source, or the light transmission part which has a light reflection part, The light transmission part or light reflection part of this lightning apparatus, or both members are the activated mineral water manufactured by the predetermined method It is a lightning device that has been subjected to the contact treatment.   The light irradiation processing method by the electromagnetic wave tuning light derived from the activated mineral water according to claim 1, wherein the lightning device is applied to the light transmitting part or the light reflecting part or both members contact-treated with the activated mineral water produced by a predetermined method. Instead, the light irradiation processing method by the electromagnetic wave tuning light derived from the activated mineral water which is the light transmission part processed by the light irradiation processing method of Claim 1, or the light reflection part or both members.   The light from the electric light source of the light irradiation device or the lightning device is one or more kinds of light selected from visible light, infrared light, far-infrared light, and ultraviolet light. Light irradiation treatment method. In the light irradiation processing method by the electromagnetic wave tuning light derived from the activated mineral water according to claim 1 or 2,
The light source of the light irradiation device is a fluorescent lamp, and the light irradiating process by the electromagnetic wave tuning light derived from the activated mineral water, in which the light transmitting portion or the light reflecting portion or the member replacing the both members is a fluorescent tube coated with a phosphorescent material Method.   A method for producing activated mineral water in which water pressurized to 5 to 30 atm is brought into contact with a mineral inorganic material containing one or more minerals selected from basalt, andesite, and magnetite, and water that has undergone this step The light irradiation processing method by the electromagnetic wave tuning light derived from the activated mineral water according to any one of claims 1 to 4, wherein the activated mineral water is produced by alternately repeating the step of storing the product in an atmosphere of less than the atmospheric pressure.   The light irradiation treatment method according to any one of claims 1 to 5, wherein the object to be treated is an electromagnetic wave tuning light derived from activated mineral water which is a metal, resin, ceramic, water or air.   A light irradiation device is provided that applies electromagnetic vibration derived from activated mineral water produced by a predetermined method to a constituent member composed of a light transmission portion or a light reflection portion, and light emitted from an electric light source of the light irradiation device is transmitted to the light transmission portion. Or the irradiation apparatus of the electromagnetic wave tuning light derived from the activated mineral water which provided the optical path which prepared the electromagnetic wave tuning light which permeate | transmitted or reflected by the light reflection part and resonated with the electromagnetic wave derived from the activated mineral water.   A device for enriching negative ions in air, comprising the irradiation device for electromagnetic wave tuning light derived from activated mineral water according to claim 7.   A blood circulation promoting light irradiation apparatus comprising the irradiation apparatus for electromagnetic wave tuning light derived from the activated mineral water according to claim 7.   The deodorizing apparatus which consists of an irradiation apparatus of the electromagnetic wave tuning light derived from the activated mineral water of Claim 7.

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