WO2015046474A1

WO2015046474A1 - Hot spring mist suction facility

Info

Publication number: WO2015046474A1
Application number: PCT/JP2014/075742
Authority: WO
Inventors: 三田　直樹
Original assignee: 株式会社ＬＯＤ＆Ｂｅ
Priority date: 2013-09-27
Filing date: 2014-09-26
Publication date: 2015-04-02
Also published as: JP6523960B2; JPWO2015046474A1

Abstract

　To provide a hot spring mist suction facility in which a material that is capable of emitting far-infrared light having different wave motions and that does not result in a large amount of bacteria retention is used. A hot spring mist suction facility provided with a mineral tank for producing a mineral solution, a mineral supply unit for transporting the mineral solution, a mist generator for converting the transported mineral solution into a mist, and a bath chamber provided with a heating unit and a pebble layer heated by the heating unit, wherein a mist obtained by converting a mineral solution containing a mineral into a mist is introduced into the bath chamber from the upper part of the bath chamber, and the pebble layer in the bath chamber is moisturized and then heated by the heating unit, whereby the mist atmosphere containing the mineral is maintained at a uniform temperature and a uniform humidity.

Description

Hot spring mist suction facility

The present invention relates to a hot spring mist suction facility for applying thermotherapy that warms the body from the core by far infrared rays and improves blood circulation, and in particular, a hot spring characterized by generating mist with water containing minerals The mist suction facility.

Thermotherapy is a therapy that warms the body with far-infrared rays and improves blood circulation. Thermotherapy is performed in the form of integrated therapy and the accompanying hyperthermia. 70% of the human body is composed of moisture. The water molecules constituting the water have the ability to store energy. Therefore, using the thermal waves that react with water molecules, the body's body is warmed from the core by the vibrational energy of water molecules without warming only the surface.

Originally, thermotherapy is a therapy developed focusing on the nature of cancer that is vulnerable to heat, and is currently attracting attention all over the world. St. George Hospital, Germany's largest alternative therapy clinic, has reported clinical results demonstrating the superior effects of hyperthermia.

The basic concept of thermotherapy is as follows. Cellular energy decreases when a person is active for a day. The reduced energy is recovered by eating, sleeping, resting, etc. It is necessary to improve recovery ability to maintain health. Therefore, it is necessary to warm the body from the core, increase metabolism and improve blood circulation.

So far, several proposals have been made as devices using mist.

Patent Document 1 proposes a mist sauna private room using an ultrasonic mist generator for a bedrock bath. “A bed heater fan heater for blowing hot air is provided on the inlet side of the hot air passage space, and the ultrasonic mist generator is composed of a partition container having a mist generating tank and a water storage tank, and the mist generating tank. Is provided with an ultrasonic oscillator, and fine mist-like mist generated by the ultrasonic oscillator is passed from a mist tank cover covering the upper part of the mist generating tank to the upper part of the simple assembly unit via a mist duct. It has been proposed that the product be discharged from the provided mist outlet into the room.

Further, Patent Document 2 discloses a mist generating device as a facial device. In Patent Document 2, “at the time of mist generation, cooling in the cooling unit and electrolysis at the electrode are performed in parallel with respect to the liquid sterilized by the heating unit or the mist before being discharged from the discharge port. It is performed ”.

Furthermore, in Patent Document 3, a mist is generated by using a sprayer or a sprayer in combination with an ultrasonic vibrator. Subsequently, Patent Document 4 discloses an invention in which steam is generated by a boiler to generate mist. On the other hand, in Patent Document 5, a water supply container is attached to a wrinkle generator, the stored water is warmed to around 40 ° C. by a heater for heating, and the two ultrasonic vibrators 10 are operated to make the ultrasonic oscillator finer. A mist-like mist is generated. On the other hand, Patent Document 6 discloses a state in which the humidity of the circulating flow is increased in the form of a mist or steam using an ultrasonic device.

Japanese Patent No. 3872501 Japanese Patent No. 4915582 Japanese Patent No. 5064581 Japanese Patent No. 3987502 Utility Model Registration No. 3124724 Japanese Patent Application Publication No. 3-49468

By the way, the bedrock bath as shown in Patent Document 1 is examined. In a bedrock bath using monoliths, the bedrock is monolithic, so the waves are single. For this reason, even if this bedrock is heated, since the rock wave is single, the human body gets used to the single wave, and the human body will have antibodies against the single wave, and the far-infrared effect There was a problem of fading. In addition, on the bedrock, bacteria are likely to stay on the surface, and there have been problems in terms of hygiene. For this reason, it is necessary to provide a material that can radiate far-infrared rays having different wave motions and has less bacteria retention.

Moreover, not only the effect of far infrared rays in thermotherapy, but also the provision of minerals has a great effect in terms of beauty, such as having a moisturizing effect on the skin. However, in natural hot springs, for example, the ingredients are not blended according to the purpose, but they are present at a blend ratio that happens to exist in nature. Was thin and not efficient for the purpose of sucking minerals. For this reason, the mineral solution in which the mineral good for a body was mix | blended with the appropriate density | concentration with sufficient balance was required.

By the way, in the conventional thermotherapy, hot spring water is directly sprinkled on the bedrock with a hose, and the indoor humidity is increased by evaporating using the heat of the floor heating. The applicants investigated by evaporating hot spring water using this method, and the mass of minerals was heavier than water, did not evaporate, settled underground, and the generated steam component was water. Yes, it did not contain any minerals. Therefore, the applicants needed to develop a method capable of simultaneously evaporating mineral components. Also, there is a problem in the patent literature. For example, in Patent Literature 1, it is necessary to solve the problem of far-infrared wave in a rock bath and the problem of bacteria retention.

In Patent Document 2, there is a need to clarify the control in the bathroom after discharging the mist into the bathroom.

Patent Document 3 needs to clarify the environment of the temperature and humidity in the bathroom where the mist is released and a method for controlling the mist.

Patent Literature 4 evaporates a mineral-containing solution at a high temperature and high pressure, and employs a method in which sufficient mineral evaporation cannot be expected. For this reason, it is necessary to solve the problem about the method of evaporation of a mineral.

Patent Document 5 discloses only a method for generating mist, and does not fully disclose a method for evaporating minerals.

Patent Document 6 also discloses only a method for generating mist, and does not fully disclose a method for evaporating minerals.

Therefore, an object of the present invention is to provide a material that can radiate far-infrared rays having different waves and has less bacteria retention. In particular, by using a mixture of a plurality of arbitrary far-infrared emitting materials, the far-infrared vibration waveform has a plurality of waves that overlap to obtain a resonance effect. As a result, far-infrared rays whose penetrating power has been amplified by the resonance action are quickly conducted into the user's body to obtain an efficient far-infrared effect and its “far-infrared sympathetic effect”. It aims at realizing the effect to express.

The second object of the present invention is to provide a mineral solution formulated in a balanced manner.

Furthermore, a third object of the present invention is to enable bathing with steam containing minerals by sufficiently evaporating the minerals.

Next, a fourth object of the present invention is to promote the diffusion of mist by introducing outside air when the mist diffusion is insufficient in the ultrasonic generator.

Subsequently, the fifth object of the present invention is to introduce gas from the bathroom in order to be influenced by the outside air temperature by introducing the outside air when the mist diffusion is insufficient in the ultrasonic generator. That is to do heat exchange.

In order to solve the object of the present invention, a hot spring mist suction facility according to the present invention includes a mineral tank that generates a mineral solution, a mineral supply unit that transfers the mineral solution, and a mist generation that mists the transferred mineral solution. And a hot spring mist suction facility comprising a bathroom with a heating section and a gravel layer heated by the heating section,

The mineral solution is put into the bathroom from the upper part of the bathroom as a mist that is made into a mist containing minerals, and the marble gravel layer in the bathroom is moistened and heated by the heating unit, so that a mist atmosphere containing minerals is obtained. Maintain a constant temperature and humidity.

Mist may be supplied from the upper part of the bathroom by arranging the mineral supply part at the upper part of the bathroom.

Further, the mist may be supplied into the bathroom by the sending unit, or the air in the bathroom may be supplied into the bathroom by the sending unit.

Furthermore, a mineral tank that generates a mineral solution may be preheated by a heating unit. Subsequently, the mist discharge port in the bathroom may be near the floor in the bathroom.

By applying the present invention, it is possible to radiate far-infrared rays with different waves and provide a material with less bacteria retention. By using a combination of a plurality of arbitrary far-infrared radiation materials, the far-infrared vibration waveform has a plurality of waves that overlap to provide a resonance effect. As a result, far-infrared rays whose penetrating power has been amplified by the resonance action are quickly conducted into the user's body to obtain an efficient far-infrared effect and its “far-infrared sympathetic effect”. The effect to play is realizable.

In addition, by applying the present invention, a well-balanced mineral solution can be provided.

Furthermore, by applying the present invention, it is possible to allow bathing with steam containing minerals by sufficiently evaporating the minerals.

Next, by applying the present invention, it is possible to promote the diffusion of mist by introducing outside air when the mist diffusion is insufficient in the ultrasonic generator.

Subsequently, by applying the present invention, the ultrasonic generator introduces the outside air when the mist is not sufficiently diffused, and thus introduces the gas from the bathroom to be affected by the outside air temperature. Heat exchange can be performed at

It is a block diagram which shows the outline of the hot spring mist suction facility of the 1st Embodiment of this invention. It is a block diagram which shows the outline of the hot spring mist suction facility of the 2nd Embodiment of this invention. It is a block diagram which shows the outline of the hot spring mist suction facility of the 3rd Embodiment of this invention. It is a top view of the hot spring mist suction facility of the 3rd Embodiment of this invention. It is a longitudinal cross-sectional view of the hot spring mist suction facility of the 3rd Embodiment of this invention. It is a layout of the heating means of the hot spring mist suction facility of the third embodiment of the present invention. It is a block diagram which shows the outline of the hot spring mist suction facility of the 4th Embodiment of this invention. It is a block diagram which shows the outline of the hot spring mist suction facility of the 5th Embodiment of this invention. It is a side view of the hot spring mist suction facility 502 of the 6th Embodiment of this invention. It is a block diagram of the reinforcing bar 520 and the piping 522 of the hot spring mist suction facility 502 of the 6th Embodiment of this invention. It is sectional drawing of AA 'of the hot spring mist suction facility 502 of the 6th Embodiment of this invention. It is a top view of the hot spring mist suction facility 502 of the 6th Embodiment of this invention. It is a top view of the hot spring mist suction facility 502 of the 6th Embodiment of this invention. It is sectional drawing of the two-stage type drainage port 510 of the hot spring mist suction facility 502 of the 6th Embodiment of this invention.

Next, an embodiment of the hot spring mist suction facility according to the present invention will be described in detail with reference to the drawings.

(First embodiment)
FIG. 1: shows the block diagram which shows the outline of the hot spring mist suction facility 2 of the 1st Embodiment of this invention.

In the hot spring mist suction facility 2, a mineral tank 4 for storing a mineral solution sprayed as mist is disposed. This mineral tank 4 is connected to a faucet 8 via a pipe 6. The faucet 8 may be connected to the water supply, but may be a hot water faucet.

The mineral tank 4 is provided with an opening 10 into which a mineral stock solution is injected. In the mineral tank 4, the mineral solution refine | purified from mineral undiluted | stock solution and a tap water is extracted as a mineral containing aqueous solution directly from a mineral, and it is desirable to contain the mineral considered good for a body in good balance. The mineral solution (hot spring) to be used is a mineral group solution obtained by dissolving and extracting 20 or more kinds of minerals with inorganic acid from vermiculite, which is a weathered body of biotite, and does not contain organic matter.

The applicant has determined that the corroded granite produced from the Abukumazan system in Fukushima Prefecture contains dozens of mineral components in a well-balanced manner, and the minerals contained are extracted in the form of ions that are easily absorbed by the body. Yes.

The mineral solution used in the hot spring mist suction facility according to the present invention is a single substance, and the chemical classification is sulfate of various minerals. Its component and standard content (g / L) are as follows: Fe is 10.5 (g / L) (provided as Fe ₂ (SO ₄ ) ₃ ), Al is 9.2 (g / L) (provided that Al ₂ (As SO ₄ ) ₃ , Mg is 3.7 (g / L) (as MgSO ₄ ), K is 1.9 (g / L) (however, as K ₂ SO ₄ ), H ₂ SO ₄ is 51. 1 (g / L) and containing several tens of other minerals.

In addition, dozens of other minerals are included (see ingredient analysis table). Statistical item number (HSNo.): 3824 / 90-900 (chemical industry product), standard international product classification (SITC): 523-19 (inorganic chemical product), UN number: Item No.66 UNNo.2796 (Low concentration sulfuric acid-containing substance).

Also, minerals are classified as acidic mineral-containing aqueous solutions, and the danger is low corrosiveness to human skin due to low free sulfuric acid content (about 5%). Hazard is harmless. Does not contain harmful heavy metals (see component analysis table). The effect on the environment is a water purification agent and does not affect any natural environment. This has been proved in toxicity tests on medaka.

In addition, the physical / chemical property is a brownish liquid in appearance. The specific gravity is 1.15 to 1.16, the pH is 0.5 to 1.0, the boiling point is 100 ° C., the freezing point is −10 ° C., and the solubility (water) is 100% (10 ° C.).

In addition, hazard data include no explosion point (per aqueous solution), no flammability (per aqueous solution), no flammability (per aqueous solution), none explosive (per aqueous solution), no dust explosive ( Per aqueous solution).

Also, as toxicity data, there is no corrosiveness to skin, and irritation stimulates damaged skin. On the other hand, there is no sensitivity, no acute toxicity, no subacute toxicity, no chronic toxicity, no carcinogenicity, no mutation, no teratogenicity.

Furthermore, in environmental data, there is no degradability and no accumulation. Next, Table 1 shows the content of each component.

Also, there is no toxicity to fish (however, it is necessary to pay attention to pH for acidity).

The analytical methods employed are atomic absorption spectrometry for K, Na, Li, BaSO ₄ weight method after oxidation with bromine for S, and high frequency inductively coupled plasma optical emission spectrometry (ICP). It has been.

In addition, the content of toxic heavy metals (inspection results of the Tokyo Food Sanitation Association) does not detect arsenic, nor does it detect lead. Cadmium is not detected. In addition, total mercury is not detected.

The mineral tank 4 containing the mineral solution is connected to the mineral supply unit 14 via the connecting pipe 12.

The mineral supply unit 14 is a normal pump, and is a device that supplies the mineral solution in the mineral tank 4 to the mist generating unit 18.

The mist generating unit 18 is connected to the mineral supply unit 14 via the connecting pipe 16. The mist generating unit 18 is connected to the bathroom 30 via a mist pipe 28. Here, if the mist generating part 18 is arranged on the upper part of the bathroom 30, the mist can be supplied in the shortest distance. Further, mist can be discharged from the upper part of the bathroom 30.

The mist generating unit 18 includes a mineral solution bottle 20 therein.

The mineral solution bottle 20 stores a mineral solution sent via the connecting pipe 16. The amount of the mineral solution stored in the mineral solution tank 20 is controlled by the float switch 22. When the float switch 22 is floated in the mineral solution tank 20 and the mineral solution falls below a predetermined amount, the float switch 22 is turned on, and is transmitted to the mineral supply unit 14 connected by the signal line 24, and the mineral of the mineral solution Supply to the solution tank 20 is started. Conversely, when the mineral solution exceeds a predetermined amount, the float switch 22 is turned off and transmitted to the mineral supply unit 14 connected by the signal line 24, and the supply of the mineral solution to the mineral solution bottle 20 is stopped.

The vibrator 26 is disposed at the bottom of the mineral solution bottle 20. The vibrator 26 incorporates a piezoelectric ceramic element or the like therein and is set so as to vibrate around 2 MHz, whereby the mineral solution can be misted while containing the mineral. The mist mineral solution is supplied to the bathroom 30 through the mist pipe 28.

In conventional facilities, hot spring water containing minerals directly on gravel was hosed and evaporated using the heat of floor heating, but the indoor humidity was raised, but the mass of minerals is heavier than water It settled underground, and most of the components of the vapor were water.

In order to solve this problem, the applicant developed a technology that refines the mineral solution to a few microns by applying the principle of ultrasonic humidification and sends it directly into the room using a fan.

When a piezoelectric ceramic vibrator is installed at the bottom of the mineral solution bowl 20 and a high-frequency AC voltage is applied to it, the vibration energy of the generated ultrasonic waves is transmitted to the water surface, and under certain conditions, part of the water surface rises. From there, a fine fog is generated. Since the mist generating unit 18 of the present application has a very high resonance frequency, fog is generated.

The optimum conditions such as the size, thickness, frequency, sound pressure, water depth, etc. of the piezoelectric vibrator are determined, and the piezoelectric vibrator is set to be atomized rather than horizontal so that the atomization efficiency is maximized. Yes.

The mineral solution supplied from the mineral tank 4 to the mist generating unit 18 is maintained at a constant water level by the float switch 22, and a vibrator 26 is installed at the bottom of the mineral solution tank 20. When a high-frequency voltage is applied from the drive circuit, the piezoelectric vibrator functions as an ultrasonic vibrator, and the vibration energy concentrates on the water surface and the water column stands, and the surface of the water column is greatly reduced. Is scattered. This is sent out as mineral mist by the airflow of a blower fan (not shown). Since the mist of the mist generating part 18 is as fine as several microns (μm), the thermal effect of the present application has made it possible to effectively infiltrate the capillaries and the body with active metabolism by opening the pores. .

The bathroom 30 is provided with an opening of a mist pipe 28 at the top so that a mist containing mineral is discharged. On the other hand, a heating unit 34 is provided on the floor portion which is the lowest end of the bathroom 30. The heating unit 34 is provided with an electric heater or a pipe for hot water, and is configured so that the inside of the bathroom 30 can be heated so that the room temperature is 40 ° C. to 50 ° C., and preferably 45 ° C.

The boulder gravel layer 32 is provided on the upper layer of the heating unit 34. A faucet 36 is provided in a part of the bathroom 30, and water is evaporated from the surface of the gravel layer 32 by spraying water to such an extent that the surface of the gravel layer 32 gets wet. Is set to be 70% to 90%, more preferably 80%.

Also, the bathroom 30 is provided with a temperature sensor 38 on its inner wall. The temperature sensor 38 is connected to the heating source unit 42 and the wiring 40. The heating part 34 and the heat source part 42 are connected by a connecting part 44. If the heating unit 34 is an electric heater, the heating source unit 42 is a power source, and the connecting unit 44 is a conductive wire. On the other hand, if the heating part 34 is a hot water pipe, the heating source part 42 is a water heater, and the connecting part 44 is a pipe. Here, when the set temperature is 45 ° C., the heating source unit 42 is set to heat the heating unit 34 when the temperature is lower than the room temperature 45 ° C., and when the set temperature is higher than the room temperature 45 ° C., the heating unit 34 is set. Stop heating. That is, when the heating unit 34 is an electric heater, the power supply is controlled to be driven and stopped by the value of the temperature sensor. When the heating unit 34 is a hot water pipe, the water heater is heated by the value of the temperature sensor. And controlled stop.

Here, the conventional bedrock bath using monoliths has the problem that the body becomes accustomed to the waves because of the far-infrared rays produced by a single wave-like stone, and antibodies are produced and the far-infrared effect is diminished. Was. There was also concern about hygiene from the tendency of bacteria to stay on the bedrock.

Therefore, the applicants were able to prevent habituation to the body by radiating far-infrared rays of different waves by blending different stones according to their characteristics by converting the bedrock into gravel. In addition, since the whole gravel can be washed with a high-pressure washer, it is possible to exert excellent effects from the viewpoint of hygiene. The bather lies with his gravel gravel lying down, so it has a moderate pressure on the body and is comfortable.

Far infrared rays are a type of electromagnetic wave and are defined as having a wavelength in the range of 4.0 to 25 μm (micrometers).

Far infrared is not heat. Far-infrared rays are easily absorbed by organic substances by radiative transmission, and are heated by giving vibration energy to the molecules of the organic substances and moving the molecules themselves to generate heat. Far-infrared rays are also called “growth rays”, and have the feature of warming the body mildly and making it difficult to cool by penetrating deep into the skin and resonating cells. As body temperature rises, capillaries are dilated, blood circulation is improved, and the natural healing power of the human body, such as cell metabolism and increased immunity, is increased.

Further, the boulder gravel layer 32 is a boulder, or any one of barleystone, radium ore, tourmaline, Ioishi, basalt volcanic rock, germanium ore, Takachihoishi / Amaterite, Tianju stone, Chiakiishi and fossil ocher. Alternatively, all combinations are used.

More specifically, barley stone is formed from minerals that have been affected by the energy of large crustal movements about 70 million to 50 million years ago, with the addition of ultra-high pressure and ultra-high temperature. Due to the special formation of barleystone, it is mined only in a few places around the world and is a very rare natural ore. Since barley stone is porous, it adsorbs the chlorine component (chlorine) and various germs of tap water, elutes abundant mineral components, and has strong far-infrared radiation intensity.

Radium ore is a rock containing radium, which is an alkaline earth metal that was discovered by Curie and his wife in 1898. There is no stable isotope, and all four isotopes are radioactive elements, of which radium 226 with the longest half-life is alpha decayed to radon 222 (gas).

The color of radium ore is silver white and is included in rocks and hot springs. Hot springs that contain radioactive elements such as radium, radon, and thoron are called radioactive springs. Depending on the radioactive element content of the hot spring, it is called radium hot spring, radon hot spring, etc.

Tourmaline is called the electric stone, and weak electricity flows when heat and pressure are applied from the outside. Unlike tourmaline, which has lost its shape, tourmaline that maintains its crystalline form is called a polar crystal, and has a negative electrode on one side and a positive electrode on the other.

In other words, because it is a crystal body equipped with this electrode, it works efficiently for electric action.

Io-Oishi is a natural ore that has been generated on the ground due to crustal movements after a long period of time, when seabed sediments are generated while containing marine components. It is rich in porosity and contains good quality mineral components in a balanced manner. Among them, 33% soluble silicic acid is contained, and when this silicic acid is dissolved, the mineral content is also dissolved. It is ideal for improving water quality and making reduced water, and is used as a raw material in water purifiers of various companies. In recent years, far-infrared radiation, mineral elution and reduction are expected.

Basalt volcanic rock is excellent in moisture conditioning, harmful substance adsorption, odor adsorption, soundproofing and heat resistance.

In germanium ore, germanium is a semiconductor located between metal and non-metal, and becomes a conductor that conducts electricity at 32 ° C or higher due to the influence of energy such as light and heat. The germanium electrons that have become conductors become free electrons and become active. When the opponent is positive electricity, it acts negatively, and when the opponent is negative electricity, it acts positively. A very weak current called a bioelectric current flows to humans, but germanium works efficiently on this bioelectric current.

In Takachihoishi / Amaterite, the radiant energy of Takachihoishi is an electromagnetic wave of 4 to 14 microns, which is a kind of far infrared ray. This has been shown to work very effectively for the growth of animals and plants and the physiological activity of life.

In particular, the content of silicon dioxide is large, causing quartz (vibration) like quartz and quartz, resonating resonance of water molecules in our body, improving metabolic function by promoting blood circulation and strengthening immunity by raising body temperature It is said to be illustrated. Furthermore, it is widely used to treat atopic dermatitis, improve coldness, and bath materials.

Tenju stone is a natural stone from Korea, and the region with the mountain of Mt.Gorak in Korea has a valley and a lake, and is a region full of majestic charm of nature. In addition to being excellent in components, it has a high far-infrared emissivity, and is particularly useful in various fields because of its exceptionally superior wave value.

Chiakishi is a natural stone produced from the soil at the foot of Peacock in Korea, and is known as an ore with excellent far-infrared emissivity and wave values. In addition, the water that springs through this rock is used as water with excellent mineral balance.

Fossil loess is a natural ore that is most commonly used in far-infrared saunas because of its excellent humidity control and harmful substance absorption and far-infrared action.

The operation of the present invention in the above configuration will be described.

Water fed from the faucet 8 is introduced into the mineral tank 4 via the pipe 6 and mixed with the mineral stock solution injected from the opening 10 at a predetermined blending ratio to generate a mineral solution. The

The mineral solution is introduced into the mist generation unit 18 by the mineral supply unit 14. Specifically, the mineral supply unit 14 introduces a mineral solution into the mineral solution bottle 20, but supplies the mineral solution according to a signal from a float switch 22 provided in the mineral solution bottle 20. The float switch 22 transmits a supply required signal to the mineral supply unit 14 when the amount of the mineral solution in the mineral solution basket 20 falls below a predetermined amount, and the mineral supply unit 14 transmits the mineral solution.

The mineral solution introduced into the mineral solution tank 20 is misted by the vibrator 26.

The generated mist is introduced into the bathroom 30 via the mist pipe 28. In the bathroom 30, the gravel layer 32 is heated by the heating unit 34 and is heated by thermal radiation by far infrared rays. The temperature adjustment is adjusted by feedback of the temperature sensor 38 and the signal to the heating source unit 42.

On the other hand, the humidity is controlled so that the water from the faucet 36 wets the gravel layer 32 and, as a result, the water is humidified and the humidity is 80%.

By operating as described above, mist can be easily introduced into the bathroom 30 without using power.

(Second Embodiment)
FIG. 2 is a block diagram showing an outline of the hot spring mist suction facility 102 according to the second embodiment of the present invention.

For the same instruction numbers as those in the first embodiment, the last two digits are set to the same numerical value, and the description of the same numbers is omitted.

The second embodiment will be described focusing on the differences from the first embodiment. In the second embodiment, the mineral tank 104, the mineral supply unit 114, and the mist generation unit 118 are not the upper part of the bathroom 130, but are arranged in adjacent locations or the like. In this case, since the mist is transported over a long distance, a certain pressure is required to generate the mist flow. Therefore, in the second embodiment, the blast pipe 150 is joined to the mist pipe 128, and the mist flow is sent out from the opening end 129 provided on the upper wall of the bathroom 130.

Therefore, as a configuration, the outside air introduction pipe 146 is connected to the blower 148, and the blower 148 is connected to the blower pipe 150. The blower pipe 150 is connected to the mist pipe 128 using a Y-shaped joint, so that pressure loss can be reduced. In addition, since the pressure of the blower 148 can be used, the mist generated by the mist generator 118 can be transferred to the bathroom 130.

(Third embodiment)
FIG. 3 is a block diagram showing an outline of a hot spring mist suction facility 202 according to the third embodiment of the present invention.

For the same instruction numbers as those in the second embodiment, the last two digits are the same numerical value, and the description of the same numbers is omitted.

The third embodiment is different in that the air blown from the outside air in the second embodiment is introduced from the windbreak chamber 252 adjacent to the bathroom 230. If the mist is blown using the outside air when the outside air temperature decreases in winter, two problems arise due to the mist temperature being lowered. The first problem is a decrease in the temperature of the bathroom 230. This hinders the maintenance of room temperature at 45 ° C. The second point is an increase in steam components in the mist. Since the saturated water vapor amount decreases due to a decrease in temperature, the steam component increases.

Therefore, a windbreak room 252 is provided in the passage to the bathroom 230 adjacent to each other in the same waterproof state as the bathroom 230, and is separated by the door 254. For this reason, the inside of the windbreak room 252 is very close to the room temperature of the bathroom 230. For this reason, the fall of the temperature of mist can be minimized and an unnecessary steam component can be reduced.

FIG. 4 shows a top view of the hot spring mist suction facility in the third embodiment. In particular, details of the heating unit 234 will be described.

The heating unit 234 includes a water heater 242, a pipe 2342 and a pipe 2344, and is arranged in a bellows shape at the bottom of the bathroom 230. A water supply pipe 2322 and a gas pipe 2324 are disposed in the water heater 242.

FIG. 4 shows a state in which the windbreak chamber 252 adjacent to the bathroom 230 is connected to the blower 248 by the introduction pipe 246 and the blower pipe 250 is connected to the mist pipe 228.

FIG. 5 shows a longitudinal sectional view of the hot spring mist suction facility of the third embodiment. In FIG. 5, the FRP plate 259 is disposed in the lowermost layer, and the urethane 258 is disposed in the upper layer to insulate. Reinforcing bars 2352 are arranged in a lattice pattern on the upper layer of urethane 258. The pipe 2346 and the pipe 2342 are arranged on the upper part along the reinforcing bar 2352 and are fixed by the van bun 2350 at each lattice point. All of these are fixed with concrete. After producing the concrete floor, a gravel layer 232 is placed thereon.

As for the wall surface, the urethane layer 244 is provided inside the outermost layer, the stud layer 249 is provided inside thereof, the plywood 247 is arranged inside thereof, and the kitchen panel is arranged inside thereof.

In addition, the reinforcing bar 2352 and the

pipes

2354, 2346, 2348, 2342, and 2344 are arranged in the same manner as the grid, while the reinforcing bars 2352 are arranged in a grid pattern, but the pipes are arranged with only one pipe. Instead, it can be seen that a plurality of pipes form a grid-like arrangement.

(Fourth embodiment)
FIG. 7 is a block diagram showing an outline of a hot spring mist suction facility 302 according to a seventh embodiment of the present invention.

For the same instruction numbers as those in the third embodiment, the last two digits are set to the same numerical value, and the description of the same numbers is omitted.

The difference from the third embodiment is that the mineral tank 304, the mineral supply unit 314, and the mist generating unit 318 are embedded in the gravel layer 332. In the previous embodiment, the mineral tank 304, the mineral supply unit 314, and the mist generation unit 318 are all arranged outside, and a decrease in temperature is expected in winter. Therefore, by arranging the mineral tank 304, the mineral supply unit 314, and the mist generating unit 318 in the gravel layer 332, the temperature drop of the mineral solution can be minimized.

(Fifth embodiment)
FIG. 8 is a block diagram showing an outline of a hot spring mist suction facility 402 according to the fifth embodiment of the present invention.

The difference from the fifth embodiment is the position of the opening end 456 of the bathroom 430. One end is opened near the floor of the bathroom 430. For this reason, a customer etc. can take a mist containing a mineral directly.

As another embodiment, a waterproof speaker is provided in the bathroom, and connected to an amplifier and a music media playback device to play music or any sound generated in the forest that is recorded in the actual forest. The healing effect may be enhanced. Specifically, for the purpose of enhancing the healing effect by hearing, further effects can be obtained by listening to the sound of the forest live while lying on the bathroom floor with reference to German Kneipp therapy. As a result, stress hormones are reduced primarily by forest baths that listen to forest sounds live. In addition, parasympathetic activity is increased. In addition, sympathetic nerve activity is suppressed. In addition, systolic / diastolic blood pressure and pulse rate decrease. In addition, the psychological tension is eased and vitality is increased. Subsequently, NK activity increases and immunity increases. Finally, anticancer protein increases.

(Sixth embodiment)
FIG. 9 shows a side view of a hot spring mist suction facility 502 according to the sixth embodiment of the present invention.

In the hot spring mist suction facility 502, the pillar 508 supports the beam 506 on the base 504. On the base 504, a heat insulating material 512 inclined toward the two-stage drain port 510 is placed. On the upper surface of the heat insulating material 512, a waterproof processed surface (FRP) 514 is formed, a relay drain 516 of a two-stage drain port 510 is provided, and drainage collected by the waterproof processed surface (FRP) 514. Is configured to flow to the relay drain 516. A heat insulating material 518 in which an admixture and a concrete are mixed is further provided above the waterproof surface (FRP) 514. A rebar 520 (not shown) is provided on the upper surface of the heat insulating material 518, and a pipe 522 (not shown) is also provided. Details will be described separately. Use of heat insulating material can reduce the escape of heat from the floor. The waterproof function is enhanced by combining the FRP waterproofing and the mixed waterproofing. It also serves as a countermeasure against cracks in concrete.

A concrete layer 524 is further placed on the heat insulating material 518, the reinforcing bar 520, and the pipe 522. The thickness of the concrete layer is preferably about 7 to 10 cm. The top surface of the concrete layer 524 is also provided with a waterproof surface (FRP) 526, an upper drain 528 of the two-stage drainage port 510 is provided, and the drainage collected at the waterproof surface (FRP) 526 is collected in the upper drain 528. Discarded with water. Accordingly, the waterproof surface (FRP) 526, the concrete layer 524, the reinforcing bar 520, the heat insulating material 518, and the waterproof surface (FRP) 514 are all about 0.1% to 5%, preferably about 0.5% to 3%. Has an inclination. For this reason, it is easy to drain sebum dirt. Functional ball gravel 530 is mounted on a waterproof surface (FRP) 526, but the upper surface is mounted so as to be flat. It is also possible to improve the flow of sebum dirt by placing a saw or wire net under the functional ball gravel 530.

The wall surface of the hot spring mist suction facility 502 is provided with a heat insulating material 532 on the indoor side from the pillar 508, and further, two panels 534 are laminated on the indoor side so that the joints do not overlap each other.

A hot water mist machine 536 is disposed on the lower side of the upper side wall of the two-stage drain 510. A high concentration mineral mist machine 538 is disposed immediately above the hot water mist machine 536.

The hot water mist machine 536 is a mist machine whose temperature can be controlled by hot water supplied and supplied constantly. In order to maintain room temperature, it is preferable that supply capability is higher than the high concentration mineral mist machine 538. By supplying hot water directly, a drop in room temperature can be prevented. Moreover, since hot water can be supplied, piping can be shared with a faucet for maintenance and the like. Moreover, since a high concentration mineral is not used, deterioration of a warm water mist machine can be reduced and the frequency of maintenance can also be reduced.

The high-concentration mineral mist machine 538 is a mist machine dedicated to high-concentration minerals at room temperature, and always generates high-concentration mineral mist by supplying high-concentration mineral water adjusted to an appropriate concentration. By using the high-concentration mineral mist machine 538 as a dedicated machine, the hot water mist machine 536 can be freely adjusted and replaced with respect to corrosion and deterioration of the mist machine due to the high-concentration mineral.

These mist machines are connected to a maintenance faucet 544 from an external water source 540 through a pipe 542. Further, the external water source 540 is connected to a water heater 548 through a pipe 546. The water heater 548 is further connected to a maintenance hot water tap 552 and a hot water mist machine 536 through a pipe 550. That is, a single hot water heater 548 can supply the hot water bottle 552 for maintenance and the hot water mist machine 536. In addition to the external faucet, a high-pressure washing device may be provided to improve maintenance efficiency.

The air supply vent 554 and the exhaust vent 556 are provided at the same height with a certain interval at a position higher than the mist machine on a wall surface different from the two mist machines. The air supply vent 554 supplies outside air, and the exhaust vent 556 exhausts indoor air. Although not shown in the drawings, the motor of the eyes of the fan for ventilation can be easily replaced when it is deteriorated by high-concentration minerals by providing it in a pipe communicating with the ventilation port. The ventilation fan can be controlled independently by supplying and exhausting air, thereby preventing a temperature drop during supply and exhaust.

It should be noted that heat exchange may be performed instead of supply and exhaust.

The ceiling 558 is configured to be inclined to the opposite side to the mist machine, contrary to the waterproof surface (FRP) 526. The outer surface of the ceiling 558 is also a waterproof surface 560 that has been waterproofed. A panel 562 is provided on the beam side, and a heat insulating material 564 is provided inside the panel 562.

Subsequently, a detailed configuration will be described with reference to FIGS. The configuration of the floor will be described with reference to FIGS. 10 and 11. FIG. 10 shows a configuration of the reinforcing bar 520 and the pipe 522, and the reinforcing bar 520 is arranged on the heat insulating agent 518 in a lattice shape. The pipe 522 is a pipe for heating gravel, and has a function of heating the gravel by being connected to a hot water heater (not shown). The pipes 522 are arranged in a bellows shape, provided that the pipes do not intersect each other. By arranging in this way, the minimum necessary piping for maintaining the temperature can be obtained. For this reason, the hot water supplied to piping can be made into the minimum required level, and the fuel cost can be reduced.

FIG. 11 is a cross-sectional view taken along the line AA ″ in FIG. 10, in which the pipe 522 and the reinforcing bar 520 are arranged above and below, a waterproof surface (FRP) 514 is provided on the heat insulating material 512, and the mixture with the admixture Is provided with a heat-insulating material 518 and a reinforcing bar 520, and a pipe 522 is disposed in the concrete layer 524. A waterproof surface (FRP) 526 is provided on the upper layer, and a functional gravel 530 is provided thereon. Is placed.

FIG. 12 is a top view of the hot spring mist suction facility 502. A windbreak room 566 is provided adjacent to the bathroom 501. The bathroom 501 is provided with a high-concentration mineral mist machine 538 on one side, and an air supply vent 554 and an exhaust vent 556 on a different side. The outside air supplied from the air supply vent 554 circulates in the bathroom 501 and is exhausted from the exhaust vent 556 as indicated by the arrow. In the windbreak room 566, an internal port 568 that communicates with the bathroom 501 and an external port 570 that communicates with the outside are provided. In the present embodiment, no air supply / exhaust pipe is provided in the windbreak chamber. Release of high-concentration mineral mist from the windbreak room and condensation can be prevented.

FIG. 13 is a top view of the hot spring mist suction facility 502. It is the figure shown especially about the gravel and the partition.

In order to clarify the space for one person for the gravel, the customer space can be clarified by providing a partition 572 such as a plate. Furthermore, by dividing by the partition 572, a plurality of types of

gravel

574, 576 can be arranged, and the gravel according to the customer's preference can be arranged. Marine marine, medicinal stones, and radium balls can be used as functional gravel. Furthermore, the personal space can be made clearer by providing a panel 578 such as a lattice on the partition. Degradation measures can be taken by painting the partition with glass paint. The partitioning space can be divided into personal use of about 1.8 square meters, two people of about 3.3 square meters, and family of about 7 square meters.

FIG. 14 is a cross-sectional view of the two-stage drain port 510. The two-stage drain port 510 includes a relay drain 516 and an upper drain 528. The relay drain 516 has a drop port 580 of the upper drain 528 inserted in the center, and a donut-shaped relay drain cap 584 in which a plurality of relay drain holes 582 are opened. A relay drain port 586 is provided below the relay drain cap 584, and a relay drop port 588 is opened below the relay drain port 586 to communicate with the sewer port. The level of the relay drain cap 584 matches the waterproof surface (FRP) 514.

The upper drain 528 is provided with a circular upper drain cap 592 in which a plurality of upper drain holes 590 are opened, and an upper drain port 594 is provided below the upper drain cap 592. A drop port 580 connected to the relay drain 516 is provided at the center of the upper drain port 594. The level of the upper drain cap 592 matches the waterproof surface (FRP) 526. By forming the waterproof layer in two stages, it becomes a countermeasure against condensation that occurs in the heat insulating layer.

The operation of the sixth embodiment will be described with the above configuration. The bathroom 501 heats the functional gravel 530 with hot water circulating in the pipe 522.

On the other hand, the mist generated by the hot water mist machine 536 is also generated from the hot water to heat the inside of the bathroom 501. On the other hand, the high concentration mineral mist containing the high concentration mineral is generated from the high concentration mineral mist machine 538. Since the high-concentration mineral mist machine 538 is disposed on the hot water mist machine 536, the hot water mist generated by the hot water mist machine 536 and the high-concentration mineral mist are mixed and filled in the room. By doing this, the room temperature can be raised without supplying hot water directly to the high concentration mineral mist machine 538, so even if the outside temperature falls in the winter, the high concentration mineral does not decrease. Mist can be supplied. Further, by separating the high-concentration mineral mist machine 538 and the hot water mist machine 536, the load on the mist machine can be reduced and the maintenance load can be reduced.

In addition, when the room temperature and humidity rise, the room temperature and humidity can be lowered by ventilating with the air supply vent 554 and the exhaust vent 556.

2 Hot spring mist suction facility 4 Mineral tank 6 Piping 8 Water faucet 10 Opening portion 12 Connecting tube 14 Mineral supply portion 16 Connecting tube 18 Mist generating portion 20 Mineral solution tank 22 Float switch 24 Signal line 26 Vibrator 28 Mist tube 30 Bathroom 32 Gravel Layer 34 Heating part 36 Water faucet 38 Temperature sensor 40 Wiring 42 Heating source part 44 Connection part 102 Hot spring mist suction facility 104 Mineral tank 114 Mineral supply part 118 Mist generating part 128 Mist pipe 129 Open end 130 Bathroom 146 Introducing pipe 148 Blower part 150 Blow pipe 202 Hot spring mist suction facility 228 Mist pipe 230 Bathroom 232 Gravel layer 234 Heating part 242 Water heater 246 Introducing pipe 244 Stud layer 247 Plywood 248 Blowing part 250 Blowing pipe 252 Windbreak room 254 Door 259 FRP board 258 Urethane 2 42 Piping 2344 Piping 2322 Water Supply Pipe 2324 Gas Pipe 2342 Piping 2346 Piping 2348 Piping 2350 Bangsen 2352 Reinforcing Bar 2354 Piping 302 Hot Spring Mist Suction Facility 304 Mineral Tank 314 Mineral Supply Unit 318 Mist Generation Unit 332 Tamasari Formation 402 Hot Spring Mist Suction Facility 430 Bathroom 456 Opening Edge 501 Bathroom 502 Hot spring mist suction facility 504 Base 506 Beam 508 Column 510 Two-stage drain 512 Thermal insulation 514 Waterproof surface (FRP)
516 Relay drain 518 Heat insulating material 520 Reinforcing bar 522 Piping 524 Concrete layer 526 Waterproof surface (FRP)
528 Upper Drain 530 Functional Gravel 532 Thermal Insulation Material 534 Panel 536 Hot Water Mist Machine 538 High Concentration Mineral Mist Machine 540 External Water Source 542 Pipe 544 Maintenance Tap 546 Pipe 548 Water Heater 550 Pipe 552 Maintenance Tap 554 Supply Ventilation Port 556 Exhaust vent 558 Ceiling 560 Waterproof surface 562 Panel 564 Insulation material 566 Ventilation chamber 568 Internal port 570 External port 572

Partition

574, 576 Gravel 578 Panel 580 Drop port 582 Relay drain hole 584 Relay drain cap 586 Relay drain port 588 Relay Drop port 590 Upper drain hole 592 Upper drain cap 594 Upper drain hole

Claims

It is a hot spring mist suction facility comprising a bathroom comprising a mineral mist generating part that mists a mineral solution, a heating part and a gravel layer heated by the heating part,
By putting the mineral solution into the bathroom from the upper part of the bathroom as a mist containing a mineral, the wet gravel layer in the bathroom is moistened and heated by the heating unit, so that the mist atmosphere containing mineral is kept at a constant temperature. A hot spring mist suction facility that maintains a constant humidity.
The hot spring mist suction facility according to claim 1, comprising a mineral tank that produces a mineral solution, a mineral supply unit that transfers the mineral solution, and a mist generating unit that mists the transferred mineral solution.
The hot spring mist suction facility according to claim 2, wherein the mist is supplied from the upper part of the bathroom by arranging the mineral supply part at the upper part of the bathroom.
3. The hot spring mist suction facility according to claim 2, wherein the mist is supplied into the bathroom by the sending section.
The hot spring mist suction facility according to claim 2, wherein air in the bathroom is supplied into the bathroom by a sending section.
3. The hot spring mist suction facility according to claim 2, wherein a mineral tank for generating a mineral solution is heated in advance by a heating unit.
3. The hot spring mist suction facility according to claim 2, wherein the mist discharge port in the bathroom is located near the floor in the bathroom.
The hot spring mist suction facility according to claim 1, further comprising a hot water mist generating unit that supplies hot water to mist the hot water.
The hot spring mist suction facility according to claim 8, wherein the hot water mist generating part is arranged below the mineral mist generating part, and the hot water mist generated by the hot water mist generating part and the mineral mist generated by the mineral mist generating part are mixed in the air.
10. The hot spring mist suction facility according to claim 9, further comprising an air supply vent and an exhaust vent in the bathroom.
11. The hot spring mist suction facility according to claim 10, wherein the waterproof surface in the bathroom is provided with a first waterproof surface directly below the gravel and a second waterproof surface is provided under the heating unit.
The hot spring mist suction facility according to claim 11, wherein the first drain is connected to the first waterproof surface and the second drain is connected to the second waterproof surface.