JPS6132026B2 - - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to an artificial hot spring generating device that artificially generates a radon hot spring by mixing gas containing radioactive radon or the like into water and heating the water.

Gases containing radioactive radon and hydrogen sulfide act on the human respiratory system and promote sweating, which flushes out waste products from the body pores and relieves fatigue while bathing. It is said that. In this case, the hot spring ingredients contain various mineral substances, which provide a therapeutic effect on the body. When such radon hot springs or sulfur hot springs are artificially generated, the nature of the water in which radioactive radon is mixed with gases such as hydrogen sulfide greatly affects its therapeutic effect, but it is not used in general households. Tap water is neutral or slightly acidic, and its composition is not suitable for use as hot spring water.

This invention was made based on the above circumstances, and at the same time as producing water suitable for use as hot spring water, it is possible to use it by keeping gas containing radioactive radon etc. in the produced water. The purpose of this project is to provide an artificial hot spring generating device that provides the following features.

Hereinafter, the present invention will be specifically explained based on illustrated embodiments. In the figure, reference numeral 1 denotes a production tank made by blow molding or the like, and a lid 3 is airtightly attached to the production tank 1 via a rubber packing 2. A mounting plate 4 is arranged inside the lid 3, and an introduction tube 5 for introducing tap water, etc. is attached to the center of the mounting plate 4 through a packing 6. The introduction tube 5 is attached to the lid 3. Installed introduction tube 7
is communicated with. Further, a supply pipe 8 for a chemical solution such as a calcium chloride solution is led into the production tank 1 through the lid 3 and the mounting plate 4. The opening of the supply pipe 8 opens into a donut-shaped chemical liquid chamber 9 provided around the introduction tube 5,
A stirring chamber 1 partitioned by a cylindrical wall 10 below the chemical liquid chamber 9
A medicinal solution can be introduced into an annular passage 13 partitioned by the cylindrical wall 10 and the cylindrical wall 12 on the outside of the tube 1 through a through hole 14. The cylinder walls 10 and 1
The lower end of 2 ends at the lower part of the generation tank 1, and the lower end of the cylindrical wall 1
A mounting plate 15 is attached to the outer periphery of the lower end of 0. Further, a cylindrical unglazed partition wall 16 is provided surrounding the cylindrical wall 12 with packings 17 and 17'.
are connected to the respective mounting plates 4 and 15 via the cylindrical wall 12, forming an anode chamber 18 on the outside of the cylindrical wall 12, and a cathode chamber 19 between the unglazed partition wall 16 and the peripheral wall of the production tank 1. is formed. In the anode chamber 18, an anode 20 made of a plurality of carbon rods is provided.
is suspended, passes through the outside of the lid body 3 via the mounting plate 4, and is supported via the packing 21 and the cap 22, and
The lower end of the positive electrode 20 is fitted into a cylindrical supporter 23 provided on the mounting plate 15. Further, in the cathode chamber 19, a cathode 25 made of a cylindrical metal plate with a number of through holes 24 is disposed, and is attached to the upper and lower mounting plates 4 and 15 using bolts, nuts, etc. are connected by attachment means 26 and 27. The mounting plate 15 also includes an anode chamber 18 and a cathode chamber 19, respectively.
Passages 28 and 29 are opened to connect the lower part 1a of the generation tank 1 to the lower part 1a of the production tank 1.

A centrifugal pump 30 is installed in the stirring chamber 11, and has a pump suction port 30a opened downward and a discharge port 30b opened laterally.
Further, a gas containing radioactive radon (for example, air,
A discharge pipe 31 for discharging oxygen) is introduced into the stirring chamber 11 through the lid 3 and the mounting plate 4, and a conduit 3 concentric with the discharge pipe 31 is inserted into the stirring chamber 11.
Excess gas can be discharged via 2. Further, an acidic ion water discharge cylinder 33 is connected to the top of the anode chamber 18 through the lid 3 and the mounting plate 4, and an alkaline ion water discharge cylinder 34 is connected to the top of the cathode chamber 19, respectively. Note that a drain valve 35 is connected to the bottom of the generation tank 1.

Further, reference numeral 8' denotes another chemical liquid input pipe, which opens near the opening of the discharge pipe 31, is stirred by the centrifugal pump 30, and is dispersed in the water. The chemicals injected into the water through this chemical inlet tube are solutions of sodium bicarbonate, magnesium bicarbonate, calcium sulfate, potassium chloride, potassium phosphate, and other sulfates and sulfur oxides that are found in natural hot springs. Yes, and the input amount is appropriately selected.

In such a configuration, the stirring chamber 11 is
Raw water such as tap water introduced into the pump inlet 3
At 0a, the radon gas is sucked together with the radioactive radon gas from the discharge pipe 31 into the centrifugal pump 30 as a stirring device, and the radon gas is divided into fine bubbles, dispersed in the raw water, and discharged from the discharge port 30b. The discharged raw water mixed with radon gas is stored in the lower part 1 of the generation tank 1.
a to each anode chamber 18 and cathode chamber 19 and applied between the anode 20 and the cathode 25. , flows from bottom to top. Then, they are led out from the discharge tubes 33 and 34, respectively. In this case, when the radon-containing gas passes through the water during electrolysis, it is surrounded by water molecules, thereby stabilizing its dissolved state in the water. When the water containing this radon-containing gas is brought into the bathtub as hot water, it has a stimulating effect on the body by emitting two rays from the radon in the dissolved gas, and the radon-containing gas also has a stimulating effect on the body. and is released into the atmosphere. At this time, it enters the lungs when breathing, causing sweating in humans. If alkaline ionized water is used as hot spring water, the produced water has a high alkalinity and exhibits a weak alkaline reaction, and the stimulation causes the body pores to open and releases acidic waste products from the body. If acidic ionic water is used as hot spring water, the produced water exhibits a weakly acidic reaction, and its stimulation produces an astrizen effect that smooths the skin surface. Further, a required chemical solution can be introduced into the water.

In this embodiment, a discharge pipe and a centrifugal pump were used as the radon gas introduction device, but it is of course possible to combine the radon gas discharge means with other means having an appropriate stirring function.
In short, it is sufficient if radioactive radon can be dispersed into microbubbles. This is to prevent radon gas from escaping as a gas from the water since there is a subsequent step of obtaining hot water using the water in which radon gas is dissolved.

When the water is heated to make it into a hot spring, the dissolved radon gas bonds with each other through thermal movement and grows into large bubbles as they expand as the temperature rises.

In this embodiment, radon gas is supplied to the supplied water, but it is also possible to supply radon gas only to the inlet of the cathode chamber where alkaline ionized water is generated or in the middle of the channel therein. Of course, it is also possible to supply the acidic ion water only to the inlet of the anode chamber where the acidic ion water is generated or to the middle of the channel therein, or to supply it separately to both the electrode chambers.

Incidentally, even if radon gas is dispersed in the water during electrolysis in the form of fine bubbles, the current resistance value will not be reduced to the extent that it becomes a problem because the bubbles are so fine that it will not cause any trouble to the electrolytic action. In addition, in the above embodiment, the case where radon gas is used was explained, but
Of course, hydrogen sulfide or the like may also be used.

As described in detail above, this invention provides a negative electrode and an anode that are opposed to two channels separated by a porous partition wall so as to apply direct current in the left-right direction to the water flow flowing from the bottom to the top. The method is equipped with an electrode, and is configured to take out alkaline ionized water and acidic ionized water at the end of the flow path, and is provided with a gas introduction device so as to supply radioactive radon or the like in the form of fine bubbles to the water flow in the flow path or at the front stage. Therefore, it is possible to generate artificial hot spring water in a state similar to that of natural radon hot springs, and the water itself contains a lot of ions, and when the sweating effect is caused by radon gas, etc.
It has a stimulating effect on the body pores, exerts various effects on the human body, and can effectively exert a feeling of exhilaration.

In addition, the gas introduction device opens an inlet for radon gas etc. in water, and is equipped with a stirring means for stirring the gas introduced in the form of bubbles into the water, thereby further increasing the atomization of the gas. This increases the solubility and stability of the gas, minimizes its separation into bubbles during heating in the next step, and allows the gas to be stimulated by many lines in the bath. can be released into the respiratory system to achieve inhalation into the respiratory system.

[Brief explanation of the drawing]

The drawing is a longitudinal side view showing an embodiment of the present invention. 1... Generation tank, 3... Lid, 11... Stirring chamber, 16...
Unglazed partition wall, 18...Anode chamber, 19...Cathode chamber, 20...
Positive electrode, 25... Negative electrode, 30... Volute pump, 31
...Emission tube.

Claims (1)

[Scope of Claims] 1. A negative electrode and a positive electrode are provided which face two channels separated by a porous partition so as to apply a direct current in the left-right direction to a water flow flowing from bottom to top, Alkaline ionized water and acidic ionized water are taken out at the end of the flow path, and a gas introduction device is provided in the flow path or at the front stage to supply gas containing radioactive radon, etc., in the form of fine bubbles to the water flow. An artificial hot spring generating device characterized by: 2. The gas introduction device is characterized in that the gas introduction port is opened in water and is equipped with stirring means for stirring the gas introduced in the form of bubbles into the water. Artificial hot spring generator.