JP2011180112A - Radioactive composition raw material, radioactive product, and health facility using the same - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a radioactive composition raw material and a radioactive product, capable of sufficiently generating radiation energy within a range where the radiation dose is permitted in respect of safety, and to provide a health facility using them. <P>SOLUTION: The material includes 5-20 wt.% of metal powder of copper group classified according to the element periodic table, which is added to ore fine powder of a natural radiation nuclide, or a metal layer of them is disposed. The active effect is improved by gas and liquid affected by α rays, β rays and γ rays released from radium. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  TECHNICAL FIELD The present invention relates to radioactive composition raw materials and radioactive formations used for bedrock baths, water activities, health facilities, etc. using radiation and health facilities using the same.

  To promote health, bathing in radon hot springs and facilities that use radiation on the rock mass where radon is released have been proposed, and technologies using these effects have been proposed.

  In Patent Document 1, a radiation layer made of a mixture of 30% to 60% (by weight) natural radium fine powder and an adhering mud is provided on the surface of a ceramic plate or a ceramic plate material, and the coverage is provided on the surface of the radiation layer. 5% to 60% glazed to absorb as little radiation as possible in the glaze and to prevent the radium fine particles from being peeled off. A ceramic plate has been proposed. This method is excellent in that the effect of reducing radioactive fine powder is high, but there is a problem that the radiation dose is reduced by glaze.

  Patent Document 2 discloses a radiation bedrock facility having a structure in which a plurality of zircon ceramics are embedded in a plurality of rows on a table, and preferably the zircon ceramics are disc-shaped or square columnar. More preferably, the upper edge of the disk-shaped zircon ceramic or the rectangular columnar zircon ceramic embedded in the table is rounded, and the table is concrete covered with rocks or tiles such as concrete or marble. And, preferably, there are proposed 2 to 10 rows of zircon ceramics to be embedded in the table, and 5 to 20 radiation bedrock bath facilities per row of zircon ceramics to be embedded in the table. Yes. This method is excellent in that the radiation dose is not reduced because the surface of the zircon ceramic in contact with air is not covered, but there is a problem that a large amount of radioactive material is required.

  Patent Document 3 includes a stone plate for a rock bath that uses radium ore as a main active ingredient and at least one of silica, barley stone, and tourmaline, and an electric heat that cuts off electromagnetic waves with a metal plate on the case body. There has been proposed a rock bath unit in which a heater is arranged and a stone plate for a rock bath is arranged on the electric heater. This stone plate is also excellent in that the radiation dose is not reduced because there is no coating on the surface in contact with air, but there is a problem that a large amount of radioactive material is required. Moreover, since the thermal coefficient of a stone board is low, there also exists a problem which takes time to warm up.

  In Patent Document 4, the rock unit plate is divided into three pieces of 2a, 2b, and 2c and is fitted into the recess of the heater unit 1. The bottom surface of the bedrock unit plate is in surface contact with the surface electric heater on the surface layer of the heater unit 1 and is heated to an arbitrary temperature by the temperature controller 1d. Portable simple radium bedrock bath that emits far infrared rays from radium ore, which is the material of the bedrock unit plate, and also emits a small amount of alpha rays, beta rays, gamma rays, etc. A bed has been proposed. This bedrock unit board is superior in that the ore is embedded and arranged in a semi-submerged form so that the radiation dose does not decrease, but there is a problem that the appearance is impaired. Moreover, since the thermal coefficient of a stone board is low, there also exists a problem which takes time to warm up.

  In Patent Document 5, a ceramic plate for a thermal radiation bath 100 is formed into a plate shape by kneading carbon powder into a ceramic raw material and firing it. In addition, an installation case of a thermal radiation bath ceramic plate and a nuclear thermal radiation bath ceramic plate in which a plurality of protrusions 120 are provided on the plane of the thermal radiation bath ceramic plate 100 has been proposed. This method is superior in that the positive / negative ion balance in the environment of thermal radiation is adjusted and the acupressure effect can be improved more than the plurality of protrusions provided on the plane, but radiation is effectively used. There is no problem.

  Japanese Patent No. 3754951   JP 2006-006507 A   JP 2007-006967 A   JP 2007-117682 A   Utility Model Registration No. 3120715

  However, the conventional technology has a structure in which α rays are hard to be emitted, and thus has a problem that the radiation energy of α rays cannot be fully utilized.

  In addition, the generation of negative air ions due to radiation should generate the same amount of positive air ions in view of the ionization phenomenon. However, the amount of radiation that is normally used is comparable to the natural background, and the amount of air ions generated is very small. If a large amount of air ions are to be generated, strong radiation is required, which is dangerous, and there is a problem that the radiation energy cannot be sufficiently exhibited within the range where the radiation dose is acceptable in terms of safety. .

  Therefore, the present invention relates to nuclear transformation (α decay) that emits α-rays, that is, when radium isotope Ra emits α-rays and is converted into a radioactive gas of radon of Rn, the radioactive gas of radon is a metal of the copper group. Focusing on the fact that the γ-ray electromagnetic wave has both wave and particle properties (similarly, the particle also has wave properties), the radiation dose is acceptable in terms of safety. It is an object of the present invention to provide a radioactive composition raw material and a radioactive formation that can sufficiently exhibit radiant energy, and a health facility using the same.

  In order to solve the problem, as a result of investigating the relationship between natural ores containing radioactive materials and conductor metals, the abandoned mine of Badgastein in Austria is a silver mine, and the copper scrodovska stone is a crystallized mineral of copper, silica and uranium oxide The general name of the genus classified in the periodic table of elements is the copper group, and it remained as a substance group applicable to ion reactivity, antibacterial properties, and electromagnetic resonance.

  In order to achieve the above object, the radioactive composition raw material according to claim 1 is obtained by pulverizing natural ore containing a uranium series or thorium series radioactive material into sand in the synthesis of the raw material of the composition that emits radiation. A high radiation dose selected part is mixed with an auxiliary agent, and the ore powder is processed to 1 μm to 10 μm together with the auxiliary agent, and the copper group metal classified by the periodic table of elements is processed into the ore powder to 1 μm to 10 μm. 5% to 20% by weight ratio of the resulting metal powder is used as a mixed powder material, and α, β, γ rays emitted from the ore powder in the mixed powder and the metal ions released from the metal of the copper group It is characterized by enhancing the active effect using effects.

  The ore powder used in the present invention is a powder of ore of the uranium series or thorium series of natural radionuclides, and is a high energy electromagnetic wave (γ ray), an electron with kinetic energy (β ray), an atomic nucleus ( It generates particles such as alpha rays and neutrons, and when they are absorbed or inhaled into the body, they have the ability to act on atoms and molecules in the body material to ionize and give thermal energy.

  And, by making it a mixed powder with copper group metal powder, the active effect obtained by the ionizing action and thermal energy by the energy radiated from the ore is the copper classified by the periodic table of the elements added in the ore fine powder Because it reacts with metal ions of group metals (gold (Au), silver (Ag) copper (Cu)), and the active effect is sufficiently exerted even within the range where the radiation dose is allowed in terms of safety. is there.

  In the formation of the radiation-emitting composition, the radioactive formation according to claim 2 is obtained by pulverizing natural ore containing radioactive material of uranium series or thorium series into sand and selecting a portion having a high radiation dose. Is mixed with an auxiliary agent, and ore powder processed to 1 μm to 10 μm together with the auxiliary agent is used as a raw material, and it is fired as a mixture containing 15% to 25% by weight in ceramics, porcelain and ceramic materials, and 5 μSv / h to 10 μSv / produced a fired body having a radiation dose of h, and provided with a copper group metal part or metal band classified by the periodic table of elements between the surface of the fired body or between the fired body and the fired body, and released from the ore powder. It is characterized in that the active effect is enhanced by a synergistic effect of a metal ion released from a copper group metal with a gas or liquid substance affected by a ray, β ray or γ ray.

  In the present invention, a fired body is formed using only the ore powder processed together with the auxiliary agent, and various radiant energy released from the fired body, and the surface of the fired body and the copper provided between the fired body and the fired body. Because it reacts with metal ions of group metals (gold (Au), silver (Ag) copper (Cu)), and the active effect is sufficiently exerted even within the range where the radiation dose is allowed in terms of safety. is there.

  In the formation of a composition that emits radiation, the radioactive formed material according to claim 3 is prepared by mixing a magnesia cement-based self-leveling material, pouring the surface, leveling the surface, and naturally drying the base material on the upper surface of the base material. After coating, mixing and kneading and pouring the radioactive composition raw material of claim 1 in a weight ratio of 15% to 25% into a magnesia cement-based self-leveling material, the surfaces are leveled and naturally dried to form a coalescence. The radiation dose is 5 μSv / h to 10 μSv / h.

  In the present invention, the use of the raw material of the radioactive composition can be reduced by adopting a two-layer structure, and a magnesia cement-based self-leveling material (trade name) which is advantageous in terms of strength and surface roughness compared to conventional cement. : An MG leveler), and a fired product made of porcelain or a ceramic material.

  According to a fourth aspect of the present invention, there is provided a radioactive formed material, wherein the radioactive composition raw material of the first aspect is used in the formation of a composition that emits radiation, and a polyester resin is kneaded in a weight ratio of 1% to 5%. A resin molded product is made, and an FRP laminate is formed by infiltrating a polyester resin into a thin film polyester resin to form a FRP layer and curing the polyester resin layer, and a radiation dose of 5 μSv / h to 10 μSv / h is secured. Is characterized by sufficient strength even in a thin film.

  In this invention, since the resin formed product is very excellent in high strength, light weight, weather resistance, radio wave transmission, electrical insulation, and heat insulation, the outer layer can be a thin polyester resin layer, and the radioactive material The amount of the composition raw material used can be greatly reduced.

  According to a fifth aspect of the present invention, in the formation of a composition that emits radiation, the radioactive formed material described in claim 5 is prepared by kneading 5% to 10% of an uncured plastic material with the raw material of the radioactive composition of claim 1 and using a molding machine. It is characterized by having a radiation dose of 5 μSv / h to 10 μSv / h.

  In this invention, if the mixed powder is kneaded into an uncured plastic material and manufactured by a molding machine, a plate-like product, a block-like product or a complex-shaped product can be easily produced, and the strength is also excellent. Products can be manufactured, and mass production can be expected.

  According to a sixth aspect of the present invention, in the formation of the composition that emits radiation, the radioactive formed material according to claim 6 uses the radioactive composition raw material of claim 1 to form a plurality of mixed powder layers having the same mass, and the distance between the mixed powder layers is It is characterized in that the influence of γ rays is reduced or increased by setting the distance of the minimum or maximum resonance relationship to 0.00124 nm which is the wavelength of γ rays of electromagnetic radiation.

  In the present invention, since the mixed powder layer forms a plurality of mixed powder layers and mixed powder layers having the same mass, the distance between the mixed powder layers is 0.00124 nm, which is the wavelength of γ rays of electromagnetic radiation. It is set to the distance or the distance of the anti-resonance relationship. Electromagnetic radiation is a kind of electromagnetic waves that are the same as radio waves and light. Compared to these, electromagnetic waves have a very short wavelength and are difficult to handle, but they also have the advantage that the energy is very large because the wavelengths are short. Therefore, paying attention to the fact that γ-ray electromagnetic waves have the properties of both waves and particles (similarly, particles also have the properties of waves). When it is desired to avoid this, the effect of γ rays is reduced by anti-resonance, and the effect according to the purpose is sufficiently exhibited within the range in which the radiation dose is allowed in terms of safety.

  A radioactive composition according to claim 7 is a mixture containing 15% to 25% by weight of magnesia cement-based self-leveling material in the formation of a composition that emits radiation, using the radioactive composition raw material of claim 1. Then, during kneading and pouring, the radioactive formed product of claim 2, claim 4, claim 5 and claim 6 is fitted so as to have the same height as the surface of the magnesia cement-based self-leveling material, and the surface is smoothed and naturally dried. It is formed into a square or a rectangle, and the radiation dose is 5 μSv / h to 10 μSv / h on all surfaces.

  In the present invention, the base for storing the radioactive material is divided to improve the workability, and the same amount of radiation is generated from the base to stabilize the effect.

  The health facility according to claim 8 is provided with a sliding window in a cylindrical splittable warm bath capsule having a volume that can be accommodated by a human, a pipe through which warm water flows is arranged at the bottom of the container, and the upper part of the pipe. It is characterized by laying down 7 radioactive materials with foundations.

  In this invention, as a facility that allows you to easily experience a bedrock bath in a hot spring resort, the cylindrical capsule body can be separated into two parts, upper and lower, so that it can be moved, and it can be transported to narrow spaces. It is possible to put. Further, since the capsule main body can be separated into two parts, the hot water pipe unit and the radioactive formed product of claim 7 can be arranged after being carried in, so that the weight can be dispersed and the operation by movement can be facilitated.

  A health facility according to claim 9 is provided with a flat door in a dome-shaped or box-shaped sealed living space having a volume that can be accommodated by a human being, and a wall surface portion and a bottom surface portion up to a position of 980 mm rising in the living space. A pipe for flowing warm water is arranged, and the raw material of the radioactive composition according to claim 1 is used to knead a mixture containing 15% to 25% by weight in a mortar to reach the bottom surface from the upper wall surface of the indoor space. It is characterized in that it is attached to the wall surface up to a wall like a rock, and the radioactive material with a base of claim 7 is laid down on the upper part of the pipe through which hot water flows at the bottom.

  In this invention, as a facility that allows you to experience mine bathing easily, the mortar wall surface is formed like a rock in order to make the inner atmosphere look like a mine shaft, but the health facility described in claim 8 is different. The workability of the hot water pipe unit and the radioactive formed product of claim 7 can be as good as that of claim 8.

  The radioactive composition according to claim 10 is a mixture containing 15% to 25% by weight of the earthenware material using the radioactive composition raw material of claim 1 in the formation of a warming body of the composition that emits radiation. The entire surface of the ceramic heater was covered and refired to ensure a radiation dose of 5 μSv / h to 10 μSv / h.

  In the present invention, for the purpose of improving the heating characteristics of the radioactive material subjected to rapid response, the indoor air is heated while releasing radon gas, and the two different uses for controlling the humidity with water vapor containing radon. Can be used for

  As described above, according to the invention of claim 1, by using a mixed powder with a copper group metal powder, the activation effect obtained by the ionizing action and the heat energy by the energy radiated from the ore is obtained in the fine ore powder. It reacts with metal ions of copper group metals (gold (Au), silver (Ag), copper (Cu)) classified in the periodic table of the elements added to the element, and the radiation dose is allowed in terms of safety. The problem that the radiant energy cannot be sufficiently exhibited within the range can be solved.

  According to the invention of claim 2, various radiant energy released from the fired body, and a copper group metal (gold (Au), silver (Ag)) provided on the surface of the fired body or between the fired body and the fired body. It can react with the metal ions of copper (Cu), and can solve the problem that the radiation energy cannot be sufficiently exhibited within a range in which the radiation dose is allowed in terms of safety.

  According to the invention of claim 3, by using a two-layer structure, it is possible to reduce the amount of the raw material used for the radioactive composition, and the strength comparable to that of a fired body made of porcelain or ceramic material without passing through a firing step. And can have a texture.

  According to the invention of claim 4, since the FRP layer is very excellent in high strength, light weight, weather resistance, radio wave transmission, electrical insulation and heat insulation, the upper layer can be a thin polyester resin layer, and the radioactive composition The amount of raw materials used can be greatly reduced.

  According to the invention of claim 5, it is possible to manufacture with a molding machine, a plate-like product, a block-like product or a product having a complicated shape can be easily produced, and a mass production effect can be expected.

  According to the invention of claim 6, paying attention to the fact that γ-ray electromagnetic waves have both wave and particle properties, the minimum and maximum distances of the resonance relationship are set to reduce the influence of γ-rays. It can be increased or set, and the effect according to the purpose can be sufficiently exhibited.

  According to the seventh aspect of the invention, it is possible to improve the workability by using a divided structure formed in a square or a rectangle, and to stabilize the effect by generating the same amount of radiation from the table.

  According to the invention of claim 8, since the capsule main body can be separated into two parts, the hot water pipe unit and the radioactive formed article of claim 7 can be arranged after being carried in, so that operation by movement can be facilitated.

  According to the ninth aspect of the invention, although the portion of the inner atmosphere seen in the mine is different, the workability of the hot water pipe unit and the radioactive formed article of the seventh aspect may be as good as that of the eighth aspect. it can.

  According to the invention of claim 10, since the raw material of the radioactive composition is mixed with the pottery material and the entire surface of the ceramic heater is covered and refired, the pottery part is porous and water-permeable, and emits alpha rays. The problem that energy cannot be fully utilized can be solved.

  Hereinafter, embodiments of the present invention will be described in detail with reference to FIGS. 1 is an enlarged view showing a part of the raw material of the radioactive composition of the present invention, FIG. 2 is an enlarged cross-sectional view of a radioactive formed by firing ceramics, FIG. 3 is an enlarged cross-sectional view of the radioactive formed by firing ceramics and ceramics, FIG. Is an enlarged cross-sectional view of the radioactive material formed by casting magnesia cement-based self-leveling material, FIG. 5 is an enlarged cross-sectional view of the radioactive material formed by FRP laminate, and FIG. 6 is a perspective view of the radioactive material having a honeycomb structure formed by a molding machine. (A) is a top view and a side view of a radioactive formed material having a resonance effect, FIG. 7 (B) is a top view and a side view showing an example used in an experiment for confirming the resonance effect, and FIG. FIG. 9 is a perspective view of a capsule for bathing, FIG. 10 is a sectional view of a health facility as seen in a tunnel, and FIG. 11 is a structural view of a radioactive formation incorporating a ceramic heater.

  The raw material of the radioactive composition shown in FIG. 1 is a natural ore 1 containing a radioactive substance, an auxiliary zircon 2 (including a radioactive substance), alumina 3 and a copper metal material 4 processed to 1 μm to 10 μm and mixed. It is in powder form.

  In nature, there are very unstable elements such as uranium and thorium, which decay and decay while emitting radiation. The half-life, which is reduced by half due to the decay, is 4.5 billion years for the radioactive element uranium 238, 14 billion years for thorium 232, and 1600 years for radium 226.

  Radium is an element in the process of decaying uranium and thorium, changing to radon 222 (half-life is 3.8 days) while emitting radiation, further changing to polonium 210 and finally lead 207.2 while emitting radiation, Radiation and radon generated in the process of decaying radioactive materials have various effects on the human body.

  The natural ore used here is preferably monazite or zircon if the current mixing ratio or calcination is adapted, but may be replaced with phosphorus ore, titanium ore or other ores if the mixing ratio is adjusted.

  The adjuvant used here is selected to increase the radiation dose and to obtain a suitable fired body in ceramic, porcelain or ceramic materials, and may be replaced with other ceramic materials.

  The copper group metal used here was selected to obtain a synergistic effect of radiation and metal ions and an antibacterial action, and considering the synergistic effect, from the atomic weight, gold 197, silver 107.9 copper 63.5 In this order, gold is most suitable, but silver and copper are not denied.

  The radioactive formation shown in FIG. 2 is an enlarged cross-sectional view of the radioactive formation obtained by firing the earthenware. The earthenware is porous and water-permeable, natural ore 1 containing the radioactive material, auxiliary zircon 2, alumina 3, Since a large number of cavities 5 are formed in the fired product in which the copper metal material 4 is mixed together, the surface in contact with the air is enormous, and the structure is particularly easy to emit α-rays. Is increased.

  The radiation from the radioactive material is classified into α rays, β rays, and γ rays. The α rays are ionized without being able to pass through paper or skin by the helium nuclei that come out when the radioactive material decays. β rays pass through paper and skin, but cannot pass through aluminum foil or glass and are ionized. Gamma rays pass through aluminum foil and glass, but cannot pass through water and paraffin and have the property of being ionized.

  The radioactive formation shown in FIG. 3 is an enlarged cross-sectional view of the radioactive formation by porcelain and ceramic firing, and the natural ore 1, the auxiliary zircon 2, alumina 3, and the copper metal material 4 are mixed together. In the fired product, porcelain and ceramics have no water permeability, and alpha rays cannot pass through the fired layer 6, so natural ore 1 in contact with the surface of the fired layer 6 and natural on the inner surface other than the auxiliary zircon 2. The release of radon from the ore 1 and the auxiliary zircon 2 is suppressed.

  The radioactive formation shown in FIG. 4 is an enlarged cross-sectional view of the radioactive formation by pouring the magnesia cement-based self-leveling material, and the radiation layer is provided on the upper surface of the base material 7 which has been surface-dried and naturally dried. The solidified part 8 of the magnesia cement-based self-leveling material has no water permeability, and α-rays cannot pass through the solidified part 8, so that the natural ore 1 in contact with the surface of the solidified part 8 and the auxiliary zircon 2 are not used. Although the release of radon from the natural ore 1 and the auxiliary agent zircon 2 on the inner surface is suppressed, the use of the raw material of the radioactive composition can be reduced by adopting a two-layer structure.

  The radioactive formation shown in FIG. 5 is an enlarged cross-sectional view of the radioactive formation by the FRP laminate, and the FRP layer 9 is very excellent in high strength, light weight, weather resistance, radio wave transmission, electrical insulation, and heat insulation. Therefore, the radiation layer can be a thin polyester resin layer 10 and the amount of the radioactive composition raw material used can be greatly reduced.

  The radioactive product shown in FIG. 6 is a perspective view of a honeycomb-structured radioactive product formed by a molding machine. Since the plastic solidification part 11 has no water permeability and α rays cannot pass through the solidification part 11, the solidification part 11 Although the release of radon from natural ore and the auxiliary zircon on the inner surface is suppressed, the honeycomb structure having a large number of through-holes 12 expands the surface in contact with air, and radon from the through-holes 12 Is added.

  7A is a top view and a side view of a structure that obtains a resonance action, and a plurality of radioactive formations are formed on top of a flat cylindrical base 13 like strip-shaped radiation layers 14, 15, and 16. Therefore, the distance of each radiation layer is set to 0.00124 nm which is the wavelength of γ rays of electromagnetic radiation, and the distance of resonance relation or anti-resonance relation is set, and the activation effect is further enhanced by using the amplification effect by resonance, When it is desired to avoid the influence of rays, the influence of γ rays is reduced by anti-resonance, and the effect corresponding to the purpose is sufficiently exhibited within a range in which the radiation dose is allowed in terms of safety.

The radioactive formation shown in FIG. 7B is a top view and a side view showing an example used in an experiment for confirming the resonance action, and the radiation dose of 7 μSv / h from the flat cylindrical radiation layer 17 is 504 Bq. When a strip-shaped 25 mm wide copper foil 18 and a copper foil 19 are attached at a distance of 50 mm on top of a radioactive product that generates a radon concentration of / m ³ , a radiation dose of 6.3 μSv / h, 250 Bq / m ³ Radon concentration was reached, and when copper foil was deposited at a distance of 37 mm, the radiation dose was 5.4 μSv / h and the radon concentration was 250 Bq / m ³ . And, when the copper foils are made to adhere to each other at a distance of 37 mm, the copper foils are short-circuited (conducted), and the radiation dose becomes 5.6 μSv / h. The copper foil suppresses α rays and β rays, Gamma rays are affected by resonance and change. In this example, since a wide conductor is used, there is a disadvantage that α rays and β rays are greatly suppressed, and it is preferable to use a conductor having a width of 1 mm or less.

  The radioactive formation shown in FIG. 8 is a cross-sectional view of the radioactive formation with a base, and the base 21 for housing the radioactive formation 20 of FIGS. The same amount of radiation is also generated from 21 to stabilize the effect.

  The health facility shown in FIG. 9 is a perspective view of a capsule for bathing, and has a structure in which the cylindrical capsule body 22 can be separated into an upper box 23 and a lower box 24 so as to be movable, and it is carried into a narrow space. Making it possible. Further, since the capsule main body 22 can be separated into two parts, the hot water pipe unit 25 and the radioactive formed body 26 of claim 7 can be arranged after being carried in, so that the weight can be dispersed and the operation by movement can be facilitated.

  The health facility shown in FIG. 10 is a sectional view of a health facility as seen in a mine shaft, and the mortar wall surface 27 is formed like a rock in order to see the internal atmosphere in a mine shaft. Although it is different from the health facility, the workability of the hot water pipe unit 25 and the radioactive formed body 26 of claim 7 can be made as good as that of claim 8.

  The radioactive material shown in FIG. 11 is a structural diagram of a radioactive material having a built-in ceramic heater 29 with a power supply lead wire 28, and is a heating element for the purpose of improving the heating characteristics of the radioactive material subjected to rapid response. Since the raw material of the radioactive composition is mixed with the ceramic material and the entire surface of the ceramic heater 29 is covered to form a re-baked product 30, the humidity is reduced by using steam that contains radon and the application of heating while releasing radon gas into the room air. It can be used for two different applications to control.

It is an enlarged view which shows a part of radioactive raw material of this invention. It is an expanded sectional view of the radioactive formation by the earthenware baking of this invention. It is an expanded sectional view of the radioactive formation by the porcelain of this invention and ceramic baking. It is an expanded sectional view of the radioactive formation by magnesia cement type self-leveling material pouring of the present invention. It is an expanded sectional view of the radioactive formation by the FRP laminated board of this invention. It is a perspective view of the radioactive formation of the honeycomb structure by the molding machine of this invention. It is the top view and side view of the radioactive formation of the structure which obtains the resonance effect | action of this invention. It is the upper side figure and side view which show an example used for the experiment for confirming the resonance effect | action of this invention. It is sectional drawing of the radioactive formation with a base stand of this invention. It is a perspective view of the capsule for baths of the present invention. It is sectional drawing of the health facility seen in the mine shaft of this invention. It is a structural diagram of the radioactive formation which incorporated the ceramic heater of this invention.

DESCRIPTION OF SYMBOLS 1 Natural ore 2 Zircon 3 Alumina 4 Metal material 5 Cavity 6 Firing layer 7 Base material 8 Solidification part 9 FRP layer 10 Polyester resin layer 11 Solidification part 12 Through-hole 13 Cylindrical base 14 Radiation layer 15 Radiation layer 16 Radiation layer 17 Radiation layer 18 Copper foil 19 Copper foil 20 Radioactive product 21 Stand 22 Capsule body 23 Upper box 24 Lower box 25 Hot water pipe unit 26 Radioactive product 27 Mortar wall surface 28 Lead wire 29 for feeding 29 Ceramic heater 30 Re-fired product

Claims (10)

  When synthesizing raw materials for compositions that emit radiation, natural ore containing radioactive materials of uranium series or thorium series is crushed into sand, and a portion with a high radiation dose selected is mixed with an auxiliary agent, and 1 μm together with the auxiliary agent. Ore powder processed to 10μm, and 5% to 20% by weight of metal powder processed from 1μm to 10μm of copper group metals classified in the periodic table of elements is added to the ore powder to form a mixed powder material, and mixed A radioactive composition raw material characterized in that the active effect is enhanced by using a synergistic effect of α-rays, β-rays, γ-rays released from ore powder in the powder and metal ions released from a copper metal.   In the formation of a composition that emits radiation, natural ore containing a uranium series or thorium series radioactive material is crushed into a sand state, and a part having a high radiation dose selected is mixed with an auxiliary agent. Using ore powder processed to 10 μm as a raw material, it is fired as a mixture containing 15% to 25% by weight in ceramics, porcelain, and ceramic material to produce a fired body with a radiation dose of 5 μSv / h to 10 μSv / h, A copper group metal part or metal band classified by the periodic table of the elements is provided between the surface of the fired body or between the fired body and the fired body, and is affected by the α, β, and γ rays emitted from the ore powder. A radioactive material characterized in that the active effect is enhanced by a synergistic effect of a gas or liquid substance with a metal ion released from a copper group metal.   In forming a composition that emits radiation, kneading and pouring magnesia cement-based self-leveling material, and then applying a ground conditioner on the top surface of the base material that has been surface-dried and air-dried, the weight of magnesia cement-based self-leveling material The raw material of the radioactive composition according to claim 1 having a ratio of 15% to 25% is mixed, kneaded and poured, and then the surfaces are leveled and naturally dried to form a coalescence. A radioactive formation characterized by that.   In the formation of a composition that emits radiation, the raw material of the radioactive composition according to claim 1 is used, and a polyester resin is kneaded at a weight ratio of 1% to 5% to form a thin film polyester resin formation. FRP laminated board in which a polyester resin is infiltrated into glass fiber to form an FRP layer and cured, and a radiation dose of 5 μSv / h to 10 μSv / h is secured, and the polyester resin layer has sufficient strength even in a thin film Radioactive formations.   In the formation of a composition that emits radiation, the raw material of the composition of claim 1 is used, and 5% to 10% is kneaded with an uncured plastic material, and is formed by a molding machine, and 5 μSv / h to 10 μSv / h. Radioactive formation characterized by radiation dose.   In the formation of a composition that emits radiation, a plurality of mixed powder layers having the same mass are formed using the radioactive composition raw material of claim 1, and the distance between the mixed powder layers is the wavelength of γ rays of electromagnetic radiation. A radioactive formation characterized in that the minimum or maximum distance of the resonance relationship is set to 00124 nm to reduce or increase the influence of γ rays.   In the formation of a composition that emits radiation, the radioactive composition raw material of claim 1 is used to make a mixture containing 15% to 25% by weight of magnesia cement-based self-leveling material, and kneading and pouring at the time of pouring, The radioactive material of claim 4, claim 5, and claim 6 is fitted so as to be the same height as the surface of the magnesia cement-based self-leveling material, and the surface is smoothed and naturally dried to form a square or rectangle. Radiation formation with a base, characterized by having a radiation dose of 5 μSv / h to 10 μSv / h on the surface.   A cylindrical splittable warm bath capsule having a volume that can be accommodated by a human being is provided with a sliding window, a pipe through which warm water flows is placed at the bottom of the container, and the radioactive material with a foundation base according to claim 7 is laid on the top of the pipe. A health facility characterized by that.   In a dome-shaped or box-shaped sealed living space having a volume that can be accommodated by humans, a flat door is provided, and pipes for flowing warm water are arranged on the wall surface and bottom surface up to a position of 980 mm rising in the living space, Using the radioactive composition raw material according to claim 1, a mixture containing 15 to 25% by weight in a mortar is kneaded and adhered to the wall surface from the upper wall surface to the bottom of the indoor space like a rock. A health facility characterized by laying the radioactive material with a base of claim 7 on the upper part of the pipe through which hot water flows at the bottom.   In the formation of a heating element of a composition that emits radiation, the entire surface of the ceramic heater is covered and refired as a mixture containing 15 to 25% by weight of the earthenware material using the radioactive composition raw material of claim 1 and 5 μSv The radioactive formation used for Claim 8 and Claim 9 which ensured the radiation dose of / h-10microSv / h.

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