JPH02180691A - Methods for making activated water and for forming pipeline for making activated water - Google Patents

Methods for making activated water and for forming pipeline for making activated water

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Publication number
JPH02180691A
JPH02180691A JP33462488A JP33462488A JPH02180691A JP H02180691 A JPH02180691 A JP H02180691A JP 33462488 A JP33462488 A JP 33462488A JP 33462488 A JP33462488 A JP 33462488A JP H02180691 A JPH02180691 A JP H02180691A
Authority
JP
Japan
Prior art keywords
water
far
pipe
wall surface
pipeline
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP33462488A
Other languages
Japanese (ja)
Inventor
Kiyonori Niino
清憲 新納
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
NIPPON GIJUTSU KAIHATSU CENTER KK
Original Assignee
NIPPON GIJUTSU KAIHATSU CENTER KK
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by NIPPON GIJUTSU KAIHATSU CENTER KK filed Critical NIPPON GIJUTSU KAIHATSU CENTER KK
Priority to JP33462488A priority Critical patent/JPH02180691A/en
Publication of JPH02180691A publication Critical patent/JPH02180691A/en
Pending legal-status Critical Current

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  • Water Treatment By Electricity Or Magnetism (AREA)
  • Physical Water Treatments (AREA)

Abstract

PURPOSE:To continuously make highly activated water by passing water through a pipeline having a film containing far infrared ray emitting substance provided to the inner wall surface thereof and absorbing far infrared rays emitted from the film by water. CONSTITUTION:The inner wall surfaces of the main pipeline 2, branch pipelines 3 and branch pipelines 5 being the pipelines arranged to a water supply system are lined with a film containing a far infrared ray emitting substance. The inner wall surfaces of the arranged pipelines become far infrared ray emitting bodies and heat rays (wavelength: 3.0-1000mum) of a far infrared region are always emitted to the water stagnated in the arranged pipelines. The max. value of the radiation spectrum of the aforementioned heat rays is distributed within a range of about 3-30mum (wavelength) and this range almost coincides with the max. value distribution range (wavelength: 6-14mum) of the energy absorption spectrum of water and the emitted heat rays are efficiently absorbed by water.

Description

【発明の詳細な説明】 (産業上の利用分野) 本発明は、遠赤外線を用いた活性水の製造方法の改良に
関するものであり、高度に活性化された水を連続的に得
ることを可能とした活性水の製造方法と、これに利用す
る活性水製造用管路の形成方法に関する。
[Detailed Description of the Invention] (Industrial Application Field) The present invention relates to an improvement in a method for producing activated water using far infrared rays, making it possible to continuously obtain highly activated water. The present invention relates to a method for producing activated water, and a method for forming a pipeline for producing activated water.

(従来の技術) 遠赤外線を吸収させて水を活性化することにより、食用
パンの製造工程に於ける発酵時間の短縮。
(Prior art) Shortening the fermentation time in the edible bread manufacturing process by activating water by absorbing far infrared rays.

醸造に於ける熟成時間の短縮、水耕栽培等に於ける植物
の成長の促進、水あかの発生防止、煮物の味覚の向上等
の様々な効用が奏される。
It has various effects such as shortening the maturation time in brewing, promoting plant growth in hydroponic cultivation, preventing the formation of water scale, and improving the taste of boiled dishes.

而して、前気水の活性化は、「水が外部からエネルギー
を吸収し、水分子の振動が活発になっている状態を云う
」と一般に説明されており、水分子の固有振動数に近い
波長が約3〜14μm程度のエネルギー(即ち遠赤外領
域のエネルギー)を照射することにより、これが水に効
率よく吸収され、水の活性化が達成される6 前記遠赤外領域のエネルギーが水に吸収され、これによ
り水が活性化されると、物理的には水分子が水素イオン
H+と水酸イオン○H−に解離したり、外部から酸素や
窒素等の気体分子を取り込む力が増加したり(例えば溶
存酸素の増加)、或いは弱アルカリ性になる(PH斡8
.3程度)等の物性の変化が表れると報告されている。
Therefore, the activation of forewater is generally explained as ``a state in which water absorbs energy from the outside and the vibrations of water molecules become active.'' By irradiating energy with a near wavelength of about 3 to 14 μm (that is, energy in the far infrared region), this is efficiently absorbed by water, and water activation is achieved.6 The energy in the far infrared region is When absorbed by water and activated, water molecules physically dissociate into hydrogen ions H+ and hydroxyl ions ○H-, and the ability to take in gas molecules such as oxygen and nitrogen from the outside increases. (e.g. increase in dissolved oxygen) or become slightly alkaline (PH 8).
.. It has been reported that changes in physical properties such as (approximately 3) appear.

ところで、従来から上述の如き活性水を得る方法として
は、貯水タンクの中に常温下で遠赤外線を放射するセラ
ミック環の遠赤外線放射体(例えば日熱工業株式会社製
のバイオメイト等)を浸漬する方法が利用されている。
By the way, as a conventional method for obtaining activated water as described above, a ceramic ring far-infrared radiator (for example, Biomate manufactured by Nichiretsu Kogyo Co., Ltd., etc.) that emits far-infrared rays at room temperature is immersed in a water storage tank. The method is used.

しかし、従前の水の活性化方法にあっては、活性化用の
貯水タンクを別途に必要とし、一般家庭では活性化され
た水を安価に且つ容易に得られないという難点がある。
However, the conventional water activation method requires a separate water storage tank for activation, and has the disadvantage that activated water cannot be easily obtained at low cost in ordinary households.

また、貯水タンクの容量や遠赤外線放射体の大きさ等の
点から、水と遠赤外線放射体との接触面積や接触時間を
十分に取ることが困殖となる。その結果、水を高度に活
性化することが困難となり。
Furthermore, it is difficult to ensure a sufficient contact area and contact time between the water and the far-infrared radiator due to the capacity of the water storage tank, the size of the far-infrared radiator, and the like. As a result, it becomes difficult to activate water to a high degree.

高度に活性化された水を連続的に得ることが出来ないと
いう問題がある。
There is a problem in that highly activated water cannot be obtained continuously.

(発明が解決しようとする課題) 本発明は、従前の常温遠赤外線放射体を利用した活性水
の製造方法に於ける上述の如き課題、即ち(イ)活性化
のための貯水タンクを別途に必要とし、費用や設置スペ
ース等の点から一般家庭へは容易に適用できないこと、
(ロノ遠赤外線放射体と水との接触面積や接触時間を大
きくとることが困難で、高度に活性化された水を連続的
に得ることが出来ないこと等の課題を解決せんとするも
のであり、配管路内壁面を遠赤外線の放射体として利用
し、水に遠赤外線エネルギーを照射することにより、高
度に活性化された水を連続的に供給出来る様にした活性
水の製造方法と、これに利用する活性水製造用管路の形
成方法を提供するものである。
(Problems to be Solved by the Invention) The present invention solves the above-mentioned problems in the conventional method of producing activated water using a room-temperature far-infrared radiator, namely (a) the need to provide a separate water storage tank for activation. and cannot be easily applied to general households due to costs, installation space, etc.
(This is an attempt to solve problems such as the difficulty of increasing the contact area and contact time between the far-infrared radiator and water, and the inability to continuously obtain highly activated water.) A method for producing activated water in which highly activated water can be continuously supplied by using the inner wall surface of a pipe as a far-infrared ray emitter and irradiating water with far-infrared energy. The present invention provides a method for forming a pipeline for producing activated water to be used for this purpose.

(問題点を解決するための手段) 本件発明者は、埋設水道管やガス管等の更生技術の開発
に於ける我国のバイオニヤであり、永年に亘って技術開
発と管路の更生施工に従事して来た。
(Means for solving the problem) The inventor is a pioneer in Japan in the development of rehabilitation technology for buried water pipes, gas pipes, etc., and has been engaged in technology development and pipeline rehabilitation construction for many years. I came.

而して、水道管路等の更生に於いては、先ず管路内壁面
を研削用ピグやサンドジェット流を用いて研削処理し1
次に研削処理した管路内壁面に液相法や気相法によって
エポキシ樹脂等のライニング塗膜を形成する様にしてい
る。本件発明は、前記エポキシ樹脂等のライニング塗膜
に代えて(或いは、エポキシ樹脂等のライニング塗膜の
上に)。
Therefore, when rehabilitating water pipes, etc., the inner wall surface of the pipe is first ground using a grinding pig or sand jet stream.
Next, a lining coating film of epoxy resin or the like is formed on the ground inner wall surface of the pipe by a liquid phase method or a gas phase method. The present invention can be used instead of (or on top of) the lining coating film made of epoxy resin or the like.

遠赤外線放射物質を含有するライニング塗膜を形成する
ことにより、配管路を遠赤外線の放射体として利用し、
内壁面全体から管路内の水中へ遠赤外領域のエネルギー
を照射することを基本とするものである。
By forming a lining coating containing a far-infrared emitting substance, pipes can be used as far-infrared radiators,
The basic idea is to irradiate energy in the far-infrared region from the entire inner wall surface to the water inside the pipe.

即ち1本件請求項(1)に記載の発明は、遠赤外線放射
物質を含有する塗膜を内壁面に備えた配管路内へ水を通
し、塗膜から放射された遠赤外線を水に吸収させること
により、活性化された水を連続的に製造することを発明
の基本構成とするものである。
In other words, the invention described in claim (1) allows water to pass through a pipe line whose inner wall surface is provided with a coating film containing a far-infrared emitting substance, and causes the water to absorb the far-infrared rays emitted from the coating film. The basic structure of the invention is to continuously produce activated water.

また、請求項(2)に記載の発明は、前記請求項(1)
に記載の水の活性化処理と水の磁化による活性化処理と
の組合せを発明の基本構成とするものである。
Furthermore, the invention described in claim (2) is based on the invention described in claim (1).
The basic structure of the invention is a combination of the water activation treatment described in 1. and the activation treatment by magnetization of water.

更に、請求項(4)に記載の発明は、管路内へ遠赤外線
放射物質を含有するライニング剤を流通させ、配管路の
内壁面にライニング皮膜を形成することを発明の基本構
成とするものである6加えて、本件請求項(5)に記載
の発明は、活性水製造用管路の形成方法管路内へ接着用
ライニング剤を流通させ、管路内壁面に前記接着用ライ
ニング剤の皮膜を形成した後、管路内へ遠赤外線放射物
質の粉体を流通させ、前記皮膜の上に前記粉体を固着す
ることを発明の基本構成とするものである。
Furthermore, the invention as set forth in claim (4) has the basic structure of distributing a lining agent containing a far-infrared emitting substance into the pipe to form a lining film on the inner wall surface of the pipe. 6 In addition, the invention described in claim (5) provides a method for forming a pipeline for producing activated water, by circulating an adhesive lining agent into the pipeline, and applying the adhesive lining agent to the inner wall surface of the pipeline. The basic structure of the invention is to flow a powder of a far-infrared emitting substance into a pipe after forming a film, and to fix the powder onto the film.

(作用) 配管路内壁面に形成されたライニング塗膜内の遠赤外線
放射物質は、管路の熱(管路温度280〜290K)を
吸収して遠赤外領域(波長3〜101000Pの熱線を
放射する。
(Function) The far-infrared emitting material in the lining coating formed on the inner wall surface of the pipe absorbs the heat of the pipe (pipe temperature 280-290K) and emits heat rays in the far-infrared region (wavelength 3-101000P). radiate.

水のエネルギー吸収スペクトルの最大値は、約6〜14
μmの間に分散されており、水を構成する分子の固有振
動数と遠赤外線の振動数とが共振することにより、前記
遠赤外線放射物質から放射された熱線の大部分が、効率
よく水に吸収されて行く。
The maximum value of the energy absorption spectrum of water is approximately 6 to 14
By resonating the natural frequency of the molecules constituting water with the frequency of the far infrared rays, most of the heat rays emitted from the far infrared rays are efficiently transferred to the water. It gets absorbed.

遠赤外線領域の熱線を吸収した水は、水分子の振動が極
めて活発になり、所謂活性化された状態となる。又、エ
ネルギー吸収により活性化された水は、前述の如き発酵
時間の短縮、熟成時間の短縮、植物の成長促進、水垢発
生の防止等の効用を奏する。
When water absorbs heat rays in the far-infrared region, the vibrations of water molecules become extremely active, resulting in a so-called activated state. In addition, water activated by energy absorption has effects such as shortening fermentation time, shortening ripening time, promoting plant growth, and preventing limescale formation, as described above.

(実施例) 第1図は、本件請求項(1)に記載の発明の実施例を示
すものであり1図に於いて1はマンション等の給水槽、
2は主管路、3は分岐管路、4は各戸開の水道メータ、
5は枝管路、6は水栓である。
(Embodiment) Fig. 1 shows an embodiment of the invention as set forth in claim (1), and in Fig. 1, 1 is a water tank of an apartment, etc.;
2 is the main pipe, 3 is the branch pipe, 4 is the water meter for each door,
5 is a branch pipe, and 6 is a water faucet.

本発明に於いては、給水系統の配管路、即ち主管路2、
分岐管路3及び枝管路5の内壁面が、後述する如く遠赤
外線放射物質を含有する皮膜によってライニングされて
いる。即ち、配管路内壁面が遠赤外線の放射体となり、
配管路内に滞留する水内へ、前記皮膜内の遠赤外線放射
物質から遠赤外領域の熱線(波長3.0〜1000μm
程度)が常時放射されている。
In the present invention, the pipe line of the water supply system, that is, the main pipe line 2,
The inner wall surfaces of the branch pipe 3 and the branch pipe 5 are lined with a film containing a far-infrared emitting substance, as will be described later. In other words, the inner wall surface of the pipe becomes a far-infrared radiator,
Heat rays in the far infrared region (wavelength 3.0 to 1000 μm
degree) is constantly emitted.

前記配管路内壁面に形成されているライニング塗膜の厚
さは0.2〜2m程度あり1本実施例では、アルミナ(
A1220.)やシリカ(S iO2) 。
The thickness of the lining coating film formed on the inner wall surface of the pipe passage is approximately 0.2 to 2 m, and in this embodiment, alumina (
A1220. ) and silica (SiO2).

マグネシャ等を主体とするセラミックス焼結体の微粉末
を含有する有機塗料(商品名チラノコート・宇部興産株
式会社製)を用いて、厚さ1.0〜1.2−の塗膜が形
成されている。
A coating film with a thickness of 1.0 to 1.2 mm is formed using an organic paint (trade name: Tyrancoat, manufactured by Ube Industries, Ltd.) containing fine powder of ceramic sintered bodies mainly composed of magnesia, etc. There is.

前記塗膜内の遠赤外線放射物質(セラミック焼結体の微
粉末)からの熱線の放射スペクトルの最大値は、略3〜
30μm(波長)の間に分布しており、水のエネルギー
吸収スペルの最大値の分布範囲(波長6〜14μm)と
略合致し、放射された熱線は効率よく水に吸収される。
The maximum value of the radiation spectrum of heat rays from the far-infrared emitting material (fine powder of ceramic sintered body) in the coating film is about 3~
It is distributed between 30 μm (wavelength), which approximately matches the distribution range of the maximum energy absorption spell of water (wavelength 6 to 14 μm), and the emitted heat rays are efficiently absorbed by water.

第2図は、請求項(2)に記載の発明の実施系統図であ
り、高架タンク1等からの水を先ず磁気処理装置B内へ
通し、ここで水を磁化することにより所謂水の磁気処理
を行なう。その後、磁気処理した水を遠赤外線放射物質
を含有する塗膜を内壁面に備えた配管路A内へ通し、こ
こで所謂遠赤外線吸収による活性化処理を行なった後、
給水栓6から給水する。
FIG. 2 is an implementation system diagram of the invention set forth in claim (2), in which water from the elevated tank 1, etc. is first passed into the magnetic treatment device B, and the water is magnetized here, thereby producing so-called water magnetism. Process. After that, the magnetically treated water is passed through a pipe A whose inner wall surface is coated with a coating film containing a far-infrared emitting substance, where it is subjected to an activation treatment by so-called far-infrared absorption.
Water is supplied from the water tap 6.

尚1本実施例では磁気処理後の水に遠赤外線を照射して
活性化処理する様にしているが、活性化処理の後に磁気
処理を行なってもよ(、或いは活性化処理の中間に磁気
処理を介挿したり、磁気処理を複数回に分けて行なって
もよいことは勿論である。
In this example, the water after magnetic treatment is activated by irradiating it with far infrared rays, but magnetic treatment may be performed after the activation treatment (or the magnetic treatment may be performed in the middle of the activation treatment). Of course, it is also possible to interpose a treatment or to perform the magnetic treatment in multiple steps.

また1本実施例では水を一方向へ通過させる構成として
いるが、第2図の点線で示す如く、循環ポンプ7を介し
て適宜に水を循環させる様にしてもよい。
Further, in this embodiment, water is allowed to pass in one direction, but as shown by the dotted line in FIG. 2, the water may be appropriately circulated via the circulation pump 7.

前記磁気処理装置は水タンクと直流型・磁石(又は永久
磁石)とから構成されており、水を磁石の磁界内(石&
泉伝1g−的/σθ6s−1r600力°°クス)へ通
すことにより、水中のカルシウム、マグネシウム、鉄、
シリカ等の不純物が磁化作用を受けてイオン結晶や酸化
を起し難くなり、その結果スケール等の発生が防止され
ることになる。
The magnetic treatment device is composed of a water tank and a DC type magnet (or permanent magnet), and the water is collected within the magnetic field of the magnet (stone &
Calcium, magnesium, iron,
Impurities such as silica are magnetized, making it difficult to cause ionic crystals and oxidation, and as a result, the generation of scale and the like is prevented.

本件請求項(2)の発明によれば、磁気処理効果と遠赤
外線処理効果とが相乗することになり、水垢の防止等の
面では優れた効用が発揮される。
According to the invention of claim (2), the magnetic treatment effect and the far-infrared treatment effect are synergistic, and excellent effects are exhibited in terms of preventing limescale and the like.

次に、配管路の内壁面を遠赤外線の放射体とする方法、
即ち遠赤外線放射物質を含有する塗膜を管路内壁面に形
成する方法について説明する。
Next, a method of using the inner wall surface of the pipe as a far-infrared radiator;
That is, a method for forming a coating film containing a far-infrared emitting substance on the inner wall surface of a pipe will be explained.

塗膜の形成に際しては、先ず管路内を清掃する。When forming a coating film, the inside of the pipe is first cleaned.

次に、管路内壁面に所謂気流法若しくは液相法により、
セラミックス焼結体の微粉末と有機塗料の混合体である
ライニング剤を用いて皮膜を形成する。
Next, the inner wall surface of the pipe is coated with the so-called air flow method or liquid phase method.
A film is formed using a lining agent that is a mixture of fine powder of ceramic sintered body and organic paint.

即ち、気流法を利用する場合には、前記ライニング剤と
空気との混合流体を管路の一端開口から内方へ向けて噴
出し、管内壁面へ付着せしめたライニング剤を混合流体
内の空気流によって前方へ流動させることにより、管路
内壁面に厚さ0.2〜280I程度の皮膜を形成する。
That is, when using the airflow method, a fluid mixture of the lining agent and air is jetted inward from an opening at one end of the pipe, and the lining agent adhered to the inner wall surface of the pipe is exposed to the air flow within the mixed fluid. By causing the liquid to flow forward, a film having a thickness of about 0.2 to 280 I is formed on the inner wall surface of the pipe.

また、所謂液相法を利用する場合には、管路の開口端の
内方ヘピグとライニング剤を配設し、ピグを空気圧若し
くはワイヤ等によって前方へ移動させることにより、管
路内壁面に皮膜を形成する。
In addition, when using the so-called liquid phase method, a pig and a lining agent are placed inside the open end of the pipe, and the pig is moved forward using air pressure or a wire to form a coating on the inner wall of the pipe. form.

又、前記方法に於いては、遠赤外線放射物質を含有する
ライニング剤を用いて管路内壁面に塗膜を形成するよう
にしているが、先ず清掃後の管路内壁面に接着剤層を気
流法や液相法、ハケ塗り等によって形成し、その後粉末
状の遠赤外線放射性物質(例えば、セラミック焼結体の
微粉末)を前記接着剤層の上へ吹き付け、接着剤層上に
遠赤外線放射物質の薄層を形成するようにしてもよい。
In addition, in the above method, a coating film is formed on the inner wall surface of the pipe using a lining agent containing a far-infrared emitting substance, but first an adhesive layer is applied to the inner wall surface of the pipe after cleaning. It is formed by an air flow method, a liquid phase method, brush painting, etc., and then a powdery far-infrared emitting material (for example, fine powder of ceramic sintered body) is sprayed onto the adhesive layer, and far-infrared radiation is applied onto the adhesive layer. A thin layer of emissive material may also be formed.

(発明の効果) 本件請求項(1)の発明に於いては、配管路の内壁面全
体を遠赤外線の放射面、即ち遠赤外線放射物質の保持組
体として活用することが出来、遠赤外線放射物質からの
熱線を水に照射するための特別な装置を必要とすること
なく、遠赤外線による活性化処理を行なえる。
(Effect of the invention) In the invention of claim (1), the entire inner wall surface of the piping path can be used as a far-infrared ray emitting surface, that is, as a holding assembly for far-infrared emitting material, and the far-infrared rays can be Activation treatment using far infrared rays can be performed without the need for special equipment for irradiating water with heat rays from a substance.

また、配管路内壁面に遠赤外線放射物質を塗膜の形態で
固着しているため、配管路内に於いて外周面から均一に
水中へ遠赤外線が連続照射されることになり、より高度
な活性化処理を連続的に行なうことが出来る。
In addition, because the far-infrared emitting material is fixed in the form of a coating on the inner wall of the pipe, far-infrared rays are uniformly and continuously irradiated into the water from the outer circumferential surface of the pipe. Activation processing can be performed continuously.

更に、配管路内壁面の更生用ライニング剤を利用し、こ
れに遠赤外線放射物質を混入することにより、管路の更
生と、管路内壁面への遠赤外線放射物質の固着とを一挙
に行なうことが出来、経済的にも極めて有利である。
Furthermore, by using a lining agent for rehabilitation of the inner wall surface of the pipeline and mixing a far-infrared emitting substance into it, the rehabilitation of the pipeline and the fixation of the far-infrared emitting substance to the inner wall surface of the pipeline are carried out at the same time. It is extremely advantageous economically.

一方、本件請求項(2)の発明に於いては、磁気処理に
よる活性化作用と遠赤外線による活性化処理とが相乗的
に作用し、水垢の発生防止等の点では極めて高い実用的
効用が奏される。
On the other hand, in the invention of claim (2), the activation effect by magnetic treatment and the activation treatment by far infrared rays act synergistically, resulting in extremely high practical utility in terms of preventing the formation of water scale, etc. It is played.

また、本件請求項(4)及び請求項(5)の発明に於い
ては、ライニング処理に於ける気流法又は液相法の技術
を活用して管路内壁面を遠赤外線の放射面として安全に
且つ有効に活用することが可能となり、活性化処理コス
トの大幅な引下げと連続的な水の高度活性化処理が可能
となる。
In addition, in the inventions of claims (4) and (5), the inner wall surface of the pipe can be safely used as a far-infrared radiation surface by utilizing the airflow method or liquid phase method technology in lining treatment. It becomes possible to utilize the water effectively and effectively, and it becomes possible to significantly reduce the activation treatment cost and perform continuous high-level activation treatment of water.

本発明は上述の通り高い実用的効用を有するものである
As mentioned above, the present invention has high practical utility.

【図面の簡単な説明】[Brief explanation of the drawing]

第1図は請求項(1)の発明の実施系統図である。 第2図は、請求項(2)の発明の実施系統図である。 A 配管路       3 分岐管路B 磁気処理装
置    S 枝管路 2 主管路       6 水栓 特許出願人 株式会社 日本技術開発センター代表者 
新納清憲
FIG. 1 is an implementation system diagram of the invention of claim (1). FIG. 2 is an implementation system diagram of the invention of claim (2). A Piping line 3 Branch line B Magnetic treatment device S Branch line 2 Main line 6 Faucet patent applicant Representative of Japan Technology Development Center Co., Ltd.
Kiyonori Niino

Claims (5)

【特許請求の範囲】[Claims] (1)遠赤外線放射物質を含有する塗膜を内壁面に備え
た配管路内へ水を通し、塗膜から放射された遠赤外線を
水に吸収させることにより、活性化された水を連続的に
製造することを特徴とする活性水の製造方法。
(1) Water is passed through a pipe line whose inner wall is coated with a coating film containing a far-infrared emitting substance, and the water is continuously activated by absorbing the far-infrared rays emitted from the coating film. A method for producing activated water, characterized by producing activated water.
(2)遠赤外線放射物質を含有する塗膜を内壁面に備え
た配管路と磁気処理装置とを連結し、前記配管路内へ水
を通して塗膜から放射された遠赤外線を水に吸収させる
と共に水を磁化することにより、活性化された水を連続
的に製造することを特徴とする活性水の製造方法。
(2) Connecting a piping path with a coating film containing a far-infrared emitting substance on the inner wall surface and a magnetic treatment device, passing water into the piping path and allowing the water to absorb the far-infrared rays emitted from the coating film. A method for producing activated water, which comprises continuously producing activated water by magnetizing water.
(3)配管路内へ水を循環させるようにした請求項(1
)及び(2)に記載の活性水の製造方法。
(3) Claim (1) in which water is circulated within the piping path.
) and (2).
(4)管路内へ遠赤外線放射物質を含有するライニング
剤を流通させ、配管路の内壁面にライニング皮膜を形成
するようにした活性水製造用管路の形成方法。
(4) A method for forming a pipeline for producing activated water, in which a lining agent containing a far-infrared emitting substance is passed through the pipeline to form a lining film on the inner wall surface of the pipeline.
(5)管路内へ接着用ライニング剤を流通させ、管路内
壁面に前記接着用ライニング剤の皮膜を形成した後、管
路内へ遠赤外線放射物質の粉体を流通させ、前記皮膜の
上に前記粉体を固着するようにした活性水製造用管路の
形成方法。
(5) After distributing an adhesive lining agent into the pipe to form a film of the adhesive lining agent on the inner wall surface of the pipe, passing far-infrared emitting material powder into the pipe to form a film of the adhesive lining agent on the inner wall surface of the pipe. A method for forming a pipeline for producing activated water, the powder being fixed thereon.
JP33462488A 1988-12-29 1988-12-29 Methods for making activated water and for forming pipeline for making activated water Pending JPH02180691A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP33462488A JPH02180691A (en) 1988-12-29 1988-12-29 Methods for making activated water and for forming pipeline for making activated water

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP33462488A JPH02180691A (en) 1988-12-29 1988-12-29 Methods for making activated water and for forming pipeline for making activated water

Publications (1)

Publication Number Publication Date
JPH02180691A true JPH02180691A (en) 1990-07-13

Family

ID=18279462

Family Applications (1)

Application Number Title Priority Date Filing Date
JP33462488A Pending JPH02180691A (en) 1988-12-29 1988-12-29 Methods for making activated water and for forming pipeline for making activated water

Country Status (1)

Country Link
JP (1) JPH02180691A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
FR2716123A1 (en) * 1994-02-15 1995-08-18 Ravatin Jacques Device for activating fluids

Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS62101392A (en) * 1985-10-29 1987-05-11 Toyota Motor Corp Filling method for cast iron material utilizing high density energy source

Patent Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS62101392A (en) * 1985-10-29 1987-05-11 Toyota Motor Corp Filling method for cast iron material utilizing high density energy source

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
FR2716123A1 (en) * 1994-02-15 1995-08-18 Ravatin Jacques Device for activating fluids

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