JP2017094226A - Water treatment equipment and water treatment method - Google Patents
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Abstract
Description
本発明は、水に対して磁気化を含む処理を行う水処理装置およびその処理方法に関する。 The present invention relates to a water treatment apparatus and a treatment method for performing treatment including water magnetization.
一般に、水道水や地下水などの水には、カルシウムイオンやナトリウムイオンなどの数種類のイオンが存在し、通常、これらのイオンは水素結合によって互いに結合する水分子に周囲を取り囲まれたクラスター（水の分子集団）として存在する。
また、このようなクラスターを含む水を磁気化して、クラスターを細分化することにより、水の溶解力や浸透力を高めることが知られている（例えば、特許文献１参照）。
In general, water such as tap water and groundwater contains several types of ions such as calcium ions and sodium ions, and these ions are usually surrounded by water molecules that are bound together by hydrogen bonds (water). Molecular population).
In addition, it is known that water containing such clusters is magnetized and the clusters are subdivided to increase water dissolving power and penetrating power (see, for example, Patent Document 1).
この従来技術では、水の流路の流れに沿った複数箇所に設けた絞り部に、一対のマグネットからなり、流路を通る水に磁界を与える磁気化装置を設け、クラスターの細分化を図るようにしている。
そして、このようにクラスターを細分化した処理水は、水道配管などに付着した赤錆を溶解したり、鉄材の腐食を防止したりすることができ、また、クラスターが相対的に大きなものよりも「おいしい」とされる。
In this conventional technology, a magnetizing device that includes a pair of magnets and applies a magnetic field to water passing through the flow path is provided at a plurality of constrictions provided along the flow of the water flow path, so as to subdivide the cluster. I am doing so.
And, the treated water with the cluster subdivided in this way can dissolve the red rust adhering to the water pipe and the like, and prevent the corrosion of the iron material. It is said to be delicious.
しかしながら、上述のように、単に水に磁界を与える磁気化装置では、クラスターの細分化を図るには、磁界を掛けるマグネットを、流路に沿って多数配置する必要がある。また、磁気化装置の磁界のみによるクラスターの細分化には限界があり、十分な細分化性能を得るのが難しかった。 However, as described above, in a magnetizing device that simply applies a magnetic field to water, in order to subdivide the cluster, it is necessary to arrange a large number of magnets that apply the magnetic field along the flow path. Further, there is a limit to the segmentation of clusters using only the magnetic field of the magnetizing device, and it has been difficult to obtain sufficient segmentation performance.
本発明は、上記問題に着目してなされたもので、高いクラスター細分化性能を得ることが可能な水処理装置および水処理方法を提供することを目的とする。 The present invention has been made paying attention to the above problems, and an object thereof is to provide a water treatment apparatus and a water treatment method capable of obtaining high cluster fragmentation performance.
上記目的を達成するため、本発明の水処理装置は、流路に沿って、前記流路を流れる水に磁界を掛ける磁気発生装置と、前記磁気発生装置の下流に配置され、前記流路の水に超短波を照射する超短波発生装置と、を備えることを特徴とする水処理装置とした。 In order to achieve the above object, a water treatment apparatus of the present invention is disposed along a flow path, a magnetic generator that applies a magnetic field to water flowing through the flow path, a downstream of the magnetic generator, A water treatment apparatus comprising: an ultrashort wave generator that irradiates water with ultrashort waves.
本発明の水処理装置では、流路を流れる水は、磁気発生装置によりイオンの電位移動が加速されて水の分子集合体の分子結合が弱められた後、超短波発生装置の超短波により分子集合体どうしが衝突することで細分化される。
このように、超短波発生装置の超短波により衝突させることで分子集合体の細分化を図るため、磁気発生装置の磁界のみにより細分化するものと比較して、効率的に、より細かな細分化を図ることができる。
In the water treatment apparatus of the present invention, the water flowing through the flow path is accelerated by the magnetic generator, and after the molecular bonds of the water molecular aggregate are weakened by the magnetic potential generator, the molecular aggregate is generated by the ultrashort wave of the ultrahigh frequency generator. It is subdivided by the collision of each other.
In this way, since the molecular assembly is subdivided by colliding with the ultrashort wave of the ultrashort wave generator, the finer subdivision can be performed more efficiently and efficiently than in the case of subdividing only by the magnetic field of the magnetic generator. Can be planned.
以下、本発明の水処理装置を実現する最良の形態を、図面に示す実施の形態１に基づいて説明する。 Hereinafter, the best mode for realizing the water treatment apparatus of the present invention will be described based on Embodiment 1 shown in the drawings.
（実施の形態の構成）
まず、実施の形態１の水処理装置Ａの構成を説明する。
図１は、実施の形態１の水処理装置Ａを示す斜視図である。
(Configuration of the embodiment)
First, the structure of the water treatment apparatus A of Embodiment 1 is demonstrated.
1 is a perspective view showing a water treatment apparatus A according to Embodiment 1. FIG.
この水処理装置Ａは、例えば金属製のカバー１１に覆われた本体１０と、本体１０に水道水などの処理前の水を導入する導入管１２と、処理後の水である処理水を供給する蛇口１３と、を備える。 The water treatment apparatus A supplies, for example, a main body 10 covered with a metal cover 11, an introduction pipe 12 that introduces pre-treatment water such as tap water into the main body 10, and treated water that is treated water. And a faucet 13.
次に、本体１０の内部の構造を、図２の本体１０の内部構造を概念的に表す構造説明図に基づいて説明する。 Next, the internal structure of the main body 10 will be described based on a structural explanatory diagram conceptually showing the internal structure of the main body 10 in FIG.
本体１０の内部には、導入管１２から蛇口１３に至る流路を形成する管路２０を備える。そして、管路２０に沿って、上流側から順に、フロースイッチ３０、フィルタ４０、紫外線殺菌装置５０、第１磁気発生装置６０、超短波発生装置７０、第２磁気発生装置８０が設けられている。なお、この管路２０は、蛇口１３を最大に開いた状態で、３０Ｌ／分程度の流量を確保可能としている。 Inside the main body 10, a pipe line 20 that forms a flow path from the introduction pipe 12 to the faucet 13 is provided. A flow switch 30, a filter 40, an ultraviolet sterilizer 50, a first magnetic generator 60, an ultrahigh frequency generator 70, and a second magnetic generator 80 are provided along the pipeline 20 in order from the upstream side. The pipe 20 can secure a flow rate of about 30 L / min with the faucet 13 opened to the maximum.
フロースイッチ３０は、蛇口１３を開いて管路２０に水流が生じた際に閉じて通電可能とし、蛇口１３を閉じて管路２０の水流が停止した際に開いて通電を遮断するスイッチである。そして、このフロースイッチ３０は、交流の電源Ｅと、後述する紫外線殺菌装置５０および超短波発生装置７０との間に介在され、管路２０の水流発生時に閉成して紫外線殺菌装置５０および超短波発生装置７０を自動作動させ、管路２０の水流停止時に開成して、紫外線殺菌装置５０および超短波発生装置７０を自動停止させる。 The flow switch 30 is a switch that opens when the faucet 13 is opened and closes when the water flow is generated in the pipe line 20 and can be energized, and closes the faucet 13 and opens when the water flow in the pipe line 20 is stopped to cut off the power supply. . The flow switch 30 is interposed between the AC power source E and an ultraviolet sterilizer 50 and an ultrashort wave generator 70, which will be described later. The flow switch 30 is closed when a water flow in the pipe 20 is generated, and the ultraviolet sterilizer 50 and the ultrashort wave are generated. The apparatus 70 is automatically operated and opened when the water flow in the pipe line 20 is stopped, and the ultraviolet sterilizer 50 and the ultrashort wave generator 70 are automatically stopped.
フィルタ４０は、管路２０を横切って配置された不織布などにより形成されたフィルタであり、粗ゴミを除去する。
紫外線殺菌装置５０は、フィルタ４０の直後に配置され、管路２０の水に対して紫外線を照射して殺菌を行う。
The filter 40 is a filter formed of a nonwoven fabric or the like disposed across the pipe line 20 and removes coarse dust.
The ultraviolet sterilizer 50 is disposed immediately after the filter 40 and sterilizes by irradiating the water in the pipe line 20 with ultraviolet rays.
第１磁気発生装置６０は、例えば、Ｎ極とＳ極、あるいは、Ｎ極とＮ極を、管路２０を挟んで対向して配置した一対あるいは複数対の磁石（永久磁石）により構成された３つの磁気発生器６１，６２，６３を直列に配置して形成されている。なお、磁石として、電磁石を用いることもできる。
この第１磁気発生装置６０による磁界を水流に掛けることにより、管路２０の水の分子をイオン化させ、プラスイオンとマイナスイオンとでお互い双極子を形成させ、イオンの電位移動を加速し、クラスター（水の分子集団）の結合を弱める。
The first magnetism generator 60 is composed of, for example, a pair or a plurality of pairs of magnets (permanent magnets) in which the N pole and the S pole, or the N pole and the N pole are arranged so as to face each other with the duct 20 interposed therebetween. Three magnetic generators 61, 62, and 63 are arranged in series. An electromagnet can also be used as the magnet.
By applying a magnetic field generated by the first magnetism generator 60 to the water flow, the water molecules in the pipe line 20 are ionized, and positive ions and negative ions form dipoles to accelerate the potential movement of the ions. It weakens the bond of (molecular group of water).
超短波発生装置７０は、通電時に、４３０〜２４５０ＭＨｚの範囲内の超短波を発生する装置であり、本実施の形態１では、２４５０ＭＨｚの超短波を発生する。さらに、本実施の形態１では、超短波発生装置７０は、超短波をケース７１の内部に向けて照射する。このケース７１は、鉄などの金属製であり、楕円錐状の一対の有底筒状部材７１ａ，７１ａを、その大径側で結合させて形成されている。 The ultrahigh frequency generator 70 is an apparatus that generates an ultrahigh frequency within a range of 430 to 2450 MHz when energized. In the first embodiment, an ultrahigh frequency of 2450 MHz is generated. Furthermore, in the first embodiment, the ultrashort wave generator 70 irradiates the ultrashort wave toward the inside of the case 71. The case 71 is made of a metal such as iron, and is formed by joining a pair of bottomed cylindrical members 71a and 71a having an elliptical cone shape on the large diameter side.
さらに、ケース７１の内部には、管路２０を螺旋状に配索した螺旋状部２１が収容されている。すなわち、超短波発生装置７０は、通電時に、前述の２４５０ＭＨｚの超短波を螺旋状部２１内の水に向けて照射する。 Further, a spiral portion 21 in which the conduit 20 is spirally arranged is accommodated in the case 71. That is, the ultrahigh frequency generator 70 irradiates the water in the spiral portion 21 with the above-described ultrahigh frequency of 2450 MHz when energized.
第２磁気発生装置８０は、前述の第１磁気発生装置６０にて用いたのと同様の磁気発生器により構成され、管路２０の水の分子に電荷を与える電荷付与装置として用いる。 The second magnetic generator 80 is constituted by a magnetic generator similar to that used in the first magnetic generator 60 described above, and is used as a charge imparting device that gives charges to water molecules in the pipe line 20.
（実施の形態の作用）
次に、実施の形態の水処理装置の作用を説明する。
蛇口１３を開くと、管路２０には、図２において矢印Ｆの方向に水流が生じる。
そして、この水流発生によりフロースイッチ３０が閉成されて、紫外線殺菌装置５０ならびに超短波発生装置７０が作動を開始する。
そこで、この管路２０を流れる水は、まず、フィルタ４０により粗ゴミの除去が成された後、フィルタ４０の直後に配置された紫外線殺菌装置５０の紫外線の照射を受けて殺菌される。
(Operation of the embodiment)
Next, the operation of the water treatment apparatus of the embodiment will be described.
When the faucet 13 is opened, water flows in the direction of the arrow F in FIG.
And the flow switch 30 is closed by this water flow generation, and the ultraviolet sterilizer 50 and the ultra-short wave generator 70 start operation.
Thus, the water flowing through the pipe line 20 is first sterilized by removing ultraviolet dust from the filter 40 and then sterilized by being irradiated with ultraviolet rays from an ultraviolet sterilizer 50 disposed immediately after the filter 40.
その後、管路２０を流れる水は、第１磁気発生装置６０により、磁気を掛けられることにより、その分子が、図３に示すように、プラスイオンとマイナスイオンによりお互い双極子を形成するようになり、電位移動を加速して結合を弱めた状態となる。 Thereafter, the water flowing through the pipe line 20 is magnetized by the first magnetism generator 60 so that the molecules form a dipole with positive ions and negative ions as shown in FIG. Thus, the potential transfer is accelerated and the coupling is weakened.
このようにして、クラスター（水の分子集団）における分子結合を弱めた状態の水は、超短波発生装置７０により超短波を照射される。
このとき、超短波を照射された水の分子は、波長がプラスの時にマイナス方向に回転し、波長がマイナスの時にプラス方向に回転する。そして、この波長の向き（プラス、マイナス）は、毎秒２４億５千万回変化するため、イオン水の分子が互いに回転運動し、相互に衝突することにより、クラスター（水の分子集団）が割れ、分子集団を構成する水の分子数が大幅に小さくなり、ナノ化する。
In this way, the water in a state where the molecular bonds in the cluster (molecular group of water) are weakened is irradiated with the ultra high frequency by the ultra high frequency generator 70.
At this time, the water molecules irradiated with the ultrashort wave rotate in the negative direction when the wavelength is positive, and rotate in the positive direction when the wavelength is negative. The direction of the wavelength (plus or minus) changes 2,450 million times per second, so the molecules of water (the molecular group of water) break up when the molecules of ionic water rotate and collide with each other. , The number of water molecules that make up the molecular population will be significantly reduced and nanosized.
さらに、このとき、超短波発生装置７０のケース７１内では、管路２０が螺旋状部２１を備え、管路２０における水流の方向が３６０度変化することにより超短波の照射方向と相対変位することから、上記の水分子の回転運動および相互の衝突が促進される。
加えて、螺旋状部２１では、直管形状の場合と比較して、管路２０を流れる水が、超短波発生装置７０の超短波の照射範囲に留まる時間が長くなり、上記のクラスターの相互衝突による細分化が、さらに促進される。
Further, at this time, in the case 71 of the ultrahigh frequency generator 70, the pipe line 20 is provided with the spiral portion 21, and the direction of water flow in the pipe line 20 changes relative to the irradiation direction of the ultra high frequency wave by changing 360 degrees. Rotational motion of the water molecules and mutual collision are promoted.
In addition, in the spiral portion 21, compared to the case of the straight pipe shape, the time that the water flowing through the pipe line 20 stays in the irradiation range of the ultrashort wave of the ultrashort wave generating device 70 becomes longer, and the above-described cluster collisions Subdivision is further promoted.
また、管路２０の水に対する超短波の照射により、仮に水に細菌が含まれている場合、細菌体内のタンパク質が分解され（極性回転運動と無極性熱運動）、これによりタンパク質の性質が変化し、生物としての活性を失う。これにより、水を滅菌することができる。この減菌においても、水が螺旋状部２１を流れるため、超短波の照射時間が長くなり、減菌効果が高まる。
以上のように、螺旋状部２１において、細分化性能および減菌性能が高まるため、本実施の形態のように、最大で３０Ｌ／分の水流が管路２０を流れても、上記の細分化性能、減菌性能を得ることが可能となる。
In addition, when bacteria are contained in the water due to the irradiation of the ultra-short wave with respect to the water in the pipe line 20, the protein in the bacterial body is decomposed (polar rotation motion and nonpolar thermal motion), thereby changing the properties of the protein. Losing activity as a living thing. Thereby, water can be sterilized. Also in this sterilization, since water flows through the spiral part 21, the irradiation time of the ultra-short wave becomes long, and the sterilization effect is enhanced.
As described above, since the fragmentation performance and the sterilization performance are enhanced in the spiral portion 21, even if a maximum water flow of 30 L / min flows through the pipe line 20 as in the present embodiment, the above segmentation is performed. Performance and sterilization performance can be obtained.
その後、超短波発生装置７０のケース７１を出た水の分子は、第２磁気発生装置８０により、電荷が与えられ、これにより水分子の電荷が安定することで、上記の水の分子集団が細分化されたナノ化状態を、安定して維持することができる。 Thereafter, the water molecules exiting the case 71 of the ultrahigh frequency generator 70 are given a charge by the second magnetism generator 80, thereby stabilizing the charge of the water molecules, thereby subdividing the above water molecule population. The nanonized state can be stably maintained.
なお、このように、水の分子集団が細分化されてナノ化した水処理装置Ａによる処理水は、浸透性に優れるため、動物、植物における吸収効果に優れ、また、上記減菌作用により雑菌の繁殖を抑える効果が得られる。 In addition, since the treated water by the water treatment apparatus A in which the water molecular group is subdivided into nano-sizes as described above is excellent in permeability, it is excellent in absorption effect in animals and plants, and is also free of bacteria by the sterilization action. The effect of suppressing the breeding of is obtained.
本願出願人の実験によれば、上述の処理水を、農業用水として植物に投与した場合、水道水に比べて、植物の成長速度が顕著に向上した。また、動物に対しても、細胞や血液への浸透が早まり、新陳代謝が活発になる。
また、上述の処理水を、洗濯や洗浄水に用いた場合、水道水と比較して、汚れの落ち具合が向上した。
さらに、上記処理水を、お茶やコーヒー、スープなどに用いた場合、水道水と比較して、お茶やコーヒー、スープの抽出量が向上した。
According to the experiment conducted by the applicant of the present application, when the treated water described above was administered to plants as agricultural water, the growth rate of the plants was significantly improved compared to tap water. Also, for animals, penetration into cells and blood is accelerated, and metabolism is activated.
Moreover, when the above-mentioned treated water was used for washing or washing water, the degree of dirt removal was improved as compared with tap water.
Further, when the treated water was used for tea, coffee, soup, etc., the extraction amount of tea, coffee, soup was improved as compared with tap water.
（実施の形態１の効果）
実施の形態１の水処理装置にあっては、下記に列挙する効果を得ることができる。
１）実施の形態１の水処理装置は、
管路２０に沿って、
管路２０に流れる水に磁界を掛ける第１磁気発生装置６０と、
第１磁気発生装置６０の下流に配置され、管路２０の水に超短波を照射する超短波発生装置７０と、
を備えることを特徴とする。
したがって、管路２０を流れる水は、第１磁気発生装置６０の磁界によりイオンの電位移動が加速され、水の分子集合体の分子結合が弱められた後、超短波発生装置７０の超短波により分子回転を加速して分子衝突により細分化される。
このように、超短波発生装置７０の超短波により分子衝突させて水の分子集合体の細分化を図るため、磁気発生装置のみにより細分化する場合よりも、効率的に、より細かな細分化を図ることができる。
これにより、３０Ｌ／分という比較的多量の水量であっても、確実に水の分子集合体の細分化処理を行うことができる。
(Effect of Embodiment 1)
In the water treatment apparatus of the first embodiment, the effects listed below can be obtained.
1) The water treatment apparatus of Embodiment 1 is
Along the pipeline 20,
A first magnetic generator 60 for applying a magnetic field to water flowing in the pipe line 20;
An ultrahigh frequency generator 70 disposed downstream of the first magnetic generator 60 and irradiating the water of the pipe line 20 with the ultrahigh frequency;
It is characterized by providing.
Therefore, the water flowing through the pipe line 20 is accelerated by the magnetic field of the first magnetic generator 60 and the molecular bond of the water molecular aggregate is weakened. Is subdivided by molecular collision.
As described above, since the molecular aggregates of water are made to collide by the ultrashort wave of the ultrashort wave generation device 70 and the water molecular aggregate is subdivided, the subdivision can be performed more efficiently and finely than the case of subdividing only by the magnetic generation device. be able to.
Thereby, even if it is a comparatively large amount of water of 30 L / min, the molecular assembly of water can be reliably subdivided.
２）実施の形態１の水処理方法は、
管路２０を流れる水に対して、磁界を掛けた後、超短波を照射することを特徴とする。
したがって、上記１）と同様に、磁気発生装置のみにより細分化する場合と比較して、効率的に、より細かに水の分子集合体の細分化を行うことができる。
2) The water treatment method of Embodiment 1 is
It is characterized by irradiating the ultra-short wave after applying a magnetic field to the water flowing through the pipe line 20.
Therefore, as in 1) above, the molecular aggregate of water can be subdivided more efficiently and efficiently than in the case of subdividing only by the magnetic generator.
３）実施の形態１の水処理装置は、
管路２０の超短波発生装置７０の下流に、管路２０の水に磁界を掛ける第２磁気発生装置８０をさらに備えることを特徴とする。
この第２磁気発生装置８０により当たる電荷により、水分子の電荷が安定することで、水の分子集団が細分化されたナノ化状態を、安定して維持することができる。
一般に、水の分子集団を細分化させた後、その水を沸騰させると、細分化した分子集団同士が再び結合すると言われるが、本実施の形態１の処理を行った水は、沸騰させても細分化状態を保持できた。
3) The water treatment apparatus of Embodiment 1 is
A second magnetic generator 80 for applying a magnetic field to the water in the pipe 20 is further provided downstream of the ultrashort wave generator 70 in the pipe 20.
The charge of water molecules is stabilized by the charge applied by the second magnetism generator 80, so that the nanonized state in which the molecular group of water is subdivided can be stably maintained.
In general, when the water molecular group is subdivided and then the water is boiled, it is said that the subdivided molecular groups recombine with each other. However, the water subjected to the treatment of Embodiment 1 is boiled. Was able to maintain a fragmented state.
４）実施の形態１の水処理装置は、
超短波発生装置７０の超短波の照射域を覆うケース７１を備え、
管路２０は、ケース７１内に、超短波の照射方向に沿う方向を軸心とする螺旋状を成す螺旋状部２１を備えることを特徴とする。
したがって、例えば、管路２０の直交方向から、管路２０を横切るように超短波を照射するものと比較して、超短波の照射時間を長くすることができる。
よって、小型の超短波発生装置７０を用いながら、超短波を照射することによる作用である水の分子集合体の細分化性能および減菌性能を確保することができる。
4) The water treatment apparatus of Embodiment 1
A case 71 that covers the irradiation region of the ultrashort wave of the ultrashort wave generator 70;
The pipe line 20 is characterized in that a spiral part 21 having a spiral shape with the direction along the irradiation direction of the ultrashort wave as an axis is provided in the case 71.
Therefore, for example, compared with what irradiates an ultrashort wave so that it may cross the pipe line 20 from the orthogonal direction of the pipe line 20, the irradiation time of an ultrashort wave can be lengthened.
Therefore, it is possible to ensure the fragmentation performance and sterilization performance of the water molecular aggregate, which is the effect of irradiating the ultrashort wave, while using the small ultrashort wave generator 70.
５）実施の形態１の水処理装置は、
管路２０に紫外線殺菌装置５０を設けたため、管路２０の水に紫外線を照射して殺菌を行うことができる。
5) The water treatment apparatus of Embodiment 1
Since the ultraviolet ray sterilization apparatus 50 is provided in the pipe line 20, the water in the pipe line 20 can be sterilized by irradiating the ultraviolet ray.
６）実施の形態１の水処理装置は、
管路２０にフロースイッチ３０を設け、紫外線殺菌装置５０および超短波発生装置７０は、蛇口１３を開いた際には、自動的に作動するようにした。
したがって、人によるスイッチング操作が不要であり、使い勝手に優れる。
6) The water treatment apparatus of Embodiment 1
The flow switch 30 is provided in the pipeline 20, and the ultraviolet sterilizer 50 and the ultrashort wave generator 70 are automatically operated when the faucet 13 is opened.
Therefore, a switching operation by a person is unnecessary, and it is easy to use.
以上、本発明の水処理装置を実施の形態に基づき説明してきたが、具体的な構成については、この実施の形態に限られるものではなく、特許請求の範囲の各請求項に係る発明の要旨を逸脱しない限り、設計の変更や追加等は許容される。
例えば、実施の形態では、管路２０に、フィルタ４０、紫外線殺菌装置５０、第１磁気発生装置６０、超短波発生装置７０、第２磁気発生装置８０を順に配置した構成としたが、これに限定されず、第１磁気発生装置６０および超短波発生装置７０を備えていれば、水の分子集合体の細分化を行うという、所期の効果を達成できる。
As mentioned above, although the water treatment apparatus of this invention has been demonstrated based on embodiment, about a concrete structure, it is not restricted to this embodiment, The summary of the invention which concerns on each claim of a claim As long as they do not deviate, design changes and additions are permitted.
For example, in the embodiment, the filter 20, the ultraviolet sterilizer 50, the first magnetism generator 60, the ultrashort wave generator 70, and the second magnetism generator 80 are arranged in this order in the pipe line 20. If the first magnetism generator 60 and the ultrashort wave generator 70 are provided, the desired effect of subdividing the water molecular aggregate can be achieved.
また、実施の形態では、超短波発生装置では、管路の螺旋状部に超短波を照射するようにしたが、この部位の管路の構造は、これに限定されない。例えば、螺旋状部に替えて、管路を、ラジエータのように複数の折返し構造としても、照射時間を長くすることができるとともに、水分子に対する超短波の照射方向が相対的に変位するようにできる。あるいは、管路に、このような超短波の照射時間を長くするように経路を長くする構造を備えるものに限定されず、各磁気発生装置と同様に、管路に対して直交方向から超短波を照射するようにしてもよい。 Further, in the embodiment, in the ultrashort wave generating device, the ultrashort wave is irradiated to the spiral portion of the pipe line, but the structure of the pipe line in this part is not limited to this. For example, in place of the spiral portion, the pipe line may have a plurality of folded structures such as a radiator, so that the irradiation time can be lengthened and the irradiation direction of the ultrashort wave with respect to water molecules can be relatively displaced. . Or it is not limited to what has a structure which lengthens a path so that the irradiation time of such an ultrashort wave may be lengthened to a pipe line, and similarly to each magnetism generator, it irradiates an ultrashort wave from a direction perpendicular to a pipe line You may make it do.
また、実施の形態では、水処理装置は、蛇口１３を開いて水を流す本体を備えた構造としたが、これに限定されない。例えば、家庭用その他の水道管に、磁気発生装置および超短波発生装置、あるいはその他の構成を、取り付けた構造としてもよい。 Moreover, in embodiment, although the water treatment apparatus was taken as the structure provided with the main body which opens the faucet 13 and flows water, it is not limited to this. For example, it is good also as a structure which attached the magnetic generator and the ultrashort wave generator, or another structure to the other water pipes for households.
２０ 管路
２１ 螺旋状部
３０ フロースイッチ
４０ フィルタ
５０ 紫外線殺菌装置
６０ 第１磁気発生装置
７０ 超短波発生装置
７１ ケース
８０ 第２磁気発生装置
Ａ 水処理装置
20 Pipe 21 Spiral part 30 Flow switch 40 Filter 50 Ultraviolet sterilizer 60 First magnet generator 70 Ultra-short wave generator 71 Case 80 Second magnet generator A Water treatment device
Claims (4)
前記流路を流れる水に磁界を掛ける磁気発生装置と、
前記磁気発生装置の下流に配置され、前記流路の水に超短波を照射する超短波発生装置と、
を備えることを特徴とする水処理装置。 Along the water flow path
A magnetic generator for applying a magnetic field to water flowing through the flow path;
An ultra-high frequency generator that is arranged downstream of the magnetic generator and irradiates the water of the flow path with ultra-high frequency;
A water treatment apparatus comprising:
前記流路の前記超短波発生装置の下流に、前記流路の水に磁界を掛ける第２の磁気発生装置をさらに備えることを特徴とする水処理装置。 The water treatment apparatus according to claim 1,
A water treatment apparatus, further comprising a second magnetic generator for applying a magnetic field to the water in the flow path downstream of the ultrahigh frequency generator in the flow path.
前記超短波発生装置の前記超短波の照射域を覆うケースを備え、
前記流路は、前記ケース内に、前記超短波の照射方向に沿う方向を軸心とする螺旋状を成す螺旋状部を備えることを特徴とする水処理装置。 In the water treatment apparatus according to claim 1 or 2,
A case that covers the irradiation region of the ultrashort wave of the ultrashort wave generator;
The said flow path is provided with the spiral part which comprises the spiral shape centering on the direction in alignment with the irradiation direction of the said ultrashort wave in the said case, The water treatment apparatus characterized by the above-mentioned.
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