JP6626230B1 - Magnetic vibration water, magnetic vibration water production method, and magnetic vibration water production apparatus - Google Patents
Magnetic vibration water, magnetic vibration water production method, and magnetic vibration water production apparatus Download PDFInfo
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- Water Treatment By Electricity Or Magnetism (AREA)
- Physical Or Chemical Processes And Apparatus (AREA)
Abstract
【課題】本発明は、強力な減衰振動磁界を印加する磁気振動水製造装置で水を減衰振動磁界処理することによって、水分子同士の相互作用が弱められた磁気振動水を製造し、新たな物性、及び／又は機能性を有する磁気振動水の製造方法を提供することを課題とする。【解決手段】本発明は、被処理水を磁気処理する磁気処理水槽を空芯の磁気コイルの内部に収容する段階と、磁気処理水槽に前記被処理水を供給する段階と、磁気コイルに接続したコンデンサを充電する段階と、コンデンサに充電された電力を前記磁気コイルに放電して前記磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成して前記被処理水に印加する段階と、によって磁気振動水を製造することを特徴とする。【選択図】 図１An object of the present invention is to produce a magnetically vibrated water in which the interaction between water molecules is weakened by subjecting water to a damped oscillating magnetic field treatment with a magnetically oscillating water producing apparatus for applying a strong damping oscillating magnetic field. An object of the present invention is to provide a method for producing magnetically vibrated water having physical properties and / or functionality. According to the present invention, a magnetic treatment water tank for magnetically treating water to be treated is accommodated in an air-core magnetic coil, a step of supplying the water to the magnetic treatment water tank, and a connection to the magnetic coil. Charging the capacitor, and discharging the power charged in the capacitor to the magnetic coil to form a damped oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more in the magnetic coil and applying the damped oscillating magnetic field to the water to be treated. Producing the magnetically vibrated water by the steps. [Selection diagram] Fig. 1
Description
本発明は、磁気振動水、磁気振動水製造方法、及び磁気振動水製造装置に係り、より詳しくは、被処理水に減衰振動磁界を印加して磁気振動処理した磁気振動水、磁気振動水製造方法、及び磁気振動水製造装置に関する。 The present invention relates to a magnetic vibration water method magnetic vibration water, and relates to a magnetic vibration water made ZoSo location, and more particularly, magnetic vibrations water magnetically vibration treatment by applying a damped oscillation magnetic field to the water to be treated, the magnetic vibrations The present invention relates to a water production method and a magnetic vibration water production device.
液体の沸点は、液体物質の分子間に相互作用がない場合は分子量にほぼ相関する。しかし、水は、沸点（１気圧）が１００℃で分子量が１８であるのに対して、水と同程度の沸点（９８℃）を有するｎ−ヘプタンの分子量は１００である。この相違の原因は、水の分子が２個の水素原子と１個の酸素原子からなり、液体の水は、隣接する水分子の水素原子と酸素原子との間に弱い結合を形成して、液体の水の表面から水分子が水蒸気となって飛び出すのを阻害している（引き留めている）ためである。 The boiling point of a liquid substantially correlates with the molecular weight if there is no interaction between the molecules of the liquid substance. However, water has a boiling point (1 atm) of 100 ° C. and a molecular weight of 18, whereas n-heptane having a boiling point similar to that of water (98 ° C.) has a molecular weight of 100. The cause of this difference is that the water molecule consists of two hydrogen atoms and one oxygen atom, and liquid water forms weak bonds between the hydrogen and oxygen atoms of adjacent water molecules, water molecules from the surface of the liquid water is because it inhibits the pop become steam (are detained).
この、水の酸素原子と水素原子との弱い結合は、周知の水素結合の一例であり、この水分子間の水素結合が、水の性質に大きな影響を与えている。その一例として、水は生体中に拡散しにくいという性質があるが、その理由として、液体の水が分子状の水に変化して生体膜を通過するのを水分子間の水素結合が引き止め、阻害していると考えられている。 This weak bond between the oxygen atom and the hydrogen atom of water is an example of a well-known hydrogen bond, and the hydrogen bond between water molecules has a great effect on the properties of water. As an example, water has a property that it is difficult to diffuse into a living body, because the hydrogen bond between water molecules stops liquid water from changing to molecular water and passing through a biological membrane, It is believed to be inhibiting.
さて、一般的に分子結合は２個の電子が対を成して形成されるが、例えば水素原子などの特定の原子を含む結合では、強力な磁場が印加されると分子結合を形成している２個の電子のエネルギーレベルが分極され、そのエネルギー差に相当するエネルギーを吸収して結合が活性化されるようになる。この現象を利用したものが核磁気共鳴吸収法（ＮＭＲ）という分析方法であり、またこの技術を人体の内部を観察し医療に応用したのがＭＲＩである。
分子結合の活性化は、分子結合の結合力の低下を意味するから、核磁気共鳴吸収が起これば、もともと弱い結合である水素結合は更に弱くなるのではないかと推測される。
In general, a molecular bond is formed by two electrons forming a pair, but a bond including a specific atom such as a hydrogen atom forms a molecular bond when a strong magnetic field is applied. The energy level of the two electrons is polarized, and the energy corresponding to the energy difference is absorbed to activate the bond. An analysis method that utilizes this phenomenon is called a nuclear magnetic resonance absorption method (NMR), and MRI is an application of this technology to medical treatment by observing the inside of a human body.
Since the activation of molecular bonds means a decrease in the bonding strength of molecular bonds, it is presumed that if nuclear magnetic resonance absorption occurs, hydrogen bonds, which are originally weak bonds, will be further weakened.
しかし、核磁気共鳴吸収は非常に高い磁場で起こる現象であって、ＮＭＲ及びＭＲＩは、超電導体電磁石を用いて形成された磁場を用いて行われる。例えば磁場強度が１１．７４テスラ（９３６５ＫＡ／ｍ）において水素（１Ｈ）は５００ＭＨｚの電磁波を吸収して活性化され、炭素（１３Ｃ）は１２５ＭＨｚの電磁波を吸収し、窒素（１４Ｎ）は３５ＭＨｚの電磁波を吸収して活性化される（非特許文献１）。
従来は、このような強力な磁場を、製造目的で水に印加することは行われなかった。
However, nuclear magnetic resonance absorption is a phenomenon that occurs at a very high magnetic field, and NMR and MRI are performed using a magnetic field formed using a superconductor electromagnet. For example, at a magnetic field intensity of 11.74 Tesla (9365 KA / m), hydrogen ( 1 H) absorbs 500 MHz electromagnetic waves and is activated, carbon ( 13 C) absorbs 125 MHz electromagnetic waves, and nitrogen ( 14 N) becomes It is activated by absorbing an electromagnetic wave of 35 MHz (Non-Patent Document 1).
Conventionally, such a strong magnetic field has not been applied to water for manufacturing purposes.
近年、高い磁気特性を有する希土類磁石が開発され、必要不可欠な材料として広く使用され、今後も更に使用量が増大すると予想される。しかし、希土類磁石は、なんらかの理由で消磁が必要になった時には一度着磁された磁石を脱磁することは極めて難しいという課題を有している。 In recent years, rare earth magnets having high magnetic properties have been developed and widely used as indispensable materials, and it is expected that the usage will increase further in the future. However, the rare earth magnet has a problem that it is extremely difficult to demagnetize the magnet once magnetized when demagnetization is required for some reason.
この、着磁された希土類磁石を脱磁するために、磁石を脱磁する磁気処理コイルと、磁気処理コイルに電力を供給するコンデンサと、コンデンサを充電する充電回路と、コンデンサに充電された電力を瞬時に磁気処理コイルに放電して高いピーク強度を有する減衰振動磁界を磁気処理コイルに形成させる放電回路と、を有する消磁装置が開発された。例えば、特許文献１には、最高ピーク強度が１０テスラ（７９６０ｋＡ／ｍ）であるような強力な磁界を生成する消磁装置が開示されている。 In order to demagnetize the magnetized rare earth magnet, a magnetic processing coil for demagnetizing the magnet, a capacitor for supplying power to the magnetic processing coil, a charging circuit for charging the capacitor, and a power for charging the capacitor And a discharge circuit that instantaneously discharges the magnetic processing coil to form a damped oscillating magnetic field having a high peak intensity in the magnetic processing coil. For example, Patent Document 1 discloses a degaussing device that generates a strong magnetic field having a maximum peak intensity of 10 Tesla (7960 kA / m).
本発明は、核磁気共鳴分析で用いるのと同等の高いピーク強度を有する減衰振動磁界を水に印加し、水の分子間結合である水素結合を分極させ活性化させて水素結合を弱化し、それによって水を活性化して新たな機能性を有する新規な磁気振動水を提供するものである。 The present invention applies a damped oscillating magnetic field having high peak intensity equivalent to that used in nuclear magnetic resonance analysis to water, polarizes and activates hydrogen bonds, which are intermolecular bonds of water, to weaken hydrogen bonds, Thereby, the water is activated to provide a new magnetic vibration water having a new functionality.
本発明は、強力な減衰振動磁界を水に印加し、新たな物性、及び／又は機能性を有する磁気振動水の製造方法を提供することを課題とする。
また本発明は、強力な減衰振動磁界を形成し、水を減衰振動磁界処理する磁気振動水製造装置を提供することを課題とする。
It is an object of the present invention to provide a method for producing magnetically vibrated water having a new physical property and / or functionality by applying a strong damped oscillating magnetic field to water.
Another object of the present invention is to provide a magnetically vibrating water producing apparatus which forms a strong damped oscillating magnetic field and treats water with a damped oscillating magnetic field.
また本発明は、磁気振動水製造装置の過熱を防いだ磁気振動水製造装置を提供することを課題とする。
更に本発明は、強力な減衰振動磁界を形成する磁気振動水製造装置を用いて減衰振動磁界が印加された状態の磁気振動水を提供することを課題とする。
Another object of the present invention is to provide a magnetic vibration water producing apparatus that prevents overheating of the magnetic vibration water producing apparatus.
Still another object of the present invention is to provide a magnetically vibrated water in a state where a damped oscillating magnetic field is applied by using a magnetically oscillating water producing apparatus that forms a strong damped oscillating magnetic field.
本発明は、かかる課題を解決するためになされたものであって、被処理水を磁気処理する磁気処理水槽を空芯の磁気コイルの内部に収容する段階と、磁気処理水槽に被処理水を供給する段階と、磁気コイルに接続したコンデンサを充電する段階と、コンデンサに充電された電力を、逆並列接続されたサイリスタスイッチを有する放電回路を用いて磁気コイルに放電してＬＣＲ共振による減衰振動電流を発生させて、磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成して前記被処理水に印加する段階と、によって磁気振動水を製造することを特徴とする。
The present invention has been made to solve such a problem, and includes a step of housing a magnetically treated water tank for magnetically treating water to be treated in an air-core magnetic coil, and the step of supplying the treated water to the magnetically treated water tank. Supplying, charging a capacitor connected to the magnetic coil, and discharging the electric power charged in the capacitor to the magnetic coil using a discharge circuit having a thyristor switch connected in anti-parallel to damped oscillation due to LCR resonance Generating a current and generating an attenuated oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more in the magnetic coil and applying the damped oscillating magnetic field to the water to be treated, thereby producing magnetically oscillating water.
また、前記被処理水が、蒸留水、脱イオン水、及び逆浸透圧水等を含む精製水、水道水、井戸水、天然水、及びミネラルウォーター等を含む飲用水、調理用水、果汁、茶、コーヒー、紅茶、及び酒等を含む調理食品用水、皮膚処理水、頭髪処理水、洗顔液、及び香水等を含む化粧品用水、生理食塩水、注射液、及び点眼液等を含む医療用水、電解水、水素水、及び酸素水を含む機能性水、塩水、並びに廃水の中から選ばれる１以上であることを特徴とする。
前記磁気コイルと磁気処置水槽との間に冷却手段を更に備えることが好ましい。
Further, the water to be treated is distilled water, deionized water, purified water including reverse osmotic water, tap water, well water, natural water, drinking water including mineral water, and the like, cooking water, fruit juice, tea, coffee, tea, and cooking food water, including alcohol, etc., skin treated water, hair treated water, cleansing solution, and an aqueous cosmetic containing the perfume and the like, saline, injection, medical water, including 及 beauty ophthalmic solution or the like, electrolytic It is at least one selected from functional water including water, hydrogen water, and oxygen water, salt water, and waste water.
It is preferable that cooling means is further provided between the magnetic coil and the magnetic treatment tank.
被処理水を磁気処理する磁気処理水槽、並びに磁気処理水槽を内部に収容する空芯の磁気コイル、磁気コイルに電力を供給するコンデンサ、コンデンサを充電する充電回路、及び逆並列接続されたサイリスタスイッチを有しコンデンサに充電された電力を磁気コイルに放電する放電回路を含む磁界振動装置を備え、前記放電回路は、コンデンサの電力を磁気コイルに放電するとき、ＬＣＲ共振による減衰振動により磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成することを特徴とする磁気振動水製造装置。
A magnetically treated water tank for magnetically treating water to be treated, an air-core magnetic coil for housing the magnetically treated water tank, a capacitor for supplying power to the magnetic coil, a charging circuit for charging the capacitor, and a thyristor switch connected in antiparallel A magnetic field oscillating device including a discharge circuit that discharges the electric power charged in the capacitor to the magnetic coil, wherein the discharge circuit discharges the electric power of the capacitor to the magnetic coil by damping vibration due to LCR resonance to the magnetic coil. An apparatus for producing magnetically vibrated water, wherein a damped oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more is formed.
磁気処理水槽を磁気コイル内に収容した状態で、前記磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を印加することにより、減衰振動磁界が印加された状態の被処理水であることを特徴とする磁気振動水。 By applying a damped oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more to the magnetic coil in a state where the magnetically treated water tank is accommodated in the magnetic coil, the water to be treated is in a state where the damped oscillating magnetic field is applied. Magnetic vibration water characterized by the above.
本発明の磁気振動水製造方法によれば、コンデンサに充電された電力を磁気コイルに放電して磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成して前記被処理水に印加することによって、浸透性が優れ、新規な機能を有する磁気振動水を製造することができる。 According to the method for producing magnetically vibrated water of the present invention, the electric power charged in the capacitor is discharged to the magnetic coil to form an attenuated vibrating magnetic field having a maximum peak intensity of 1.0 Tesla or more in the magnetic coil, and the water is treated. By applying, magnetically vibrated water having excellent permeability and a novel function can be produced.
本発明の磁気振動水は、官能試験によって原料の水道水よりおいしいと評価された。また、本発明の磁気振動水は、浸透力が増大し、花を活けた場合に水道水を用いた場合より花が枯れずに長持ちし、種子の発芽率が向上することが示された。 The magnetic vibration water of the present invention was evaluated by sensory tests as being more delicious than the raw tap water. Further, it was shown that the magnetic vibrating water of the present invention has an increased osmotic power, and when flowers are used, the flowers do not wither and stay longer than when tap water is used, and the seed germination rate is improved.
また、本発明の他の実施例に係る磁気振動水製造方法は、磁気処置水槽との間に冷却手段を更に備え、減衰振動磁界を印加する間に磁気処置水槽の温度が上昇するのを防ぐことができる。
また本発明は、磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を前記被処理水に印加された状態の新規な磁気振動水を提供することができる。
In addition, the method for producing magnetically vibrated water according to another embodiment of the present invention further includes a cooling means between the magnetically treated water tank and the magnetically treated water tank, and prevents the temperature of the magnetically treated water tank from rising during application of the damping vibration magnetic field. be able to.
Further, the present invention can provide a novel magnetic vibrating water in a state where a damped oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more is applied to the water to be treated.
以下に、添付図面を参照しながら、本発明の実施形態について説明する。
図１は、本発明の一実施例に係る磁気振動水製造装置の構成を示す斜視図であり、図２は、本発明の一実施例に係る磁気処理水槽及び磁気コイルを示す断面図である。
図１、２に示すように、本発明の一実施例に係る磁気振動水製造装置１は、磁気処理水槽１０と磁界振動装置２０とを備える。
Hereinafter, embodiments of the present invention will be described with reference to the accompanying drawings.
FIG. 1 is a perspective view showing a configuration of a magnetic vibration water producing apparatus according to one embodiment of the present invention, and FIG. 2 is a cross-sectional view showing a magnetic treatment water tank and a magnetic coil according to one embodiment of the present invention. .
As shown in FIGS. 1 and 2, a magnetic vibration water producing apparatus 1 according to one embodiment of the present invention includes a magnetically treated water tank 10 and a magnetic field vibration device 20.
磁気処理水槽１０は、磁力線が透過可能な材質で磁界振動装置２０の内部に形成され、被処理水導入弁１３及び被処理水１６を供給するポンプ１５を備える被処理水導入管１１と、被処理水排出弁１４を備える被処理水排出管１２と、を備え得る。 The magnetically treated water tank 10 is formed inside a magnetic field vibrator 20 and is made of a material through which lines of magnetic force can pass, and includes a treated water introduction valve 13 and a treated water introduction pipe 11 provided with a pump 15 for supplying treated water 16. And a treated water discharge pipe 12 provided with a treated water discharge valve 14.
磁界振動装置２０は、磁気処理水槽１０を内部に収容して磁界を印加する空芯の磁気コイル３０と、磁気コイル３０に電力を供給するコンデンサ４０と、コンデンサ４０を充電する充電回路５０と、コンデンサ４０に充電された電力を瞬時に磁気コイル３０に放電してＬＣＲ共振による減衰振動電流を発生させ、磁気コイル３０に減衰振動磁界を形成させる放電回路６０と、を備えることが好ましい。充電回路５０は商用電源５２に接続され得る。 The magnetic field vibration device 20 includes an air-core magnetic coil 30 that accommodates the magnetic treatment water tank 10 and applies a magnetic field, a capacitor 40 that supplies power to the magnetic coil 30, a charging circuit 50 that charges the capacitor 40, It is preferable to include a discharge circuit 60 that instantaneously discharges the power charged in the capacitor 40 to the magnetic coil 30 to generate a damped oscillating current due to LCR resonance, and causes the magnetic coil 30 to form a damped oscillating magnetic field. The charging circuit 50 can be connected to a commercial power supply 52.
本発明の、磁気コイル３０は、発生する減衰振動磁界の最高ピーク強度が１．０テスラ以上の磁界を磁気処理水槽１０印加して水を磁気処理することが好ましく、最高ピーク強度が５．０テスラ以上の磁界を印加することがより好ましい。減衰振動磁界の最高ピーク強度が１．０テスラ未満では、被処理水１６に十分な強度の減衰振動磁界を印加できないことがある。減衰振動磁界の最高ピーク強度は、使用可能な磁界振動装置２０の最高ピーク強度に制限されるので、上限は設けない。 In the magnetic coil 30 of the present invention, it is preferable to apply a magnetic field having a maximum peak intensity of a damped oscillating magnetic field of 1.0 Tesla or more to the magnetic treatment water tank 10 to magnetically treat water, and to have a maximum peak intensity of 5.0. It is more preferable to apply a magnetic field of Tesla or more. If the maximum peak intensity of the damping oscillating magnetic field is less than 1.0 Tesla, a sufficiently strong damping oscillating magnetic field may not be applied to the water 16 to be treated. Since the maximum peak intensity of the damped oscillating magnetic field is limited to the maximum peak intensity of the usable magnetic field vibration device 20, no upper limit is set.
図３は、本発明の磁界振動装置の回路図である。
図３に示すように、本発明の磁界振動装置２０は、充電回路５０と放電回路６０とからなることが好ましい。
FIG. 3 is a circuit diagram of the magnetic field vibration device of the present invention.
As shown in FIG. 3, the magnetic field vibration device 20 of the present invention preferably includes a charging circuit 50 and a discharging circuit 60.
充電回路５０は、商用電源５２に一次側コイル５４ａが接続される昇圧トランス５４と、商用電源５２の一方の端子に逆並列接続されたサイリスタ素子からなる交流位相制御回路５６と、昇圧トランス５４の二次側コイル５４ｂに接続されて昇圧された交流を全波整流する両波整流回路５８と、両波整流回路５８の直流出力端子間に接続された電圧検出回路５９と、を備えている。電圧検出回路５９の両端子間にコンデンサ４０が接続され、電圧検出回路５９はコンデンサ４０の充電電圧を検出する。 The charging circuit 50 includes a step-up transformer 54 having a primary coil 54 a connected to the commercial power source 52, an AC phase control circuit 56 including a thyristor element connected in anti-parallel to one terminal of the commercial power source 52, A dual-wave rectifier circuit 58 connected to the secondary coil 54b for full-wave rectification of the boosted AC is provided, and a voltage detection circuit 59 is connected between the DC output terminals of the dual-wave rectifier circuit 58. The capacitor 40 is connected between both terminals of the voltage detection circuit 59, and the voltage detection circuit 59 detects the charging voltage of the capacitor 40.
一方、放電回路６０は、コンデンサ４０と、コンデンサ４０の両電極間に接続された磁気コイル３０と、を含む。また、放電回路６０は、複数のサイリスタスイッチ６２を含む。
On the other hand, the discharge circuit 60 includes the capacitor 40 and the magnetic coil 30 connected between both electrodes of the capacitor 40. The discharge circuit 60 includes a plurality of thyristors tasks acme switch 6 2.
図４は、本発明の磁気振動水の製造方法のプロセスブロック図である。
図４に示すように、本発明の磁気振動水の製造方法の第１段階は、磁気処理水槽１０に被処理水１６を収容する被処理水収容段階（Ｓ−１）を有する。
FIG. 4 is a process block diagram of the method for producing magnetic vibration water of the present invention.
As shown in FIG. 4, the first stage of the method for producing magnetically vibrated water of the present invention includes a to-be-treated water storage stage (S-1) in which the to-be-treated water 16 is contained in the magnetically treated water tank 10.
ここで、被処理水１６は、蒸留水、脱イオン水、及び逆浸透圧水等を含む精製水、水道水、井戸水、天然水、及びミネラルウォーター等を含む飲用水、調理用水、果汁、茶、コーヒー、紅茶、及び酒等を含む調理食品用水、皮膚処理水、頭髪処理水、洗顔液、及び香水等を含む化粧品用水、生理食塩水、注射液、及び点眼液等を含む医療用水、電解水、水素水、及び酸素水を含む機能性水、食塩水、並びに廃水の中から選ばれる１以上であることができる。 Here, the water 16 to be treated is distilled water, deionized water, purified water including reverse osmotic water, tap water, well water, natural water, drinking water including mineral water, and the like, cooking water, fruit juice, tea. , coffee, tea, and cooking food water, skin processing water containing alcohol, such as, hair treated water, cleansing solution, and an aqueous cosmetic containing the perfume and the like, saline, injection, medical water, including 及 beauty ophthalmic solution or the like, It may be at least one selected from functional water including electrolyzed water, hydrogen water, and oxygen water, saline, and wastewater.
また本実施形態は、商用電源５２から昇圧トランス５４、交流位相制御回路５６、及び両波整流回路５８を介して制御された電圧がコンデンサ４０を充電するコンデンサ充電段階（Ｓ−２）を有することができる。このとき、放電回路６０のスイッチング素子６２は全てオフとなっている。なお、被処理水収容段階とコンデンサ充電段階との順序は入れ替えることが可能である。 In addition, the present embodiment includes a capacitor charging step (S-2) in which the voltage controlled from the commercial power supply 52 via the step-up transformer 54, the AC phase control circuit 56, and the double-wave rectification circuit 58 charges the capacitor 40. Can be. At this time, all the switching elements 62 of the discharge circuit 60 are off. In addition, the order of the to-be-processed water accommodating stage and the capacitor charging stage can be interchanged.
次いで、電圧検出回路５９が、コンデンサ４０の電圧が設定電圧に達して充電が完了したことを検出すると、交流位相制御回路５６で商用電源５２とコンデンサ４０とを電気的に切り離す充電放電回路切替段階（Ｓ−３）を行う。 Next, when the voltage detection circuit 59 detects that the voltage of the capacitor 40 reaches the set voltage and the charging is completed, the AC phase control circuit 56 electrically disconnects the commercial power supply 52 and the capacitor 40 from each other. (S-3) is performed.
次いで、放電回路を制御して減衰振動磁界印加段階（Ｓ−４）を行う。
コンデンサ４０に充電された電力を磁気コイル３０に瞬時に放電すると、コンデンサ４０と磁気コイル３０とにＬＣＲ共振による減衰振動電流が発生する。
図５は、本発明に係る減衰振動磁界の磁界強度を示すグラフである。
Next, the discharge circuit is controlled to perform the damping oscillating magnetic field applying step (S-4).
When the electric power charged in the capacitor 40 is instantaneously discharged to the magnetic coil 30, a damped oscillating current is generated in the capacitor 40 and the magnetic coil 30 due to LCR resonance.
FIG. 5 is a graph showing the magnetic field strength of the damped oscillating magnetic field according to the present invention.
図５に示すような減衰振動磁界の波形や磁界強度ピーク値を所定の磁界振動装置２０で発生させて印加する方法は、磁気コイル３０及びコンデンサ４０の電磁的性質及び電圧、並びに放電回路のサイリスタスイッチの構成・操作方法等によって制御することができるが、これらは当業者の設計事項であり、また特許文献１、２にも記載されているので、詳細な説明は省略する。 The method of generating and applying a waveform of a damped oscillating magnetic field and a magnetic field strength peak value as shown in FIG. 5 by a predetermined magnetic field oscillating device 20 includes the electromagnetic properties and voltages of the magnetic coil 30 and the capacitor 40, and the thyristor of the discharge circuit. Although control can be performed by the configuration and operation method of the switch, these are design items of those skilled in the art, and are also described in Patent Documents 1 and 2, and thus detailed description is omitted.
本発明は、磁気処理水槽１０に収容された水に対する磁気処理を複数回行うことができる。
所定の回数の磁気処理が終了したら磁気処理水を取り出す磁気振動水排出段階（Ｓ−５）を有する。
According to the present invention, the magnetic treatment of the water contained in the magnetic treatment water tank 10 can be performed a plurality of times.
Magnetic Kisho sense of a predetermined number of times to fetch magnetic water treatment when finished with magnetic vibration water discharge step (S-5).
本発明の磁界振動装置２０は、高電圧の減衰振動電流を磁気コイル３０に印加するので、電気抵抗に基づく熱を発生するが、処理時間が短いので処理回数が少ない場合は特に冷却装置を必要としない。しかし、処理回数が多くなると磁界振動装置２０が加熱され、磁気コイル３０及び／又は磁気処理水槽１０が高温になる場合がある。 The magnetic field vibrating device 20 of the present invention generates heat based on electric resistance because a high-voltage damped oscillating current is applied to the magnetic coil 30. However, since the processing time is short, a cooling device is particularly necessary when the number of times of processing is small. And not. However, if the number of processing times the greater the magnetic field vibration device 20 is heated, the magnetic coil 30 and / or magnetic treatment water tank 10 may become hot.
図６は、本発明の他の実施形態に係る磁気処理水槽及び磁気コイルの断面図である。
図６に示すように、本発明の他の実施形態に係る磁界振動装置１２０は、磁気コイル１３０と磁気処理水槽１０との間に冷却手段１３１を備えることを特徴とする。冷却手段としては、磁気を透過させ発生熱を遮断できるものであれば特に制限されないが、磁気透過性の材料で形成された冷却水循環装置、又は例えば液体窒素の吹き付け装置等の冷却装置を挙げることができる。
FIG. 6 is a sectional view of a magnetic treatment water tank and a magnetic coil according to another embodiment of the present invention.
As shown in FIG. 6, a magnetic field vibration device 120 according to another embodiment of the present invention includes a cooling unit 131 between a magnetic coil 130 and a magnetically treated water tank 10. The cooling means is not particularly limited as long as it can transmit magnetism and shut off generated heat, but a cooling water circulating device formed of a magnetically permeable material, or a cooling device such as a liquid nitrogen spraying device may be used. Can be.
以下に実施例を挙げて本発明を説明する。
［実施例１］
図１に示す形式の内径１１０ｍｍ、長さ２２０ｍｍの空芯の磁気コイル３０及びコンデンサ４０を用い、内径８０ｍｍ長さ１００ｍｍの磁気処理水槽１０に収容した５００ｍＬの水道水を磁気振動処理した。
商用電源５２から、昇圧トランス５４を用いてコンデンサ４０を電圧３５００Ｖまで充電し、充電回路５０とコンデンサ４０とを電気的に切断した後、コンデンサ４０に充電された電力を、放電回路６０を用いて磁気コイル３０に瞬時に放電して振動減衰電流を発生させ、磁気コイル３０に最高ピーク強度４．４６ＭＡ／ｍ（５．６テスラ）の振動減衰磁界を印加し、振動減衰磁界が消失後、磁気処理水槽１０から被処理水１６を排出して実施例１の磁気振動水５００ｍＬを得た。
Hereinafter, the present invention will be described with reference to examples.
[Example 1]
Using an air-core magnetic coil 30 having an inner diameter of 110 mm and a length of 220 mm and a capacitor 40 of the type shown in FIG. 1, 500 mL of tap water contained in a magnetic treatment water tank 10 having an inner diameter of 80 mm and a length of 100 mm was subjected to magnetic vibration treatment.
After the capacitor 40 is charged from the commercial power supply 52 to a voltage of 3500 V using the step-up transformer 54 and the charging circuit 50 and the capacitor 40 are electrically disconnected, the electric power charged in the capacitor 40 is discharged using the discharging circuit 60. An instantaneous discharge is generated in the magnetic coil 30 to generate a vibration damping current, and a vibration damping magnetic field having a maximum peak intensity of 4.46 MA / m (5.6 Tesla) is applied to the magnetic coil 30. The water 16 to be treated was discharged from the treated water tank 10 to obtain 500 mL of the magnetic vibration water of Example 1.
［実施例２］
図１に示す形式の内径５０ｍｍ、長さ２００ｍｍの空芯の磁気コイル３０及びコンデンサ４０を用い、内径３２ｍｍ長さ１００ｍｍの磁気処理水槽１０に収容した８０ｍＬの水道水を磁気振動処理した。
商用電源５２から、昇圧トランス５４を用いてコンデンサ４０を充電し、充電回路５０とコンデンサ４０とを電気的に切断した後、コンデンサ４０に充電された電力を、放電回路６０を用いて磁気コイルに瞬時に放電して振動減衰電流を発生させ、磁気コイル３０に最高ピーク強度０．８０ＭＡ／ｍ（１．０テスラ）の振動減衰磁界を印加し、振動減衰磁界が消失後、磁気処理水槽１０から被処理水１６を排出して実施例２の磁気振動水８０ｍＬを得た。
[Example 2]
Using an air-core magnetic coil 30 having an inner diameter of 50 mm and a length of 200 mm and a condenser 40 of the type shown in FIG. 1, 80 mL of tap water stored in a magnetic treatment water tank 10 having an inner diameter of 32 mm and a length of 100 mm was subjected to magnetic vibration treatment.
After the capacitor 40 is charged from the commercial power supply 52 using the step-up transformer 54 and the charging circuit 50 and the capacitor 40 are electrically disconnected, the electric power charged in the capacitor 40 is supplied to the magnetic coil using the discharging circuit 60. Discharge instantaneously to generate a vibration damping current, apply a vibration damping magnetic field having a maximum peak intensity of 0.80 MA / m (1.0 Tesla) to the magnetic coil 30, and after the vibration damping magnetic field disappears, The water 16 to be treated was discharged to obtain 80 mL of magnetic vibration water of Example 2.
［実施例３］
図６に示す形式の内径７０ｍｍ、長さ２００ｍｍの空芯の磁気コイル１３０、コンデンサ４０、及びガラス製円筒形の冷却手段１３１を用い、内径３２ｍｍ長さ１００ｍｍの磁気処理水槽１０に収容した８０ｍＬの水道水（開始時の水温１８℃）を磁気振動処理した。
商用電源５２から、昇圧トランス５４を用いてコンデンサ４０を充電し、充電回路５０とコンデンサ４０とを電気的に切断した後、コンデンサ４０に充電された電力を、放電回路６０を用いて磁気コイル１３０に瞬時に放電して振動減衰電流を発生させ、磁気コイル１３０に最高ピーク強度０．８０ＭＡ／ｍ（１．０テスラ）の振動減衰磁界を印加し、振動減衰磁界が消失後、コンデンサ４０に再充電及び磁気コイルに再放電する操作を１０分間隔で合計１０回繰り返したのち、磁気処理水槽１０から被処理水１６を排出して実施例３の磁気振動水８０ｍＬを得た。処理終了直後の実施例３の磁気振動水の温度は２８℃であった。
実施例３で得た磁気振動水は、官能検査で、実施例１で得た磁気振動水と同程度の味を有することが示された。
[Example 3]
Used form of internal diameter 70mm shown in FIG. 6, the magnetic coil 1 30 for air core length 200 mm, a capacitor 40, and a cooling means 131 of the glass cylinder and housed in the magnetic treatment water tank 10 having an inner diameter of 32mm length 100 mm 80 mL Tap water (water temperature at the start: 18 ° C.) was subjected to magnetic vibration treatment.
After the capacitor 40 is charged from the commercial power source 52 using the step-up transformer 54 and the charging circuit 50 and the capacitor 40 are electrically disconnected, the electric power charged in the capacitor 40 is transferred to the magnetic coil 130 using the discharging circuit 60. after instant discharged by generating vibration damping current, by applying a vibration damping magnetic field of the highest peak intensity 0.80MA / m (1.0 Tesla) in the magnetic coil 1 30, the vibration damping magnetic field disappears, the capacitor 40 After the operation of recharging and re-discharging the magnetic coil was repeated 10 times at 10-minute intervals, the water 16 to be treated was discharged from the magnetically treated water tank 10 to obtain 80 mL of magnetically vibrated water of Example 3. The temperature of the magnetic vibration water of Example 3 immediately after the completion of the treatment was 28 ° C.
The sensory test showed that the magnetic vibration water obtained in Example 3 had the same taste as the magnetic vibration water obtained in Example 1.
［比較例１］
実施例２と同様に、図１に示す形式の内径５０ｍｍ、長さ２００ｍｍの空芯の磁気コイル３０及びコンデンサ４０を用い、内径３２ｍｍ長さ１００ｍｍの磁気処理水槽１０に収容した８０ｍＬの水道水を磁気振動処理し、但し、振動減衰磁気コイル３０に印加する振動減衰磁気の最高ピーク強度を０．４０ＭＡ／ｍ（０．５テスラ）にして比較例１の磁気振動水を得た。
[Comparative Example 1]
As in Example 2, 80 mL of tap water stored in a magnetic treatment water tank 10 having an inner diameter of 32 mm and a length of 100 mm using an air-core magnetic coil 30 and a condenser 40 having an inner diameter of 50 mm and a length of 200 mm of the type shown in FIG. Was subjected to a magnetic vibration treatment, except that the maximum peak intensity of the vibration damping magnetism applied to the vibration damping magnetic coil 30 was 0.40 MA / m (0.5 Tesla) to obtain a magnetic vibration water of Comparative Example 1.
［比較例２］
実施例２と同様に、図１に示す形式の内径５０ｍｍ、長さ２００ｍｍの空芯の磁気コイル３０及びコンデンサ４０を用い、内径３２ｍｍ長さ１００ｍｍの磁気処理水槽１０に収容した８０ｍＬの水道水を、最高ピーク強度０．８０ＭＡ／ｍ（１．０テスラ）の振動減衰磁界を用いて磁気振動処理し、次いで振動減衰磁界が消失後、コンデンサ４０に再充電及び磁気コイルに再放電する操作を１０分間隔で７回繰り返したところ、磁気処理水槽１０の被処理水１６の温度が８５℃になったので操作を中止し、磁気処理水槽１０から被処理水１６を排出して比較例２の磁気振動水８０ｍＬを得た。
比較例２の磁気振動水を１５℃まで冷却して官能検査を行ったが、比較例２の磁気振動水の味は、実施例２の磁気振動水の味よりも劣った。
[Comparative Example 2]
In the same manner as in Example 2, 80 mL of tap water contained in a magnetic treatment water tank 10 having an inner diameter of 32 mm and a length of 100 mm using an air-core magnetic coil 30 and a condenser 40 having an inner diameter of 50 mm and a length of 200 mm of the type shown in FIG. Magnetic vibration processing is performed using a vibration damping magnetic field having a maximum peak intensity of 0.80 MA / m (1.0 Tesla), and then, after the vibration damping magnetic field has disappeared, an operation of recharging the capacitor 40 and discharging the magnetic coil again is performed. When the process was repeated seven times at minute intervals, the temperature of the water 16 to be treated in the magnetically treated water tank 10 reached 85 ° C., and the operation was stopped. 80 mL of vibration water was obtained.
The magnetically oscillated water of Comparative Example 2 was cooled to 15 ° C. and subjected to a sensory test. The taste of the magnetically oscillated water of Comparative Example 2 was inferior to the taste of the magnetically oscillated water of Example 2.
（官能検査）
実施例１と実施例２、実施例２と比較例１、及び比較例１と水道水とを官能検査によって比較した。
＜試験方法＞
試験する水の温度を１５℃にして、２０人のパネラー（女性１２名、男性８名）に水の種類を知らせずに提示し、どちらの水がおいしいか、又は同じであるかを飲み比べてもらった。
＜判定基準＞
同じである（分からない）と答えたパネラーの数が１０名以下であって、一方の磁気振動水を選択したパネラー数が他方の磁気振動水を選択したパネラー数の２倍以上である場合に一方の磁気振動水の方がおいしいと判定し、この条件を満たさない場合は両方の磁気振動水の官能評価には差がないと判定した。
(sensory test)
Example 1 and Example 2, Example 2 and Comparative Example 1, and Comparative Example 1 and tap water were compared by a sensory test.
<Test method>
The temperature of the test water in the 15 ℃, 20 panelists (12 females, 8 males) presented without informing the type of water in, compared to drink either water or delicious, or whether the same I got it.
<Judgment criteria>
When the number of panelists who answered that they are the same (I do not know) is 10 or less, and the number of panelists who selected one magnetically oscillating water is more than twice the number of panelists who selected the other magnetically oscillating water One magnetic vibrating water was judged to be more delicious, and when this condition was not satisfied, it was judged that there was no difference between the sensory evaluations of both magnetic vibrating waters.
＜結果＞
実施例１の磁気振動水と実施例２の磁気振動水の比較
９名のパネラーが実施例１の磁気振動水のほうがおいしいと答え、３名のパネラーが実施例２の磁気振動水のほうがおいしいと答え残りの８名がわからないと答えた。従って、実施例１の磁気振動水の方がおいしいと判定した。
実施例２の磁気振動水と比較例１の磁気振動水との比較
１２名のパネラーが実施例２の磁気振動水の方がおいしいと答え、２名のパネラーが比較例１の磁気振動水の方がおいしいと答えた。従って、実施例２の磁気振動水の方が比較例１の磁気振動水よりおいしいと判定した。
実施例２の磁気振動水と水道水との比較
５名のパネラーが実施例２の磁気振動水の方がおいしいと答え、３名のパネラーが水道水の方がおいしいと答えた。従って、実施例２の磁気振動水の味と水道水の味とに有意な差はないと判定した。
<Result>
Comparison of Magnetic Vibration Water of Example 1 and Magnetic Vibration Water of Example 2 Nine panelists answered that the magnetic vibration water of Example 1 was more delicious, and three panelists preferred the magnetic vibration water of Example 2 He answered that he did not know the remaining eight people. Therefore, it was determined that the magnetic vibration water of Example 1 was more delicious.
Comparison of Magnetic Vibration Water of Example 2 with Magnetic Vibration Water of Comparative Example 1 Twelve panelists answered that the magnetic vibration water of Example 2 was more delicious, and two panelists answered that the magnetic vibration water of Comparative Example 1 was good. He said that it was better. Therefore, it was determined that the magnetic vibration water of Example 2 was more delicious than the magnetic vibration water of Comparative Example 1 .
Comparison of Magnetic Vibration Water of Example 2 and Tap Water Five panelists answered that the magnetic vibration water of Example 2 was more delicious, and three panelists answered that tap water was more delicious. Therefore, it was determined that there was no significant difference between the taste of the magnetic vibration water of Example 2 and the taste of tap water.
実施例１の磁気コイル３０に最高ピーク強度４．４６ＭＡ／ｍ（５．６テスラ）の振動減衰磁界を印加した磁気振動水と、実施例２の最高ピーク強度０．８０ＭＡ／ｍ（１．０テスラ）の振動減衰磁界を印加した磁気振動水は、官能検査では実施例１の磁気振動水の方が（大差はないが）おいしいと判定され、実施例２の磁気振動水と、比較例１の最高ピーク強度０．４０ＭＡ／ｍ（０．５テスラ）の振動減衰磁界を印加した磁気振動水では、実施例２の磁気振動水の方がおいしいと判定され、比較例１の磁気振動水の味と水道水の味とは官能試験で有意な差がないと判定された。従って、本発明は、磁気コイル３０に印加する振動減衰磁界の最高ピーク強度は、１．０テスラ（０．８０ＭＡ／ｍ）以上であると制限する。 Magnetic vibration water in which a vibration damping magnetic field having a maximum peak intensity of 4.46 MA / m (5.6 Tesla) is applied to the magnetic coil 30 of the first embodiment, and a magnetic peak water of 0.80 MA / m (1.0 The magnetic vibration water to which the vibration damping magnetic field of (Tesla) was applied was judged by the sensory test that the magnetic vibration water of Example 1 was more delicious (although there is no great difference), and the magnetic vibration water of Example 2 and Comparative Example 1 In the case of the magnetically vibrated water to which a vibration damping magnetic field having a maximum peak intensity of 0.40 MA / m (0.5 Tesla) was applied, the magnetically vibrated water of Example 2 was determined to be more delicious, and the magnetically vibrated water of Comparative Example 1 was determined. The taste and the taste of tap water were determined to have no significant difference in the sensory test. Therefore, the present invention limits the maximum peak intensity of the vibration damping magnetic field applied to the magnetic coil 30 to be 1.0 Tesla (0.80 MA / m) or more.
（浸透性試験）
［実施例４］
図７は、本発明の磁気振動水及び水道水に野菊を活けて、野菊が枯れるまでを観察した図である。
図７ａに示すように、実施例１で得た磁気振動水２００ｍＬに３ｇの食塩を溶解して実施例４とし、磁気振動水の製造に用いた水道水２００ｍＬに３ｇの食塩を溶解して比較例３とし、野菊の花を切り花として活け、実施例１の食塩水及び水道水の食塩水を毎日交換して観察した。
図７ｂに示すように、試験開始後１６日目に、比較例３の塩水に活けた野菊の花は枯れたが、実施例４の、実施例１の磁気振動水の塩水に活けた野菊の花は元気であった。
図７ｃに示すように、３６日目に実施例４の、試験例の振動水に活けた野菊の花が枯れた。
(Permeability test)
[Example 4 ]
FIG. 7 is a diagram in which wild chrysanthemums are utilized in the magnetic vibration water and tap water of the present invention, and the wild chrysanthemums are observed until they die.
As shown in FIG. 7a, 3 g of sodium chloride was dissolved in 200 mL of magnetic vibration water obtained in Example 1 to obtain Example 4, and 3 g of sodium chloride was dissolved in 200 mL of tap water used for production of magnetic vibration water. In Example 3, wild chrysanthemum flowers were used as cut flowers, and the saline of Example 1 and the saline of tap water were exchanged daily and observed.
As shown in FIG. 7b, on the 16th day after the start of the test, the wild chrysanthemum flowers used in the salt water of Comparative Example 3 withered, but the wild chrysanthemum flowers used in the salt water of the magnetically oscillating water of Example 1 of Example 4 died. The flowers were fine.
As shown in FIG. 7c, the wild chrysanthemum flower used in the vibration water of the test example of Example 4 died on the 36th day.
切花を活ける場合、切り花を長持ちさせるには、切り口からの水の吸い上げ重要であると言われている。実施例１の磁気振動水は、強力な振動減衰磁界を印加されて水分子同士の水素結合が弱められているので、水が切り花の切り口から容易に浸透して野菊の切花を長持ちさせたものと考えられる。 When cutting flowers are used, it is said that it is important to suck water from the cut to make the cut flowers last longer. The magnetically vibrating water of Example 1 was obtained by applying a strong vibration damping magnetic field to weaken the hydrogen bonds between water molecules, so that water easily penetrated from the cut ends of cut flowers to extend the cut flowers of wild chrysanthemum. it is conceivable that.
（発芽試験）
＜測定方法＞
［実施例５］
ガラス製シャーレの上にろ紙を２枚重ねて置き、実施例１で製造した磁気振動水を滴下して全面を湿らせ、その上に種子１００個を重なり合わないように並べて置き、シャーレの蓋をして所定の温度の低温器に入れる。試験中ろ紙が乾燥しないように磁気振動水を補給しながら毎日観察して、発芽した種子を取り除き、残った種子の数から発芽率を計算した。
発芽率（％）＝発芽した種子の個数／播種した種子の個数×１００
［比較例４］
実施例５と同じ方法で、但し実施例１で製造した磁気振動水の代わりに水道水を用いて発芽試験を行った。
(Germination test)
<Measurement method>
[Example 5 ]
Two sheets of filter paper are placed on a glass Petri dish, and the whole surface is moistened by dripping the magnetic vibration water produced in Example 1, and 100 seeds are placed on the Petri dish so that they do not overlap. And put it in a chiller at the specified temperature. During the test, observation was made daily while replenishing magnetic vibrating water so as not to dry the filter paper, germinated seeds were removed, and the germination rate was calculated from the number of remaining seeds.
Germination rate (%) = Number of germinated seeds / Number of sown seeds × 100
[Comparative Example 4 ]
A germination test was performed in the same manner as in Example 5 , except that tap water was used instead of the magnetically oscillating water produced in Example 1.
（２）結果
発芽試験の結果を表１に示す。
表１に示すように、実施例５の、実施例１で製造した磁気振動水を用いることで、比較例４の水道水を用いた場合よりも、いずれの種子も発芽率が向上した。
種子は、適当な温度で適当な水分が与えられると発芽するが、実施例１で製造した磁気振動水は強力な振動減衰磁界を印加されて水分子同士の水素結合が弱められているので、磁気振動水は種子に素早く浸透して発芽率を向上させたものと考えられる。
As shown in Table 1, the germination rate of all the seeds was improved by using the magnetic vibration water manufactured in Example 1 in Example 5 as compared with the case of using the tap water in Comparative Example 4 .
Seeds germinate when given moisture at an appropriate temperature, but the magnetic vibration water produced in Example 1 is subjected to a strong vibration damping magnetic field to weaken hydrogen bonds between water molecules. It is considered that the magnetically oscillating water quickly penetrated the seeds and improved the germination rate.
以上、本発明に関する好ましい実施形態を説明したが、本発明は前記実施形態に限定されず、本発明の属する技術範囲を逸脱しない範囲での全ての変更が含まれる。 As described above, the preferred embodiments of the present invention have been described. However, the present invention is not limited to the above-described embodiments, and includes all modifications without departing from the technical scope to which the present invention belongs.
１ 磁気振動水製造装置
５ 磁気振動水
１０ 磁気処理水槽
１１ 被処理水導入管
１２ 被処理水排出管
１３ 被処理水導入弁
１４ 被処理水排出弁
１５ ポンプ
１６ 被処理水
２０、１２０ 磁界振動装置
３０、１３０磁気コイル
４０ コンデンサ
５０ 充電回路
５２ 商用電源
５４ 昇圧トランス
５４ａ 一次側コイル
５４ｂ 二次側コイル
５６ 交流位相制御回路
５８ 両波整流回路
５９ 電圧検出回路
６０ 放電回路
６２ サイリスタスイッチ
１３１ 冷却手段
DESCRIPTION OF SYMBOLS 1 Magnetic vibration water manufacturing apparatus 5 Magnetic vibration water 10 Magnetic treatment water tank 11 Treatment water introduction pipe 12 Treatment water discharge pipe 13 Treatment water introduction valve 14 Treatment water discharge valve 15 Pump 16 Treatment water 20, 120 Magnetic field vibration device 30, 130 Magnetic coil 40 Capacitor 50 Charging circuit 52 Commercial power supply 54 Boost transformer 54a Primary coil 54b Secondary coil 56 AC phase control circuit 58 Double-wave rectifier circuit 59 Voltage detection circuit 60 Discharge circuit 62 Thyristor switch 131 Cooling means
Claims (4)
前記磁気処理水槽に前記被処理水を供給する段階と、
前記磁気コイルに接続したコンデンサを充電する段階と、
前記コンデンサに充電された電力を逆並列接続されたサイリスタスイッチを有する放電回路を用いて前記磁気コイルに放電し、ＬＣＲ共振による減衰振動電流を発生させて、前記磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成して前記被処理水に印加する段階と、
によって磁気振動水を製造することを特徴とする磁気振動水製造方法。 Housing a magnetically treated water tank for magnetically treating the water to be treated in an air-core magnetic coil;
Supplying the water to be treated to the magnetically treated water tank;
Charging a capacitor connected to the magnetic coil;
The power charged in the capacitor is discharged to the magnetic coil using a discharge circuit having a thyristor switch connected in anti-parallel to generate an attenuated oscillating current due to LCR resonance . Forming a damped oscillating magnetic field of 0 Tesla or more and applying the same to the water to be treated;
A method for producing magnetic vibration water, comprising producing magnetic vibration water by the method.
前記磁気処理水槽を内部に収容する空芯の磁気コイルと、前記磁気コイルに電力を供給するコンデンサと、前記コンデンサを充電する充電回路と、逆並列接続されたサイリスタスイッチを有し前記コンデンサに充電された電力を前記磁気コイルに放電する放電回路と、を含む磁界振動装置と、
を備え、
前記放電回路は、前記コンデンサの電力を前記磁気コイルに放電するとき、ＬＣＲ共振による減衰振動電流により前記磁気コイルに最高ピーク強度が１．０テスラ以上の減衰振動磁界を形成することを特徴とする磁気振動水製造装置。
A magnetically treated water tank for magnetically treating the water to be treated,
An air-core magnetic coil accommodating the magnetic treatment water tank therein, a capacitor for supplying power to the magnetic coil, a charging circuit for charging the capacitor, and a thyristor switch connected in anti-parallel to charge the capacitor A discharge circuit that discharges the generated power to the magnetic coil, and a magnetic field vibration device including:
With
The discharging circuit forms a damped oscillating magnetic field having a maximum peak intensity of 1.0 Tesla or more in the magnetic coil by an oscillating current caused by LCR resonance when discharging the power of the capacitor to the magnetic coil. Magnetic vibration water production equipment.
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