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JP4511204B2 - Reduced water generator - Google Patents
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JP4511204B2 - Reduced water generator - Google Patents

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JP4511204B2
JP4511204B2 JP2004019017A JP2004019017A JP4511204B2 JP 4511204 B2 JP4511204 B2 JP 4511204B2 JP 2004019017 A JP2004019017 A JP 2004019017A JP 2004019017 A JP2004019017 A JP 2004019017A JP 4511204 B2 JP4511204 B2 JP 4511204B2
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electrode
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reduced water
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diode
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JP2005211725A (en
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晧三郎 松澤
寛司 森岡
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セパレ−タ−システム工業株式会社
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Description

本発明は、酸化還元電位の低い還元水を生成せしめる還元水の生成装置に関する。   The present invention relates to a reduced water generator that generates reduced water having a low oxidation-reduction potential.

日常飲用している水道水には、殺菌のために添加されている塩素のために水の味を悪くし、さらには残留塩素と水中の有機物とが化合してトリハロメタン等の人体にとっては好ましくない物質が生成される可能性があり、かかる観点からも健康によい水の改質が要望されている。   The tap water used for daily drinking deteriorates the taste of water due to chlorine added for sterilization, and further, residual chlorine and organic substances in the water combine to be unfavorable for the human body such as trihalomethane. There is a possibility that a substance is generated, and from this point of view, there is a demand for reforming water with good health.

ところで、かかる水を改質せしめるものとして、特開平5−228474号公報、特開平5−228475号公報、及び特開平6−254567号公報には還元水を生成せしめる方法が開示されている。そして、かかる方法は、所要の電解槽内に第1電極と第2電極と第3電極とを各々配設し、上記第1・第2電極には交流電源より高周波発振器等を介して高周波の交流電圧を印加せしめると共に、第3電極を接地せしめつつ第1・第2電極と第3電極との間の水に直流電流を流し、電解槽内の水を電気分解して酸化還元電位の低い還元水を生成せしめるものとされている。このさい、酸化還元電位を低下せしめる理由については、第1・第2電極に交流電圧を印加せしめることにより第1電極と第2電極とにおいては金属イオンの溶出と酸素ガスの発生が生起し、他方、第3電極においては水素ガスの発生が生起し、上記反応によって発生した水素ガスは過飽和に液中に溶けこむ結果、酸化体である酸素に比べて還元体である水素及び水素ガスが増加して酸化還元電位を低下せしめるものと推測される。
特開平5−228474号公報 特開平5−228475号公報 特開平6−254567号公報
By the way, as a method for reforming such water, JP-A-5-228474, JP-A-5-228475, and JP-A-6-254567 disclose methods for producing reduced water. In such a method, a first electrode, a second electrode, and a third electrode are respectively disposed in a required electrolytic cell, and a high frequency is supplied to the first and second electrodes from an AC power source via a high frequency oscillator or the like. While applying an alternating voltage, a direct current is passed through the water between the first and second electrodes and the third electrode while the third electrode is grounded, and the water in the electrolytic cell is electrolyzed to have a low redox potential. It is supposed to produce reduced water. At this time, the reason for lowering the oxidation-reduction potential is that by applying an AC voltage to the first and second electrodes, elution of metal ions and generation of oxygen gas occur in the first and second electrodes, On the other hand, the generation of hydrogen gas occurs in the third electrode, and the hydrogen gas generated by the above reaction dissolves into the liquid in a supersaturated state, resulting in an increase in hydrogen and hydrogen gas as a reductant compared to oxygen as an oxidant. Thus, it is presumed that the redox potential is lowered.
JP-A-5-228474 JP-A-5-228475 JP-A-6-254567

ところで、上述の如く構成された従来例は、酸化還元電位の低い還元水を確実に生成せしめることが出来る反面、第1電極及び第2電極には商用交流電源を直接使用することなく高周波発振器等を介して高周波の交流電圧に変換して印加せしめるものであるから、構成が複雑となり、その製作が面倒で手間がかかるのみならず、コスト高となりやすいものである。   By the way, the conventional example configured as described above can surely generate reduced water having a low oxidation-reduction potential, but the first electrode and the second electrode do not directly use a commercial AC power source, and so on. Therefore, the structure is complicated and the production is troublesome and time-consuming, and the cost tends to be high.

本発明は従来の問題点を解決し、商用交流電源を直接使用して酸化還元電位の低い還元水を迅速、かつ、確実に能率よく生成せしめることが出来るのみならず、極めてシンプルに構成された還元水の生成装置を安価に提供しようとするものである。   The present invention solves the conventional problems, and not only can a commercial AC power supply be used directly, but can produce reduced water with a low redox potential quickly and reliably and efficiently, and has a very simple structure. The present invention intends to provide a reduced water generator at low cost.

上記の目的を達成するため、請求項1記載の発明は、所要の電解槽内に第1電極と第2電極とが配設されると共に、該第1・第2電極間に第3電極が介装され、第1・第2電極は交流電源に接続された交流電源線の一方に分岐線を介して各々接続され、他方、第3電極は交流を直流に変換せしめるべくダイオ−ドを介して同他方の交流電源線に接続されてなり、上記第1・第2電極に交流電源を介して交流を印加せしめると共に、第3電極にダイオ−ドを介して直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を生成せしめるべく構成されてなることを特徴とする、還元水の生成装置を要旨とするものである。   In order to achieve the above object, according to a first aspect of the present invention, a first electrode and a second electrode are disposed in a required electrolytic cell, and a third electrode is provided between the first and second electrodes. The first and second electrodes are connected to one of the AC power lines connected to the AC power source via a branch line, respectively, while the third electrode is connected via a diode to convert AC to DC. Connected to the other AC power supply line, and an alternating current is applied to the first and second electrodes via the alternating current power supply, and a direct current is applied to the third electrode via the diode. The gist of the apparatus for producing reduced water is that it is configured to electrolyze the water to produce reduced water having a low oxidation-reduction potential.

請求項2記載の発明は、所要の電解槽内に第1電極・第2電極と第4電極・第5電極とが各々配設され、該第1・第2電極間には第3電極が、第4・第5電極間には第6電極が各々介装され、第1・第2電極は交流電源に接続された交流電源線の一方に分岐線を介して接続されると共に、第4・第5電極は同他方の交流電源線に分岐線を介して接続され、かつ、第3・第6電極は交流を直流に変換せしめるべく一対の交流電源線に各々ダイオ−ドを介在せしめた分岐線でもって接続されてなり、上記第1・第2・第4・第5電極に交流電源を介して交流を印加せしめると共に、第3・第6電極にダイオ−ドを介して直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を生成せしめるべく構成されてなることを特徴とする、還元水の生成装置を要旨とするものである。 According to the second aspect of the present invention, the first electrode, the second electrode, the fourth electrode, and the fifth electrode are respectively disposed in the required electrolytic cell, and the third electrode is interposed between the first and second electrodes. The sixth electrode is interposed between the fourth and fifth electrodes, and the first and second electrodes are connected to one of the AC power supply lines connected to the AC power supply via a branch line, and the fourth electrode The fifth electrode is connected to the other AC power supply line via a branch line, and the third and sixth electrodes are each provided with a diode in a pair of AC power supply lines to convert AC to DC. Connected by a branch line, the first, second, fourth, and fifth electrodes are applied with an alternating current through an alternating current power source, and a direct current is applied to the third and sixth electrodes through a diode. It is characterized in that it is configured to electrolyze the water in the electrolytic cell to produce reduced water having a low redox potential. , It is an gist apparatus for generating a reduced water.

請求項3記載の発明は、請求項2記載の還元水の生成装置において、第3電極と第6電極とは一対の交流電源線にダイオ−ドよりなるブリッジ回路を介して接続された分岐線でもって接続されると共に、ブリッジ回路と分岐線との間には直流を正負極に切換自在な切換スイッチが介在されてなることを特徴とする、還元水の生成装置を要旨とするものである。 According to a third aspect of the invention, the apparatus for generating reduced water according to claim 2, and the third electrode and the sixth electrode diode to a pair of AC power lines - connected via a bridge circuits made of de branch Rutotomoni connected with a line, characterized in that the switching freely changeover switch direct current to positive and negative electrodes is interposed between the bridge circuit and the branch line, in which the gist of the generator of reduced water is there.

請求項4記載の発明は、酸化還元電位を低下せしめるべく電極が金属材より形成されてなることを特徴とする、請求項1〜3記載の還元水の生成装置を要旨とするものである。 The invention as set forth in claim 4 is characterized in that the electrode is formed of a metal material so as to lower the oxidation-reduction potential, and the reducing water generator according to claims 1 to 3 is summarized.

請求項1記載の発明は上述のように構成されているから、第1電極及び第2電極に交流電源を介して交流を印加せしめると共に、第3電極にダイオ−ドを介して直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を迅速、かつ、確実に能率よく生成せしめることが出来る。そして、特に本発明は、従来例のように高周波発振器等を使用することなく、単にダイオ−ドを介して第3電極に直流電流を簡単に印加せしめることが出来るものであって、ひいては、極めてシンプルに構成することが出来るのみならず
、安価に提供することが出来るものである。
Since the invention according to claim 1 is configured as described above, an alternating current is applied to the first electrode and the second electrode via an alternating current power source, and a direct current is applied to the third electrode via a diode. The water in the electrolytic cell can be electrolyzed and reduced water having a low redox potential can be generated quickly and reliably and efficiently. And especially this invention can apply a direct current to a 3rd electrode simply through a diode, without using a high frequency oscillator etc. like a prior art example. Not only can it be configured simply, but it can also be provided at a low cost.

請求項2記載の発明は上述のように構成されているから、第1・第2・第4・第5電極に一対の交流電源を介して交流を印加せしめると共に、第3・第6電極に各々ダイオ−ドを介し直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を迅速
、かつ、確実に能率よく生成せしめることが出来る。そして、特に本発明は、従来例のように高周波発振器などを使用することなく、単にダイオ−ドを介して直流電流を第3・第6電極に印加せしめることが出来るものであって、ひいては、多数の電極を極めてシンプルに構成することが出来るのみならず、安価に提供することが出来るものである。
Since the invention described in claim 2 is configured as described above, an alternating current is applied to the first, second, fourth, and fifth electrodes via a pair of alternating current power supplies, and the third and sixth electrodes are applied. A direct current is applied via each diode to electrolyze the water in the electrolytic cell, so that reduced water having a low oxidation-reduction potential can be generated quickly and reliably and efficiently. In particular, the present invention allows a direct current to be applied to the third and sixth electrodes through a diode without using a high-frequency oscillator or the like as in the conventional example. In addition to being able to configure a large number of electrodes very simply, they can be provided at low cost.

請求項3記載の発明は上述のように構成されているから、前記請求項2記載の発明と同様の効果を奏することが出来るのみならず、切換スイッチを介して直流を適宜正負極に各々切換えて電極のクリ−ニングを確実に行わしめ、常に生成装置を適正な状態下でもって
使用に供することが出来るものである。
Since the invention described in claim 3 is configured as described above, not only can the same effect as that of the invention described in claim 2 be provided, but also the direct current can be appropriately switched to the positive and negative electrodes via a changeover switch. Thus, the electrode can be surely cleaned, and the generator can always be used under proper conditions.

請求項4記載の発明は上述のように構成されているから、電気分解の反応が安定し、かつ、効率よく反応を行わしめることが出来るものである。   Since the invention according to claim 4 is configured as described above, the electrolysis reaction is stable and the reaction can be performed efficiently.

以下に、本発明を実施するための最良の形態を図面に示す一実施例に基づいて説明する
The best mode for carrying out the present invention will be described below based on an embodiment shown in the drawings.

図1は本発明の一実施例を示すもので、同図中、1は100V商用交流電源、2a・2bは該交流電源1に接続された一対の交流電源線、3は交流電圧を12〜24Vに降圧せしめるべく該一対の交流電源線2a・2b間に介装されたトランス、4・5は一方の交流電源線2aに分岐線6a・6bを介して接続された金属製の第1電極と第2電極、7は交流を直流に変換せしめるべくダイオ−ド8を介して他方の交流電源線2bに接続された金属製の第3電極である。そして、上記第1・第2電極4・5は所要の電解槽9内に所定間隔をおいて並列状に配設されると共に、第3電極7は該第1・第2電極4・5内に等間隔をおいて並列状に介装されている。なお、上記第1・第2・第3電極4・5・7は方形板状や方形網状に形成されると共に、酸化還元電位を低下せしめる金属材、例えば、鉄、銅
、ステンレス、チタン、白金、金、イリジウム、パラジウムなどの金属材により形成するものとされている。その他、10は水道水など所要の水を示す。
FIG. 1 shows an embodiment of the present invention. In the figure, 1 is a 100V commercial AC power source, 2a and 2b are a pair of AC power lines connected to the AC power source 1, and 3 is an AC voltage 12-12. A transformer interposed between the pair of AC power supply lines 2a and 2b to reduce the voltage to 24V, 4 and 5 are metal first electrodes connected to one AC power supply line 2a via branch lines 6a and 6b. The second electrode 7 is a metal third electrode connected to the other AC power supply line 2b via a diode 8 so as to convert AC to DC. The first and second electrodes 4 and 5 are arranged in parallel in the required electrolytic cell 9 at a predetermined interval, and the third electrode 7 is disposed in the first and second electrodes 4 and 5. Are arranged in parallel at regular intervals. The first, second, and third electrodes 4, 5, and 7 are formed in a rectangular plate shape or a rectangular mesh shape, and a metal material that reduces the oxidation-reduction potential, such as iron, copper, stainless steel, titanium, and platinum. , Gold, iridium, palladium and other metal materials. In addition, 10 indicates required water such as tap water.

次に、上述の如く構成された実施例の作動について説明する。
先ず、電解槽9内に水道水など所要の水10を投入せしめる。しかるのち、トランス3により降圧せしめた交流を交流電源線2a・分岐線6a・6bを介して各々第1・第2電極4・5に印加せしめると共に、降圧せしめた交流を他方の交流電源線2bよりダイオ−ド8でもって直流に変換せしめつつ第3電極7に印加せしめ、電解槽9内の水10に直流を流して電気分解せしめる。すると、第1・第2電極4・5に交流電流を印加せしめることにより第1電極4と第2電極5とにおいては金属イオンの溶出と酸素ガスの発生が生起し、他方、第3電極7においては水素ガスの発生が生起し、上記反応により発生した水素ガスは過飽和に水10中に溶けこむ。このため、酸化体である酸素に比べて還元体である水素及び水素ガスが増加し、酸化還元電位の低い還元水を生成せしめるものと推測される
。このさい、従来例のように商用交流を高周波発振器などにより高周波交流に変換せしめることなく、単にダイオ−ド8でもって簡単に直流電流を第3電極7に印加せしめることが出来るため、極めてシンプルに構成することが出来るのみならず、安価に提供しうるものである。また、第1・第2・第3電極4・5・7は各々酸化還元電位を低下せしめる金属材により形成されているから、電気分解の反応が非常に安定するのみならず、効率よく反応を行わしめることが出来るものである。
Next, the operation of the embodiment configured as described above will be described.
First, required water 10 such as tap water is put into the electrolytic cell 9. Thereafter, the alternating current lowered by the transformer 3 is applied to the first and second electrodes 4 and 5 through the alternating current power supply line 2a and the branch lines 6a and 6b, respectively, and the reduced alternating current is applied to the other alternating current power supply line 2b. Further, it is applied to the third electrode 7 while being converted to direct current by the diode 8, and direct current is passed through the water 10 in the electrolytic cell 9 to cause electrolysis. Then, by applying an alternating current to the first and second electrodes 4 and 5, elution of metal ions and generation of oxygen gas occur in the first electrode 4 and the second electrode 5, while the third electrode 7 In this case, hydrogen gas is generated, and the hydrogen gas generated by the above reaction dissolves in the water 10 in a supersaturated manner. For this reason, it is presumed that hydrogen and hydrogen gas which are reductants increase compared to oxygen which is an oxidant, and reduced water having a low redox potential is generated. At this time, the direct current can be simply applied to the third electrode 7 with the diode 8 without converting the commercial alternating current into the high frequency alternating current with a high frequency oscillator or the like as in the conventional example, so that it is extremely simple. Not only can it be configured, it can also be provided at low cost. In addition, since the first, second, and third electrodes 4, 5, and 7 are each formed of a metal material that lowers the oxidation-reduction potential, the electrolysis reaction is not only very stable, but also the reaction efficiently. It can be done.

そして、生成せしめた還元水は、酸化還元電位が低いため、水自体の電子結合が強くなって他の物質を酸化させにくく、ひいては、生体反応に良いものである。即ち、水中に化学反応性の強い不対電子をもつ物質(以下、不対電子物質という)が多く存在すると酸化電位が高く、刺激性の強い水となるが、酸化還元電位の低い還元水は水10の電気分解によって発生する不対電子物質である水素が他の不対電子物質と結合することにより対電子をもつ安定性の高い対電子結合状態に変化させると共に、水素の過飽和状態を維持する。特に、水10が水道水である場合には、塩素による効果を維持せしめつつ塩素臭を除去せしめると共に、トリハロメタン等の生成を有効に防止せしめることが出来るものである。   The generated reduced water has a low oxidation-reduction potential, so that the electronic bond of the water itself is strong and it is difficult to oxidize other substances, which is good for biological reaction. That is, if there are many substances with unpaired electrons with strong chemical reactivity in water (hereinafter referred to as unpaired electron substances), the oxidation potential is high and the water is highly irritating, but the reduced water with a low oxidation-reduction potential is Hydrogen, which is an unpaired electron substance generated by electrolysis of water 10, is combined with another unpaired electron substance to change to a highly stable paired electron-bonded state with a counter-electron and to maintain a hydrogen supersaturated state. To do. In particular, when the water 10 is tap water, the chlorine odor can be removed while maintaining the effect of chlorine, and the production of trihalomethane and the like can be effectively prevented.

図2は本願の他の発明の一実施例を示すもので、一対の交流電源線2a・2bが各々分岐線6a・6b・11a・11bを介して分岐され、該分岐線6a・6b・11a・11bには第1・第2電極4・5と第4・第5電極12・13とが各々接続されると共に、一対の交流電源線2a・2bに各々ダイオ−ド8が介在された分岐線14a・14bを介して第3・第6電極7・15が接続され、かつ、該第3・第6電極7・15は各々第1・第2電極4・5と第4・第5電極12・13間に介装された点が前記実施例と相違し、他の部分は同一であり、同一符号は同一部分を示す。   FIG. 2 shows another embodiment of the present invention. A pair of AC power supply lines 2a and 2b are branched through branch lines 6a, 6b, 11a, and 11b, respectively, and the branch lines 6a, 6b, and 11a are branched. The first and second electrodes 4 and 5 and the fourth and fifth electrodes 12 and 13 are connected to 11b, and the diode 8 is interposed between the pair of AC power supply lines 2a and 2b. The third and sixth electrodes 7 and 15 are connected via the lines 14a and 14b, and the third and sixth electrodes 7 and 15 are respectively connected to the first and second electrodes 4 and 5 and the fourth and fifth electrodes. The point interposed between 12 and 13 is different from the above embodiment, the other parts are the same, and the same reference numerals indicate the same parts.

そして、上述の如く構成された実施例は、電解槽9内に水道水など所要の水10を投入せしめたのち、トランス3により降圧せしめた交流を交流電源線2a・2b・分岐線6a
・6b・11a・11bを介して各々第1・第2・第4・第5電極4・5・12・13に各々印加せしめると共に、降圧せしめた交流を交流電源線2a・2b・分岐線11a・11bよりダイオ−ド8でもって直流電流に変換せしめつつ第3・第6電極7・15に各々印加せしめ、電解槽9内の水10を電気分解せしめて上記実施例と同様に酸化還元電位の低い還元水を生成せしめるものである。このさい、分岐線6a・6b・11a・11b・14a・14bを介して第1〜第6電極4・5・7・12・13・15が電解槽9内に配設されているから、大量の水10を迅速に効率よく電気分解せしめ、酸化還元電位の低い還元水を能率よく生成せしめることが出来るものである。
In the embodiment configured as described above, after the required water 10 such as tap water is put into the electrolytic cell 9, the alternating current lowered by the transformer 3 is supplied to the AC power supply lines 2a, 2b, and the branch line 6a.
The AC power applied to the first, second, fourth, and fifth electrodes 4, 5, 12, and 13 through 6b, 11a, and 11b, respectively, and the alternating current that has been stepped down are supplied to the AC power supply lines 2a, 2b, and the branch line 11a.・ Although it is converted into a direct current by the diode 8 from 11b, it is applied to the third and sixth electrodes 7 and 15 respectively, and the water 10 in the electrolytic cell 9 is electrolyzed to obtain the oxidation-reduction potential in the same manner as in the above embodiment. This produces low-reduced water. At this time, the first to sixth electrodes 4, 5, 7, 12, 13, and 15 are disposed in the electrolytic cell 9 through the branch lines 6 a, 6 b, 11 a, 11 b, 14 a, and 14 b. The water 10 can be electrolyzed quickly and efficiently, and reduced water having a low redox potential can be efficiently generated.

図3は本願の他の発明の一実施例を示すもので、第3電極7と第6電極15とが一対の交流電源線2a・2bにダイオ−ド8よりなるブリッジ回路16を介して接続された分岐線14a・14bでもって接続されると共に、該ブリッジ回路16と分岐線14a・14bとの間には直流を正負極に切換え自在な切換スイッチ17が介在された点が前記実施例と相違し、他の部分は同一であり、同一符号は同一部分を示す。 Figure 3 shows an embodiment of another aspect of the present invention, the third electrode 7 and the sixth electrode 15 is diode to a pair of AC power supply line 2a · 2b - connected via a bridge circuit 16 consisting of de 8 is connected with at branch line 14a · 14b, the foregoing embodiment is that the DC switching freely change-over switch 17 to the positive and negative poles are interposed between the branch line 14a · 14b and the bridge circuit 16 The other parts are the same, and the same reference numerals indicate the same parts.

そして、上述の如く構成された実施例は、電解槽9内に水道水など所要の水10を投入せしめたのち、トランス3により降圧せしめた交流を交流電源線2a・2b・分岐線6a
・6b・11a・11bを介して各々第1・第2・第4・第5電極4・5・12・13に各々印加せしめると共に、降圧せしめた交流を交流電源線2a・2b・ブリッジ回路16よりダイオ−ド8でもって直流電流に変換せしめつつ第3・第6電極7・15に各々印加せしめ、電解槽1内の水10を電気分解して酸化還元電位の低い還元水を生成せしめるものである。このさい、必要に応じて切換スイッチ17により直流電流を負極に切換え、第1〜第6電極4・5・7・12・13・15のクリ−ニングを行うことが出来るものである。
In the embodiment configured as described above, after the required water 10 such as tap water is put into the electrolytic cell 9, the alternating current lowered by the transformer 3 is supplied to the AC power supply lines 2a, 2b, and the branch line 6a.
6b, 11a and 11b are applied to the first, second, fourth and fifth electrodes 4, 5, 12 and 13, respectively, and the alternating current which has been stepped down is supplied to the AC power supply lines 2a and 2b and the bridge circuit 16. A diode 8 is applied to the third and sixth electrodes 7 and 15 while being converted to a direct current, and the water 10 in the electrolytic cell 1 is electrolyzed to produce reduced water having a low redox potential. It is. At this time, the first to sixth electrodes 4, 5, 7, 12, 13, 15 can be cleaned by switching the direct current to the negative electrode by the changeover switch 17 as necessary.

なお、上記実施例1・2・3は、水道水、工場排水、河川水のみならず、多種類の塩の電解水にも適用せしめ、酸化還元電位の低い還元水に改質せしめることが出来るものである。また、必要に応じて浄水器等に付設せしめ、浄水化と共に酸化還元電位の低い還元水に改質せしめることが出来るものである。   The above Examples 1, 2, and 3 can be applied not only to tap water, factory effluent, and river water, but also to electrolyzed water of various kinds of salts, and can be reformed to reduced water having a low oxidation-reduction potential. Is. Moreover, it can be attached to a water purifier or the like as necessary, and can be reformed into reduced water having a low oxidation-reduction potential together with purification.

本発明の一実施例を示す回路図である。It is a circuit diagram which shows one Example of this invention. 他の発明の一実施例を示す回路図である。It is a circuit diagram which shows one Example of another invention. 他の発明の一実施例を示す回路図である。It is a circuit diagram which shows one Example of another invention.

1 交流電源
2a・2b 交流電源線
4 第1電極
5 第2電極
6a・6b 分岐線
7 第3電極
8 ダイオ−ド
9 電解槽
10 水
11a・11b 分岐線
12 第4電極
13 第5電極
14a・14b 分岐線
15 第6電極
16 ブリッジ回路
17 切換スイッチ
DESCRIPTION OF SYMBOLS 1 AC power supply 2a * 2b AC power supply line 4 1st electrode 5 2nd electrode 6a * 6b Branch line 7 3rd electrode 8 Diode 9 Electrolyzer 10 Water 11a * 11b Branch line 12 4th electrode 13 5th electrode 14a * 14b Branch line 15 6th electrode 16 Bridge circuit 17 Changeover switch

Claims (4)

所要の電解槽内に第1電極と第2電極とが配設されると共に、該第1・第2電極間に第3電極が介装され、第1・第2電極は交流電源に接続された交流電源線の一方に分岐線を介して各々接続され、他方、第3電極は交流を直流に変換せしめるべくダイオ−ドを介して同他方の交流電源線に接続されてなり、上記第1・第2電極に交流電源を介して交流を印加せしめると共に、第3電極にダイオ−ドを介して直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を生成せしめるべく構成されてなることを特徴とする、還元水の生成装置。   A first electrode and a second electrode are disposed in a required electrolytic cell, a third electrode is interposed between the first and second electrodes, and the first and second electrodes are connected to an AC power source. The first electrode is connected to one of the AC power lines via a branch line, and the third electrode is connected to the other AC power line via a diode so as to convert AC to DC.・ Alternating current is applied to the second electrode via an alternating current power source, and direct current is applied to the third electrode via a diode to electrolyze the water in the electrolytic cell to produce reduced water having a low redox potential. An apparatus for producing reduced water, characterized in that the apparatus is configured to cause a reduction. 所要の電解槽内に第1電極・第2電極と第4電極・第5電極とが各々配設され、該第1
・第2電極間には第3電極が、第4・第5電極間には第6電極が各々介装され、第1・第2電極は交流電源に接続された交流電源線の一方に分岐線を介して接続されると共に、第4・第5電極は同他方の交流電源線に分岐線を介して接続され、かつ、第3・第6電極は交流を直流に変換せしめるべく一対の交流電源線に各々ダイオ−ドを介在せしめた分岐線でもって接続されてなり、上記第1・第2・第4・第5電極に交流電源を介して交流を印加せしめると共に、第3・第6電極にダイオ−ドを介して直流を印加せしめ、電解槽内の水を電気分解して酸化還元電位の低い還元水を生成せしめるべく構成されてなることを特徴とする、還元水の生成装置。
A first electrode, a second electrode, a fourth electrode, and a fifth electrode are respectively disposed in a required electrolytic cell, and the first electrode
A third electrode is interposed between the second electrodes, a sixth electrode is interposed between the fourth and fifth electrodes, and the first and second electrodes branch to one of the AC power supply lines connected to the AC power supply. And the fourth and fifth electrodes are connected to the other AC power supply line via a branch line, and the third and sixth electrodes are a pair of alternating currents to convert alternating current into direct current. each diode in the power supply line - it is connected with the branch lines allowed intervening de, with allowed to apply an AC through the AC power to the first, second and fourth and fifth electrode, the third-sixth An apparatus for producing reduced water, characterized in that a direct current is applied to an electrode via a diode to electrolyze water in an electrolytic cell to produce reduced water having a low oxidation-reduction potential.
請求項2記載の還元水の生成装置において、第3電極と第6電極とは一対の交流電源線にダイオ−ドよりなるブリッジ回路を介して接続された分岐線でもって接続されると共に、ブリッジ回路と分岐線との間には直流を正負極に切換自在な切換スイッチが介在されてなることを特徴とする、還元水の生成装置。 In generating apparatus reduced water according to claim 2, and the third electrode and the sixth electrode diode to a pair of AC power line - it is connected with a branch line which is connected through the bridge circuits made of de Rutotomoni, An apparatus for producing reduced water, characterized in that a changeover switch capable of switching direct current between positive and negative is interposed between the bridge circuit and the branch line. 酸化還元電位を低下せしめるべく電極が金属材より形成されてなることを特徴とする、請求項1〜3記載の還元水の生成装置。 Electrode to allowed to reduce the redox potential, characterized by comprising formed from a metal material, apparatus for generating reduced water according to claim 1 to 3, wherein.
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