JPS58189090A - Device for forming ionized water - Google Patents

Device for forming ionized water

Info

Publication number
JPS58189090A
JPS58189090A JP7150582A JP7150582A JPS58189090A JP S58189090 A JPS58189090 A JP S58189090A JP 7150582 A JP7150582 A JP 7150582A JP 7150582 A JP7150582 A JP 7150582A JP S58189090 A JPS58189090 A JP S58189090A
Authority
JP
Japan
Prior art keywords
water
cathode
permeable partition
anode
partition wall
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP7150582A
Other languages
Japanese (ja)
Other versions
JPH025477B2 (en
Inventor
Yutaka Minamoto
源 豊
Toshihiko Ono
俊彦 大野
Nobutoshi Ono
小野 展利
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Advance Res & Dev Co Ltd
Advance Kaihatsu Kenkyujo KK
Original Assignee
Advance Res & Dev Co Ltd
Advance Kaihatsu Kenkyujo KK
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Advance Res & Dev Co Ltd, Advance Kaihatsu Kenkyujo KK filed Critical Advance Res & Dev Co Ltd
Priority to JP7150582A priority Critical patent/JPS58189090A/en
Publication of JPS58189090A publication Critical patent/JPS58189090A/en
Publication of JPH025477B2 publication Critical patent/JPH025477B2/ja
Granted legal-status Critical Current

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Abstract

PURPOSE:To remarkably improve current efficiency, while reducing voltage to a cell, by feeding a part of supplied water having flowed into a space between an anode and a water-permeable partition wall membrane through the water-permeable partition wall member and a cathode to a down comer for the cathode. CONSTITUTION:The device has a cathode 12 in close vicinity to which a water- permeable partition wall member 13 facing to an anode 11 is provided and a down comer 14 for the cathode at the back side of the cathode 12, so that a part of supplied water having flowed through a water-supply opening 15 into a space between the anode 11 and the water-permeable partition wall member 13 is supplied through the water-permeable partition wall member 13 and the cathode 12 to the down comer 14 for the cathode. At the same time, a space between the anode 11 and the water-permeable partition wall member 13 is connected to an outlet 16 for acidic water, and the down comer 14 for the cathode is connected to an outlet 17 for alkali water. By adopting said constitution, the small-sized ionized water-forming device of good performance can be easily and certainly made.

Description

【発明の詳細な説明】 本発明は公共水道等の原水源に直結してアルカリ性水及
び酸性水?連続的に生成するイオン水生成装置に関する
[Detailed Description of the Invention] The present invention provides alkaline water and acidic water directly connected to a raw water source such as public water supply. This invention relates to an ionized water generating device that continuously generates ionized water.

第1図は従来のイオン水生成装置の構成説明図であり、
−図に示す工うに陽極1と陰極2との間に隔壁3を配置
して陽極室4と陰極室5とに区分し、その各室4.5に
給水口6から原水ケ供給して、陽極室4に連通する出ロ
アから酸性水を散出し、陰極室5に連通する出口8から
アルカリ性水を取出丁ことができるようにしている。
FIG. 1 is an explanatory diagram of the configuration of a conventional ionized water generator.
- In the construction shown in the figure, a partition wall 3 is arranged between the anode 1 and the cathode 2 to divide the anode chamber 4 and the cathode chamber 5 into an anode chamber 4 and a cathode chamber 5, and raw water is supplied to each chamber 4.5 from a water supply port 6, Acidic water is spewed out from an outlet lower communicating with an anode chamber 4, and alkaline water can be taken out from an outlet 8 communicating with a cathode chamber 5.

このようなイオン水生成装置に於いて、所望のpH値の
アルカリ性水を生成するのに必要な電力消費綾は、摺電
圧と電流効率(1111解電気皺Vこ対するアルカリ性
水のpH値が関係する)との兼合いで矢筒る。槽電圧ケ
低減させる手段と17では、極間ケ狭くづる手段と、電
極面積を大きくする手段とが考えられる。しかし、極間
を極端に狭くした場合、電流効率が著しく低下する。こ
れは単に極間を狭めるだけでは雀エネルギー構造を採る
ことができないことを意味する。
In such an ion water generation device, the power consumption required to generate alkaline water with a desired pH value is determined by the sliding voltage and current efficiency (1111 electrolysis voltage), which is related to the pH value of the alkaline water. ). As the means for reducing the cell voltage (17), there are two possible methods: narrowing the gap between electrodes and increasing the area of the electrodes. However, if the distance between the electrodes is made extremely narrow, the current efficiency will drop significantly. This means that the sparrow energy structure cannot be achieved simply by narrowing the distance between the poles.

1rこ、電極面&を可及的に大きくした場合、これは装
置の大型化を招来する。
However, if the electrode surface & is made as large as possible, this will lead to an increase in the size of the device.

また、第1図のようVC隔壁3を配置した場合には、隔
壁を電極と平行に保持することが困難になる。
Furthermore, when the VC partition 3 is arranged as shown in FIG. 1, it becomes difficult to hold the partition parallel to the electrodes.

従って、従来装置の場合に於いては、電力消費が多い大
型装置であれば、アルカリ性水をpHiを高くして取出
し得ることができても、電力消費が少ない小型装置にす
ると、光分Kpl*V高くすることができないという欠
点かあった・ 本発明は前述の如き従来の欠点を改善した新規な発明で
あり、小製で高性能のイオン水生成装置馨提供すること
を目的とする。以下、図面に基づいて実施例を詳細に@
明する・ 第2図は本発明の一実施例の要部−1断l内であり、四
回に示−[ように、陽極11に対向させて透水性11M
壁拐13ケ近傍に設げrこ陰極12♂、こ)IIJNl
]2の裏側α)カッ−ドダウンヵマI4とを有12、陽
極11と透水性隔壁部材13との間に給水[115から
流入烙せた供給水の−f!1Bを透水性隔壁gS拐13
及び貼接12ケ通し7て〃)−ドダウンカマー14に給
送されるように−(ると共に、ls極11と透水性隔壁
部材]3との間を酸性水出口16に連通し、且つカソー
ドダウンカマー 14”¥アルカリ水出口17に連通(
7に構成ケボしている。
Therefore, in the case of conventional equipment, although it is possible to extract alkaline water by raising the pHi with a large equipment that consumes a lot of power, if you use a small equipment that consumes less power, the amount of light Kpl* The present invention is a novel invention that improves the above-mentioned conventional drawbacks, and its purpose is to provide a small-sized, high-performance ionized water generator. Below, examples will be explained in detail based on the drawings@
Figure 2 is a main part-1 section of an embodiment of the present invention, and as shown in the fourth section, a water-permeable 11M
Cathode 12♂, IIJNl installed near wall wall 13
] 2 has a back side α) quad-down kama I4 12, and between the anode 11 and the water-permeable partition member 13 is the water supply [115 -f! 1B with water-permeable partition wall gS 13
and the pasted 12 pieces are passed through 7) - so as to be fed to the downcomer 14 - (as well as the ls electrode 11 and the water permeable partition member) 3 are communicated with the acidic water outlet 16, and the cathode down Comer 14ӴConnected to alkaline water outlet 17 (
The composition is poor in 7.

上述において、陽極11はチタン上に、酸化ルアニウム
、WI化パラジウム、酸化イリジウム。
In the above, the anode 11 is made of ruanium oxide, palladium oxide, or iridium oxide on titanium.

鹸化プラチナ等の白金属酸化?/I >’コーディング
してなる金属8!が好適であり、実施例ではこれを′採
用(−でいうが、網状構造のもσ)も適用できる。また
、陰極12は多数の孔を千鳥状にパンチングして形成し
たステンレス板が1−)なるが、多数の孔を形成する代
りに、多数のス11.7 hを形成したり、又は孔及び
スqットを組合せ形成しfこステンレス板等も適用でき
る。′!に、透水性11M壁部材】3には、レーヨン不
織布、ポリエステル不織布等の透水性材料ケ適宜選んで
用いることができる。
White metal oxidation such as saponified platinum? /I >'Metal 8 made by coding! is preferable, and in the embodiment, it is also possible to adopt this (-, but also σ of the network structure). The cathode 12 is made of a stainless steel plate 1-) formed by punching a large number of holes in a staggered manner. Stainless steel plates formed by combining SQ sheets can also be used. ′! Water-permeable 11M wall member [3] Water-permeable materials such as rayon non-woven fabric and polyester non-woven fabric can be appropriately selected and used.

また、本発明は、好ましくは、透水性隔壁部材13を陰
&Vこ衡詣させて設けるとよいもσ)であり、実施例で
はこれを採用している。
In addition, in the present invention, it is preferable that the water-permeable partition member 13 is provided in a shaded manner (σ), and this is adopted in the embodiment.

前述の如く、透水性隔壁部材13を陰極12の近傍に設
けると、電流効率を低下させることなく陽極11と陰極
12との極N12可成り狭められることが認められ、特
に透水性隔壁部材13を陰極12に密着支持させにもg
)VCシfこ際には、透水性隔壁部側13の機械的な安
定性も相俟って極間を実験では2−1で狭めても電流効
率の低下が認められなかっfこ。これによって摺電圧を
低減させ得る点については解決できrこ。
As mentioned above, it is recognized that when the water-permeable partition member 13 is provided near the cathode 12, the pole N12 between the anode 11 and the cathode 12 can be narrowed considerably without reducing the current efficiency. G to closely support the cathode 12
) In this case, due to the mechanical stability of the water-permeable partition wall side 13, no decrease in current efficiency was observed even when the electrode gap was narrowed by 2-1 in experiments. This solves the problem of reducing the sliding voltage.

更に本発明は、陽@11と透水性隔壁部側13との間に
流入させた供給水の一部(本実施例ではカソードダウン
カマー14に於ける流水の午て)ケ透水性隔壁部材13
及び陰極12Y曲(7てカソードダウンカマー14に給
送されるようにしたので、陰極120表面特に透水性隔
壁部材13と陰極12との間に発生、停滞していた水素
ガスの気泡が成長することなくよく抜けるようになり、
これによって陰極I2の電流分布が均一になって、電流
効率が著しく向上した。
Furthermore, the present invention provides a part of the supply water that flows between the positive side 11 and the water-permeable partition wall side 13 (in this embodiment, the part of the water flowing in the cathode downcomer 14).
Since hydrogen gas is fed to the cathode downcomer 14 with a Y bend (7), hydrogen gas bubbles generated and stagnant on the surface of the cathode 120, especially between the water-permeable partition member 13 and the cathode 12, grow. Now it comes out easily without any problems,
This made the current distribution of the cathode I2 uniform, and the current efficiency was significantly improved.

ここぐ、陰極12に適用したパンチングステンレス板の
形状ヶもう少し詳しく述べると、穴の大きさがあまり大
き過ぎると電流分布が不均一になり電流効率は低下する
し、逆に小さ過ぎると気泡の抜けが良くなく電流分布が
不均一になる。
Now, to explain the shape of the punched stainless steel plate used for the cathode 12 in more detail, if the holes are too large, the current distribution will become uneven and the current efficiency will decrease, while if the holes are too small, air bubbles will escape. is not good and the current distribution becomes uneven.

第3図は電解電気it CC/l) I/C対するアル
カリ性水のpHfiMの関係を示す特性曲線融であり、
1jl−に於いて、曲#Aは本発明構成のイオン水生成
装置vJSa台、曲INBは単に極間を狭くし2て、透
水性隔壁部材の!1flI@に原水ケ供給する場合であ
る。但(−1曲線A及び曲線Bの各場合ともに、電極有
効面積:x4oy、極関:2霞。
FIG. 3 is a characteristic curve showing the relationship between pHfiM of alkaline water and electrolytic electricity (CC/l) I/C,
In 1jl-, song #A is the ionized water generator vJSa with the structure of the present invention, and song INB is simply the narrowing of the gap between the electrodes, and the use of a water-permeable partition member! This is a case where raw water is supplied to 1flI@. However, in both cases of -1 curve A and curve B, electrode effective area: x4oy, polar separation: 2 haze.

カッ−ドダウンカマー深さ=9■、透水性隔壁部材:ポ
リエステル不織布であり、原水酸度は30 ppmであ
る。
Quad downcomer depth = 9 cm, water permeable partition member: polyester nonwoven fabric, raw hydric acidity is 30 ppm.

曲線Aと曲i!Bとを比較して判るようVC1C1本発
明構成用適用ことによって、例に−ば電解電気量が10
0(C//)のとき、アルカリ性水がpH9,0程度に
なるのに対し、本発明を適用しない構成では、アルカリ
性水のpHが儀かに高くなる程度であった。なお、条件
が異なるので図示していないが、第11Nの従来構造の
場合、アルカリ性水のpHかなかなか上がらなかった。
Curve A and song i! As can be seen by comparing with B, by applying VC1C1 to the configuration of the present invention, for example, the amount of electrolytic electricity is 10
0 (C//), the alkaline water has a pH of about 9.0, whereas in the configuration to which the present invention is not applied, the pH of the alkaline water is only slightly higher. Although not shown because the conditions are different, in the case of the 11th N conventional structure, the pH of alkaline water did not rise easily.

このようにして、本発明構成は、槽電圧を低減させ、を
流動WEを向上させるのに極めて有効のものとなる。こ
の場合、本実施例のように、チタン上に白金属酸化物を
コーティングした金属板を陽極l】とt=rこ場合、カ
ーボン電極やフェライト電極と比較して高電151t、
密度の使用条件でも光分耐え得るし2、しかも縦索、フ
ェライトに比べて過電圧が低く、更に小型軽量にし得る
ものである。
In this way, the configuration of the present invention is extremely effective in reducing cell voltage and improving flow WE. In this case, as in this example, a metal plate coated with white metal oxide on titanium is used as the anode l] and t=r.
It can withstand light even under high-density usage conditions2, has lower overvoltage than longitudinal cables and ferrite, and can be made smaller and lighter.

なお1本発明構成にあっては、陽極11111−1の供
給水σ)一部を透水性隔壁部材13を通して陰極12側
に供給する為、CaCO5生成に関与するC0j−を静
電的効果により陽極aにとどめておくこと力Ml能かと
も考えたが、実験の結果、陰極面−\の力ルンウムの付
着り・低減する効果は全くながっrこ〇 以上σ)欽明で明らかなように、本発明によれば、摺電
出ケ低減さぜ、電体、効率を著しく向上させるのに極め
て何効である為、小型で高性能のイオン水生成装置iI
Y簡琳且つ確実に製作することができる。その結果、水
道直結型θ)イオン水生成装置に於いて従来困難とされ
ていた地下水などの緩衝水であっても、低電力消費で能
率良く所望σ)pH値σ)アルカリ性水な得られる等、
汎用性)で著(7く向上し得る。
Note that in the configuration of the present invention, a portion of the water σ) supplied to the anode 11111-1 is supplied to the cathode 12 side through the water-permeable partition member 13, so C0j-, which is involved in CaCO5 generation, is transferred to the anode by electrostatic effect. I thought that it would be effective to keep the force at a, but as a result of the experiment, the effect of reducing the adhesion and reduction of the force on the cathode surface was not at all longer than r〇〇σ) As is clear from Kinmei. According to the present invention, the compact and high-performance ionized water generator iI is extremely effective in reducing sliding electric power generation and significantly improving efficiency.
It can be manufactured easily and reliably. As a result, it is possible to efficiently obtain the desired σ) pH value σ) alkaline water with low power consumption, even when using buffer water such as underground water, which was traditionally difficult to use with a directly connected water supply θ) ionized water generator. ,
Versatility) can be significantly improved (7 times).

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

第1図は従来のイオン水生成装置の説明図、I@2図は
本発明の一実施例の要部am断面図、第3図はO1気1
に対′f−るpH値の関係を示−[%性曲線囚である。 符号説明 11:陽砺、12:陰極、13:透水性隔壁部材、14
:カソードダウンカマー、15:給水口、16:酸性水
出口、17:アルカリ性水出口 特許出願人  株式会社 アドバンス 第1図 15 第3図 C6dws k −r
Fig. 1 is an explanatory diagram of a conventional ionized water generating device, Fig. I@2 is a main part am sectional view of an embodiment of the present invention, and Fig. 3 is an explanatory diagram of a conventional ionized water generating device.
The relationship between the pH value and the pH value is shown in the % sex curve. Code explanation 11: Yoko, 12: Cathode, 13: Water-permeable partition member, 14
: Cathode downcomer, 15: Water inlet, 16: Acidic water outlet, 17: Alkaline water outlet Patent applicant Advance Co., Ltd. Figure 1 15 Figure 3 C6dws k-r

Claims (3)

【特許請求の範囲】[Claims] (1)  陽極に対向させて透水性隔壁部材を近傍に設
けた陰極と、該陰極の裏側のカソードダウンカマーとを
有し、前記陽極と前記透水性隔壁部材との間Kfi人さ
せた供給水の一部を前記透水性隔壁部材及び前記陰極W
:aして前記力ソードダクカマーに給送されるようにす
ると共に、@記陽極と前記透水性部材との間を酸性水出
口に連通し、且つ前記カソードダウンカマーをアルカリ
性水出口に連通した構成Vこしたことを特徴とするイオ
ン水生成装置。
(1) A cathode having a water-permeable partition wall member provided in the vicinity facing the anode, and a cathode downcomer on the back side of the cathode, and supply water flowing between the anode and the water-permeable partition member. A part of the water-permeable partition wall member and the cathode W
The cathode downcomer was connected to the acid water outlet, and the cathode downcomer was connected to the alkaline water outlet. An ionized water generating device characterized by having a configuration V.
(2)  陽極はチタン上に白金属酸化物ケコーティン
グした金属板であることを特徴とする特許請求の範囲第
1項記載のイオン水生成装置。
(2) The ionized water generating device according to claim 1, wherein the anode is a metal plate coated with white metal oxide on titanium.
(3)  多数の孔を開口したステンレス板を陰極にし
、この陰極に透水性隔壁部材を密着させて設けたことな
特徴とする特許請求の範囲第1項記載のイオン水生成装
置。
(3) The ionized water generating device according to claim 1, characterized in that a stainless steel plate with a large number of holes is used as a cathode, and a water-permeable partition member is provided in close contact with this cathode.
JP7150582A 1982-04-30 1982-04-30 Device for forming ionized water Granted JPS58189090A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP7150582A JPS58189090A (en) 1982-04-30 1982-04-30 Device for forming ionized water

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP7150582A JPS58189090A (en) 1982-04-30 1982-04-30 Device for forming ionized water

Publications (2)

Publication Number Publication Date
JPS58189090A true JPS58189090A (en) 1983-11-04
JPH025477B2 JPH025477B2 (en) 1990-02-02

Family

ID=13462601

Family Applications (1)

Application Number Title Priority Date Filing Date
JP7150582A Granted JPS58189090A (en) 1982-04-30 1982-04-30 Device for forming ionized water

Country Status (1)

Country Link
JP (1) JPS58189090A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4861555A (en) * 1985-03-11 1989-08-29 Applied Automation, Inc. Apparatus for chromatographic analysis of ionic species
US5534120A (en) * 1995-07-03 1996-07-09 Toto Ltd. Membraneless water electrolyzer
JP2007075730A (en) * 2005-09-14 2007-03-29 Matsushita Electric Works Ltd Apparatus for generating electrolytic water

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US6251259B1 (en) * 1997-08-27 2001-06-26 Miz Co., Ltd. Method and apparatus for producing electrolyzed water

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4861555A (en) * 1985-03-11 1989-08-29 Applied Automation, Inc. Apparatus for chromatographic analysis of ionic species
US5534120A (en) * 1995-07-03 1996-07-09 Toto Ltd. Membraneless water electrolyzer
JP2007075730A (en) * 2005-09-14 2007-03-29 Matsushita Electric Works Ltd Apparatus for generating electrolytic water
JP4600225B2 (en) * 2005-09-14 2010-12-15 パナソニック電工株式会社 Electrolyzed water generator

Also Published As

Publication number Publication date
JPH025477B2 (en) 1990-02-02

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