JPH0244878Y2 - - Google Patents

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Publication number
JPH0244878Y2
JPH0244878Y2 JP15333988U JP15333988U JPH0244878Y2 JP H0244878 Y2 JPH0244878 Y2 JP H0244878Y2 JP 15333988 U JP15333988 U JP 15333988U JP 15333988 U JP15333988 U JP 15333988U JP H0244878 Y2 JPH0244878 Y2 JP H0244878Y2
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JP
Japan
Prior art keywords
water
chamber
partition wall
gas
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.)
Expired
Application number
JP15333988U
Other languages
Japanese (ja)
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JPH01114094U (en
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
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Priority to JP15333988U priority Critical patent/JPH0244878Y2/ja
Publication of JPH01114094U publication Critical patent/JPH01114094U/ja
Application granted granted Critical
Publication of JPH0244878Y2 publication Critical patent/JPH0244878Y2/ja
Expired legal-status Critical Current

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  • Degasification And Air Bubble Elimination (AREA)
  • Physical Water Treatments (AREA)

Description

【考案の詳細な説明】 〔考案の利用分野〕 本考案は水の炭酸除去装置に関し、詳細にはポ
ーラスな隔壁の下側から圧装した空気で隔壁上に
所定水層厚以下に拡散された水を泡立たせ、この
水泡を泡立て室とは別の分離室で気液分離するこ
とによつて水中の炭酸ガス等を除去するようにし
た、主として水の電気分解の前処理として使用さ
れる水の炭酸除去装置に関する。
[Detailed description of the invention] [Field of application of the invention] The invention relates to a device for removing carbon dioxide from water. The water is mainly used as pre-treatment for electrolysis of water, which removes carbon dioxide gas etc. from the water by foaming water and separating the foam into gas and liquid in a separation chamber separate from the foaming chamber. This invention relates to a carbon dioxide removal device.

〔発明が解決しようとする課題〕 一般に、地下水、河川の水には遊離炭酸の状態
で炭酸が多く含まれている。この炭酸の起源は、
ほとんど、雨水に溶けている炭酸ガスであるが、
また、土壌中で生物の呼吸作用、バクテリアの分
解作用で発生する炭酸ガスでもある。そして炭酸
ガスの溶解と解離の関係は、 CO2+H2O H2CO3(炭酸) H2CO3 H++HCO3 HCO3 H++CO3 である。
[Problems to be Solved by the Invention] Generally, groundwater and river water contain a large amount of carbonic acid in the form of free carbonic acid. The origin of this carbonic acid is
Most of it is carbon dioxide dissolved in rainwater,
It is also carbon dioxide gas, which is generated in the soil by the respiration of living things and the decomposition of bacteria. The relationship between dissolution and dissociation of carbon dioxide gas is CO 2 +H 2 OH 2 CO 3 (carbonic acid) H 2 CO 3 H + +HCO 3 HCO 3 H + +CO 3 .

従つて、電解作用によつて、陰極室側の水に水
酸基を多量に発生しても、H+とHCO3 -あるいは
H+とCO3 -に分かれた状態で、 OH-+H+ H2O となり、水酸基を消耗してしまうので、電解効率
が著しく低下することになる。
Therefore, even if a large amount of hydroxyl groups are generated in the water on the cathode chamber side by electrolytic action, H + and HCO 3 - or
When it is separated into H + and CO 3 - , it becomes OH - + H + H 2 O, and the hydroxyl groups are consumed, resulting in a significant drop in electrolytic efficiency.

また、電解作用を与えた時、陰極室側には有用
なカルシウムイオンなどが集まるが、上記の炭酸
は、 H2CO3+Ca H2+CaCO3 の反応を示し、炭酸カルシウムとなつて、沈澱し
もしくは、電極表面にスケールとして付着し、通
電率を低下させる。このため、Ca-を消耗してし
まう欠点もある。
In addition, when electrolytic action is applied, useful calcium ions gather on the cathode chamber side, but the carbonic acid mentioned above shows a reaction of H 2 CO 3 + Ca H 2 + CaCO 3 , becomes calcium carbonate, and precipitates. Alternatively, it adheres to the electrode surface as scale, reducing the current conductivity. For this reason, it also has the disadvantage of consuming Ca - .

そこで、水中に空気を吹き込むことにより、泡
立てを行い、炭酸ガスの除去を行う方式が採用さ
れた。ここでは、水のガス溶存度が条件(気圧・
温度)で一定であることを利用し、炭酸ガスと空
気との置換で、実質的に炭酸ガス溶存量を低下さ
せるのである。この具体的方式としては、水槽底
部に多量の孔を穿つた板を介して空気を供給し、
水槽中の水を通つて気泡状態で上昇する空気を、
その泡の表面で水と接触し、水中の炭酸ガスとの
置換を達成するものである。しかし、この方法は
単に水槽内の水に空気を送つて泡立たせる方式で
あるため気泡が大きくなり充分な気液接触面積が
得られず、また、水槽内の水全体をまんべんなく
空気と接触させることができないため充分な効果
を得ることができなかつた。
Therefore, a method was adopted in which air is blown into the water to create bubbles and remove carbon dioxide gas. Here, the conditions are gas solubility in water (atmospheric pressure and
Taking advantage of the fact that the temperature remains constant, the amount of dissolved carbon dioxide is substantially reduced by replacing carbon dioxide with air. A specific method for this is to supply air through a plate with a large number of holes at the bottom of the tank.
The air that rises in bubbles through the water in the aquarium,
The surface of the bubbles comes into contact with water and replaces carbon dioxide gas in the water. However, since this method simply sends air to the water in the aquarium to create bubbles, the bubbles become large and a sufficient air-liquid contact area cannot be obtained, and it is difficult to evenly contact the entire water in the aquarium with air. Because it was not possible to do so, sufficient effects could not be obtained.

本考案は上記の問題を解決するためになされた
もので、その目的とするところはポーラスな隔壁
上に水を一定層厚以下に拡散するとともに、隔壁
下方から微細分化された圧力空気を供給すること
により、泡立て室を通過するすべての水を泡立た
せ、且つこの水泡を泡立て室外に連通する気液分
離室で気液分離して水中の炭酸ガスを短時間で効
率良く除去することにある。
The present invention was developed to solve the above problem, and its purpose is to diffuse water onto the porous partition wall to a thickness below a certain level, and to supply finely divided pressurized air from below the partition wall. By doing so, all the water passing through the bubbling chamber is foamed, and the water bubbles are separated into gas and liquid in a gas-liquid separation chamber communicating with the outside of the bubbling chamber, thereby efficiently removing carbon dioxide from the water in a short time.

〔課題を解決するための手段〕[Means to solve the problem]

本考案の上記目的は、ポーラスな隔壁を有する
底部仕切板の一側に所定高さの溢流壁を設け、こ
の溢流壁の上方に気泡排出口を設けた泡立て室
と、泡立て室の溢流壁下流側に設けられた気液分
離室と、泡立て室の一端側より上記隔壁上に拡散
するように水を連続的に供給する手段と、上記隔
壁の下側から泡立て室に上記隔壁を介して空気を
圧送する手段とを具備し、前記溢流壁によつて泡
立て室の隔壁上の水層厚を所定以下に規制し、溢
流壁を越えて排出される気泡を分離室で気液分離
して水を回収するようにした水の炭酸除去装置に
よつて達成することができる。
The above-mentioned object of the present invention is to provide an overflow wall of a predetermined height on one side of a bottom partition plate having a porous partition wall, a whisking chamber with a bubble outlet above the overflow wall, and an overflow of the whisking chamber. a gas-liquid separation chamber provided on the downstream side of the flow wall; a means for continuously supplying water from one end of the foaming chamber so as to diffuse onto the partition wall; The overflow wall controls the thickness of the water layer on the partition wall of the whisking chamber to a predetermined value or less, and the air bubbles discharged beyond the overflow wall are vented in the separation chamber. This can be achieved by a water carbonation removal device that separates the liquid and recovers the water.

尚、空気圧送手段には電熱などによるヒーター
を設け、加熱空気を圧送するようにしてもよい。
Note that the air pressure feeding means may be provided with a heater using electric heat or the like to force feed the heated air.

〔考案の作用〕[Effect of invention]

本考案では、水は泡立て室底部の隔壁上に拡散
噴射されると同時に、ポーラスな隔壁上を流れる
過程で隔壁の微細孔を通過した微細な圧送空気に
よつて強制的に泡立てられる。このため泡立て室
に導入されるすべての水がまんべんなく圧送空気
と接触して水泡化する。この場合、隔壁上の水の
層厚は気液分離室との間の溢流壁の高さで一定層
厚以下に規制されるので泡の成長がおこらず細か
い気泡に維持される。
In the present invention, water is diffused and sprayed onto the partition wall at the bottom of the foaming chamber, and at the same time, water is forcibly foamed by fine pressurized air that passes through the micropores of the partition wall while flowing over the porous partition wall. Therefore, all the water introduced into the foaming chamber comes into contact with the compressed air evenly and becomes foamed. In this case, the layer thickness of water on the partition wall is regulated to a certain layer thickness or less by the height of the overflow wall between the partition wall and the gas-liquid separation chamber, so bubbles do not grow and are maintained as fine bubbles.

また、泡立て室に充満した泡は圧送空気の圧送
力で溢流壁を越えて気液分離室に押出され、気液
分離される。従つて気液分離室に生成される水は
水泡から分離された水、すなわち、微細空気との
接触を保証された水であるから、空気との置換に
より炭酸ガスが効果的に除去された水が得られ
る。
Further, the foam filling the foaming chamber is pushed out over the overflow wall into the gas-liquid separation chamber by the force of the pressurized air, and is separated into gas and liquid. Therefore, the water generated in the gas-liquid separation chamber is water that has been separated from water bubbles, that is, water that has been guaranteed to come into contact with fine air, so it is water from which carbon dioxide gas has been effectively removed by replacing it with air. is obtained.

尚、空気圧送手段にヒータを設けた場合は圧送
空気によつて泡立てられる際に水の温度が上昇す
るため水のガス溶存度が低下し、炭酸ガスは一層
効率的に除去される。
If the air pressure feeding means is provided with a heater, the temperature of the water increases when it is bubbled by the pressure air, so the degree of gas solubility in the water decreases, and carbon dioxide gas is removed more efficiently.

〔考案の実施例〕[Example of idea]

以下、本考案の一実施例を図面を参照して具体
的に説明する。
Hereinafter, one embodiment of the present invention will be specifically described with reference to the drawings.

図において、符号1は、函形の装置本体であ
り、その上部には泡立て室2が、また、下部には
圧力空気供給室3が設けられている。そして、上
記泡立て室2の底部には、素焼や、合成樹脂細粒
を半溶集結して作る、例えば、商品名「パルコ
ン」などの通気多孔質板、その他、気孔を有する
ポーラスな隔壁4が設けてあつて、上記隔壁4を
介して、上記圧力空気供給室3より上記泡立て室
2内へ細分化された圧力空気を供給するのであ
る。そして、上記圧力空気供給室3はブロア5に
接続されており、また、ブロア5と圧力空気供給
室3との間の連通個処6には電熱などのヒータ7
が設けられている。
In the figure, reference numeral 1 denotes a box-shaped main body of the apparatus, in which a foaming chamber 2 is provided in the upper part, and a pressurized air supply chamber 3 is provided in the lower part. At the bottom of the whisking chamber 2, there is a porous partition wall 4 having pores, such as a ventilated porous board made by unglazed firing or semi-molten aggregation of fine particles of synthetic resin, such as the product name "Palcon". The compressed air is supplied from the pressurized air supply chamber 3 into the foaming chamber 2 through the partition wall 4. The pressurized air supply chamber 3 is connected to a blower 5, and a heater 7 such as an electric heater is connected to a communication area 6 between the blower 5 and the pressurized air supply chamber 3.
is provided.

一方、上記泡立て室2の一端側には、泡立て室
2の横幅に対応して噴水用管8が配設してあり、
上記噴水用管8の長手方向に並設したノズル9を
介して上記泡立て室2内に水が噴射され、上記隔
壁4上に拡散されるようにしている。上記噴水用
管8は、電磁弁10を介して水道管(図示せず)
に接続されている。また、上記噴水用管8から離
間して、例えば、泡立て室2の反対端には、溢流
壁11を介して気液分離室12が連設されてお
り、上記の気液分離室12の底部には貯水槽13
への排出口14が開口されている。
On the other hand, on one end side of the whisking chamber 2, a fountain pipe 8 is arranged corresponding to the width of the whisking chamber 2,
Water is injected into the bubbling chamber 2 through nozzles 9 arranged in parallel in the longitudinal direction of the fountain pipe 8, and is spread onto the partition wall 4. The fountain pipe 8 is connected to a water pipe (not shown) via a solenoid valve 10.
It is connected to the. Further, apart from the fountain pipe 8, for example, at the opposite end of the bubbling chamber 2, a gas-liquid separation chamber 12 is connected via an overflow wall 11. Water tank 13 at the bottom
A discharge port 14 is opened.

このような構成においては、ブロア5を駆動
し、電磁弁10を開放することで(これは手動で
もよいが、貯水槽13に設けたレベル検出器から
の信号などで自動的に動作してもよい)、圧力空
気が隔壁4を介して細分化して泡立て室2に入る
時、その表面に流れた水を泡立てる。この泡立て
は、泡立て室2の天井まで上昇し、更に、溢流壁
11側へと押され、溢流壁11を越えた位置で、
気液分離室12で炭酸ガスを含んだ空気と、含有
炭酸ガスを除去された水とが分けられる。
In such a configuration, by driving the blower 5 and opening the solenoid valve 10 (this can be done manually, but it can also be done automatically by a signal from a level detector installed in the water tank 13, etc.). When the pressurized air fragments and enters the foaming chamber 2 through the partition wall 4, it foams the water flowing on its surface. This whisking rises to the ceiling of the whisking chamber 2, is further pushed toward the overflow wall 11, and at a position beyond the overflow wall 11,
In the gas-liquid separation chamber 12, air containing carbon dioxide gas and water from which carbon dioxide gas has been removed are separated.

そして、上記供給空気の圧送力は、たとえ、泡
立て室2内に水が残留していても、泡立て室2か
ら気液分離室12へと流れる水泡がその水によつ
て流れを妨げられることがないほどに強力に設定
され、噴水用管8への水供給量に関して、膨大な
空気量になるように設定される。
The pressure feeding force of the supply air is such that even if water remains in the bubbling chamber 2, the flow of water bubbles from the bubbling chamber 2 to the gas-liquid separation chamber 12 will not be obstructed by the water. The pressure is set to be so strong that it is almost impossible to use, and the amount of water supplied to the fountain pipe 8 is set to be a huge amount of air.

この実施例では、気液分離室12は、天井に開
口があつて、分離された空気を外部に放出する。
この場合、水源が水道水の場合は塩素ガス除去の
作用も同時に達成されて都合がよい。
In this embodiment, the gas-liquid separation chamber 12 has an opening in the ceiling to discharge the separated air to the outside.
In this case, if the water source is tap water, it is convenient because the action of removing chlorine gas is also achieved at the same time.

処理後の水は、排出口14より貯水槽13へと
放出されるのである。
The treated water is discharged from the outlet 14 into the water storage tank 13.

なお、この実施例では上水について説明した
が、下水についても適用できること勿論である。
Although this embodiment has been described with respect to tap water, it goes without saying that the invention can also be applied to sewage.

〔考案の作用、効果〕[Function and effect of the idea]

以上のように本考案では噴水管のノズルから噴
射された細かい粒子の水滴がポーラスな隔壁にぶ
つかつて拡散されると同時に、隔壁上に拡散噴射
された水が隔壁下方からの圧送空気によつて泡立
てられるので、連続的に導入される水が短時間で
気液接触し、水中の溶存炭酸ガスと空気との置換
が促進される。加えて、泡立て室で生成された水
泡は泡立て室とは別の気液分離室に導いて水を分
離するので炭酸ガス、塩素ガスなどが最大限に除
かれた水が得られ、この水を電解することにより
効率の良い電解アルカリイオン水の生成が達成で
きる。
As described above, in the present invention, the fine water droplets injected from the nozzle of the fountain pipe collide with the porous partition wall and are dispersed, and at the same time, the water diffused and injected onto the partition wall is dispersed by the compressed air from below the partition wall. Because of the foaming, the continuously introduced water comes into contact with gas and liquid in a short time, promoting the replacement of dissolved carbon dioxide gas in the water with air. In addition, the water bubbles generated in the bubbling chamber are led to a gas-liquid separation chamber separate from the bubbling chamber to separate the water, resulting in water that has been removed to the maximum extent possible, including carbon dioxide and chlorine gas. Efficient generation of electrolyzed alkaline ionized water can be achieved by electrolysis.

また、本考案の装置は噴水管から水を流しなが
ら泡立てを行うのでコンパクトな装置で大量の水
を処理できる。
Furthermore, since the device of the present invention performs foaming while flowing water from a fountain pipe, a large amount of water can be treated with a compact device.

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

第1図は本考案の一実施例を示す縦断面図、第
2図は同横断平面図である。 1……装置本体、2……泡立て室、3……圧力
空気供給室、4……隔壁、5……ブロア、6……
連通部、7……ヒータ、8……噴水用管、9……
ノズル、11……溢流壁。
FIG. 1 is a longitudinal cross-sectional view showing an embodiment of the present invention, and FIG. 2 is a cross-sectional plan view thereof. 1... Apparatus body, 2... Foaming chamber, 3... Pressure air supply chamber, 4... Partition wall, 5... Blower, 6...
Communication portion, 7... Heater, 8... Fountain pipe, 9...
Nozzle, 11...Overflow wall.

Claims (1)

【実用新案登録請求の範囲】 (1) ポーラスな隔壁を有する底部仕切板の一側に
所定高さの溢流壁を設け、この溢流壁の上方に
気泡排出口を設けた泡立て室と、泡立て室の溢
流壁下流側に設けられた気液分離室と、泡立て
室の一端側より上記隔壁上に拡散するように水
を連続的に供給する手段と、上記隔壁の下側か
ら泡立て室に上記隔壁を介して空気を圧送する
手段とを具備し、前記溢流壁によつて泡立て室
の隔壁上の水層厚を所定以下に規制し、溢流壁
を越えて排出される気泡を分離室で気液分離し
て水を回収することを特徴とする水の炭酸除去
装置。 (2) 空気圧送手段にヒータを設けたことを特徴と
する実用新案登録請求の範囲第1項記載の水の
炭酸除去装置。
[Scope of Claim for Utility Model Registration] (1) A foaming chamber provided with an overflow wall of a predetermined height on one side of a bottom partition plate having a porous partition wall, and a bubble outlet provided above the overflow wall; a gas-liquid separation chamber provided on the downstream side of the overflow wall of the whisking chamber; a means for continuously supplying water so as to diffuse onto the partition wall from one end of the whisking chamber; means for pumping air through the partition wall, the overflow wall regulates the thickness of the water layer on the partition wall of the whisking chamber to a predetermined value or less, and prevents air bubbles from being discharged beyond the overflow wall. A water carbonation removal device characterized by recovering water by separating gas and liquid in a separation chamber. (2) The water carbonation removal device according to claim 1, characterized in that the air pressure feeding means is provided with a heater.
JP15333988U 1988-11-25 1988-11-25 Expired JPH0244878Y2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP15333988U JPH0244878Y2 (en) 1988-11-25 1988-11-25

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP15333988U JPH0244878Y2 (en) 1988-11-25 1988-11-25

Publications (2)

Publication Number Publication Date
JPH01114094U JPH01114094U (en) 1989-08-01
JPH0244878Y2 true JPH0244878Y2 (en) 1990-11-28

Family

ID=31429090

Family Applications (1)

Application Number Title Priority Date Filing Date
JP15333988U Expired JPH0244878Y2 (en) 1988-11-25 1988-11-25

Country Status (1)

Country Link
JP (1) JPH0244878Y2 (en)

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR102693679B1 (en) * 2020-06-10 2024-08-12 엘에스엠트론 주식회사 Agricultural Vehicle

Also Published As

Publication number Publication date
JPH01114094U (en) 1989-08-01

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