JPH08168770A - Water quality improvement by electricity - Google Patents

Water quality improvement by electricity

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Publication number
JPH08168770A
JPH08168770A JP33299894A JP33299894A JPH08168770A JP H08168770 A JPH08168770 A JP H08168770A JP 33299894 A JP33299894 A JP 33299894A JP 33299894 A JP33299894 A JP 33299894A JP H08168770 A JPH08168770 A JP H08168770A
Authority
JP
Japan
Prior art keywords
water
electrode
water quality
stainless steel
microorganisms
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.)
Pending
Application number
JP33299894A
Other languages
Japanese (ja)
Inventor
Tomoaki Otsuka
具明 大塚
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.)
Individual
Original Assignee
Individual
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Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP33299894A priority Critical patent/JPH08168770A/en
Publication of JPH08168770A publication Critical patent/JPH08168770A/en
Pending legal-status Critical Current

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  • Treatment Of Biological Wastes In General (AREA)
  • Water Treatment By Electricity Or Magnetism (AREA)

Abstract

PURPOSE: To improve water quality by basically immersing an electrode into the water to be improved and inducing an electric stimulative decomposition effect, thereby bonding oxygen with the hydrogen generated on a negative pole side to form fresh water and diffusing this water. CONSTITUTION: The water quality is improved by immersing the electrode into the water to be improved and inducing the electric stimulative decomposition effect. An equally good method is to provide the electrode with the places for living of microorganisms by using a porous material for the electrode. Further, an air pump may be installed at the electrode. City water is housed in, for example, a container 3 and stainless steel bars 2 are respectively fixed upright on both right and left sides. Both positive and negative electrodes are selectively connected to both stainless steel bars 2 and the stainless steel bars are energized by utilizing a dry cell housed in a battery box 1. The microorganisms 4, then, gather at the stainless steel rod 2 on the positive side and propagate with presence or absence of electrotaxis and with lapse of time. Namely, the fresh water is formed by bonding oxygen with the hydrogen generated on the negative pole side and is diffused, by which the water quality is improved.

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【産業上の利用分野】本発明は、自然環境、生活環境の
改善に関する。
TECHNICAL FIELD The present invention relates to improvement of natural environment and living environment.

【0002】[0002]

【従来の技術】[Prior art]

(1) 背景 科学技術の発展に伴い、大気汚染や酸性雨を生み、又生
活環境の発展による自然環境や生活環境の破壊を招い
た。これが地球的な環境破壊に発展している中でヒトの
生活に於いても重大な影響を及ぼしている。
(1) Background With the development of science and technology, air pollution and acid rain were produced, and the natural environment and living environment were destroyed due to the development of living environment. This is having a serious impact on human life as it develops into global environmental destruction.

【0003】(2) 従来技術の問題点 今日の技術で河川や湖沼の水質改善事業は全て対象療法
的なもので大きな期待は持てない現状である。従って、
量的制限以外にないと言われている。
(2) Problems of the Prior Art All the water quality improvement projects in rivers and lakes by the present technology are target therapy, and there is no great expectation. Therefore,
It is said that there is nothing but quantitative restrictions.

【0004】[0004]

【発明が解決しようとする課題】以上の実情に鑑み、本
発明は電気を用いて生活用水から排水に至る水、池、河
川、湖沼、海洋に至る全ての水質改善を提供する。
In view of the above situation, the present invention provides all the water quality improvement by using electricity, from water for domestic use to drainage, to ponds, rivers, lakes and oceans.

【0005】[0005]

【課題を解決するための手段】[Means for Solving the Problems]

(1) 概念 以上の構想に基づき、従来形式に電気を加えて、生物的
処理と物性的改善法及還元的改善法の三ツの作用を用い
て究極的な水質改善をを図るものである。本発明者は、
先に特開昭62−186730号に係る発明をし、非吸
水性の化学繊維などからなる非吸水材を水面に浮かべる
ことにより、水中溶存酸素量を増加させることを提案、
又特開平5−293号に係る発明をし、好気性微生物を
担持し、又は担持しうる疎水性の多孔質材を対象水と接
触させることを特徴とする水質改善法を提案したが、今
般、先発明の反省から一歩を進め、電気刺激的と分解作
用を加えることで究極的な還元作用を加えた水質改善方
法を発見し本発明に到達した。
(1) Concept Based on the above concept, the electric power is added to the conventional method to achieve the ultimate water quality improvement by using the three functions of biological treatment and physical property improvement method and reductive improvement method. . The inventor
The invention relating to JP-A-62-186730 was previously proposed, and it is proposed to increase the amount of dissolved oxygen in water by floating a non-water-absorbing material such as a non-water-absorbing chemical fiber on the water surface.
In addition, the invention according to Japanese Patent Laid-Open No. 5-293 proposes a method for improving water quality, which is characterized in that a hydrophobic porous material carrying or supporting aerobic microorganisms is brought into contact with target water. The present inventors have reached the present invention by taking a step from the reflection of the previous invention and finding a method for improving water quality in which an ultimate reducing action is added by adding electrostimulation and decomposition action.

【0006】(2) 概要 電気を用いて微生物の持つ走性を利用して、生物的水質
改善方法。電気刺激を用いて水分子集団の細分化を図り
物性変化による水質改善方法。電気分解作用による水質
還元を図り、酸化還元による水質改善方法。以上3ツの
効果を有効的に用いた水質改善方法である。
(2) Overview A method for improving biological water quality by utilizing the mobility of microorganisms by using electricity. A method for improving water quality by changing physical properties by subdividing a water molecule group using electrical stimulation. A method of improving water quality by redox by reducing water quality by electrolysis. This is a water quality improvement method that effectively uses the above three effects.

【0007】水分子集団の細分化 通常の水(H2O)は単独でなく、水分子集団(クラス
ター)を作り、約30〜50個が重合し合っている。即
ち、ブドウの房のように繋がり合っているが、水質が汚
れる程クラスターの集団化が大きくなる。従って、クラ
スターの数値の大、小が水質の一ツのバロメーターとな
っている。本発明は、この集団化を電気刺激により小集
団化する。いわゆるミリオン、クラスター化を図り、大
集団化クラスター(集合内)の有害物質を「放出と沈
澱」作用により水質を改善するものである。又最近の化
学雑誌や文献によるとクラスターの5〜6個の小集団の
水質は、最適でクラスターの小さい水を用いる地方の人
は延命であると報じ、特にタンパクや澱粉質の酵素反応
には抜群の効果があると発表している。
Subdivision of water molecule group Normal water (H2O) is not a single water molecule but a water molecule group (cluster), about 30 to 50 of which are polymerized with each other. That is, although they are connected like a bunch of grapes, the more the water quality becomes dirty, the greater the clustering of clusters. Therefore, the large and small values of the cluster are one barometer of water quality. The present invention subgroups this population by electrical stimulation. So-called millions and clusters are aimed at improving the water quality by the action of "releasing and precipitating" harmful substances in large clusters (within groups). According to recent chemical journals and literature, the water quality of a small group of 5 to 6 clusters is optimal, and local people who use water with small clusters are expected to live longer, especially for enzymatic reactions of proteins and starches. It has announced that it has an outstanding effect.

【0008】微生物と走性 本発明で言う微生物とは、バクテリア、細菌、細胞等で
肉眼で見えない生物を言う。走性とは、自由な運動をす
る生物が外からの刺激に対して一定方向に運動すること
を言う。本発明で言う走電性とは、生物が電気刺激に対
して電極に集中するのが正の走性で、反発して遠ざかる
のが負の走性である。微生物の大半は、陽極電気(+)に
は正の走電性があり、陰極電気(−)には負の走電性があ
る。文献によると走気性とか、走化性等の説もあり、不
明確な現状にあるが、本発明では、走電性に統一して説
明する。
Microorganisms and chemotaxis The microorganisms referred to in the present invention are organisms which are invisible to the naked eye, such as bacteria, bacteria and cells. Chemotaxis means that an organism that moves freely moves in a certain direction in response to an external stimulus. The electrophoretic property referred to in the present invention means that a living organism concentrates on an electrode in response to an electrical stimulus, which is positive chemotaxis, and repels away from the living organism is negative chemotaxis. Most of the microorganisms have positive electrophoretic properties for anodic electricity (+) and negative electrophoretic properties for cathodic electricity (-). According to the literature, there is a theory of chemotaxis, chemotaxis, etc., which is unclear at present.

【0009】電気分解と還元作用 対象水中に電極を浸して通電すると電気分解作用が起き
る。即ち、陽電極(+)表面から酸素が発生し、陰電極
(−)表面から水素が発生する。この発生水素に対して空
気中の酸素をエアーポンプで送り、水素結合させる(衝
突)方法が還元作用である。即ち、陰極表面に対して空
気中の酸素を与えると新しい水(H2O)ができる。こ
の新しい水が、電極周辺より拡散して水質改善作用が起
こり対象水(酸化)より新しい還元水に改善されてく
る。
Electrolysis and reduction action Electrolysis action occurs when the electrode is immersed in the target water and electricity is applied. That is, oxygen is generated from the positive electrode (+) surface, and the negative electrode
(-) Hydrogen is generated from the surface. The reducing action is a method in which oxygen in the air is sent to the generated hydrogen by an air pump to cause hydrogen bonding (collision). That is, when oxygen in the air is given to the cathode surface, new water (H2O) is formed. This new water diffuses from the periphery of the electrode and has an effect of improving the water quality, so that the reduced water becomes newer than the target water (oxidation).

【0010】適用電源 太陽電池、乾電池、バッテリー(蓄電地)、AC電気を
DC電気に変換した直流電気で、1Vより24Vまでの
電源を主とした直流電気。
Applicable power source A solar cell, a dry cell, a battery (electricity storage place), a direct current electricity obtained by converting AC electricity into DC electricity, and a direct current electricity mainly for a power source from 1V to 24V.

【0011】微生物の棲処 化学繊維で作られた多孔質材が好ましく、例えば、編組
物、織成物、不織布等で作られた材質で電極のカバーに
適した物であればよい。又発包材やスポンジ、化学綿等
を加えた棲処でもよい。
Microorganisms Porous materials made of chemical fibers are preferable, and for example, materials made of braid, woven fabric, non-woven fabric and the like may be used as long as they are suitable for covering the electrodes. It may also be a habitat with a wrapping material, sponge or chemical cotton added.

【0012】用途 鑑賞用水槽、池、河川、湖沼、海洋及び養魚池、生簀、
プール等の水質改善に加え、水質の低下した排水溝な
ど、水質低下防止、改善に役立つ、海、川の浄化に省エ
ネルギー的水質向上手段として広く利用できる。
Uses Appreciation aquariums, ponds, rivers, lakes, oceans and fishponds, cages,
In addition to improving the water quality of pools, etc., it can be widely used as an energy-saving water quality improving means for purifying the sea and rivers, which helps prevent and improve water quality deterioration such as drainage ditches with degraded water quality.

【0013】エアー(空気)ポンプ 本発明に於いて、エアーポンプは池等の流れの悪い対象
水を主として用いる。水の流れと微生物の増殖、還元作
用を促進するもので、水中溶存酸素の増加に役立てるも
のである。
Air Pump In the present invention, the air pump mainly uses target water having a bad flow such as a pond. It promotes the flow of water, the growth of microorganisms, and the reducing action, and is useful for increasing dissolved oxygen in water.

【0014】電極(電極板) 水中に帯電させる関係から、酸化しにくい材質で、電導
率の優れたものが最適である。例えば、アルミ、アルミ
合金、ステンレス等のパイプ、平角棒、平板等が最適で
ある。
Electrode (Electrode Plate) From the viewpoint of being charged in water, a material that is hard to oxidize and has an excellent electric conductivity is optimal. For example, a pipe made of aluminum, aluminum alloy, stainless steel, a flat bar, a flat plate or the like is most suitable.

【0015】適用形態 対象水中に両電極を浸して微電流を通電する。即ち、水
質を電気刺激的な方法で改善するという至極単純な構成
である。而しながら、本形態には、3ツの有効的手段が
内在している。(1)走電性を用いた微生物の増殖。(2)
水分子集団の細分化。(3)電気分解作用による還元作用
である。この有効的な手段を実施する場合には種々の形
態がある。例えば、水槽、プール、池、湖沼等のアオコ
の発生防止とか、魚礁にセットして集魚と生長に用いる
とか、池簀近傍にセットして赤潮対策に備えるとかの用
法で、金魚の水槽から海洋に至る広範な利用形態で、し
かも水中に浮かせたり、沈めたり、流したり、袋状、筒
状、シート状、円形状等の方法で対象水に合致した合理
的な形態がある。又用法についても、陽電極にエアーポ
ンプで酸素を与えると微生物の増殖が促進され、両電極
の大、小及び電極の間隔で電気刺激の調整も可能であ
る。又電極の切換((+)、(−))えで、微生物を集めた
り、放逐したりすることも容易に出来るから、対象水に
合致した対策で実施すればよい。又ポンプの有、無につ
いては効果的に差があるものの時間を要することで浄化
作用を促進することができる。
Application form Both electrodes are immersed in the target water and a small current is passed through. That is, it is an extremely simple structure in which the water quality is improved by an electrically stimulating method. However, in this embodiment, three effective means are inherent. (1) Proliferation of microorganisms using electrophoretic properties. (2)
Subdivision of water molecule population. (3) It is a reducing action due to the electrolysis action. There are various modes for implementing this effective means. For example, you can use it to prevent the occurrence of water-bloom in water tanks, pools, ponds, lakes and marshes, set it on fish reefs for collecting and growing fish, or set it near ponds to prepare for red tide measures. There is a wide range of usages, such as floating, submerging, pouring, bag-like, tubular, sheet-like, and circular shapes that are suitable for the target water. Regarding the usage, when oxygen is applied to the positive electrode with an air pump, the growth of microorganisms is promoted, and it is possible to adjust the electrical stimulation depending on the size of both electrodes and the interval between the electrodes. In addition, it is possible to easily collect or remove the microorganisms by switching the electrodes ((+), (-)). Further, although there is an effective difference between the presence and absence of the pump, it takes time to accelerate the purification action.

【0016】[0016]

【作用】本発明は、対象水に対する電気的な手段によ
る、3ツの水質改善策が内在している。即ち、走電性を
用いた微生物の増殖で、生物的な水質改善と電気刺激に
よる水分子集団の細分化でクラスター内の汚物の放出と
沈澱による水質改善と電気分解による陰電極表面から発
生する水素と空気中の酸素をエアーポンプを介して発生
水素に衝突させて「水素結合」を容易にした還元作用に
よる水質改善(新しい水H2Oを造る方法)である。還
元作用とは、対象水(酸化水)に対して、対象水中内に
於いて新しい水造りを繰り返し酸化前の水質に還元させ
る方法である。微生物の走性が生まれるのは、好環境を
示唆するもので正の走性が生まれ、負の走性は、悪環境
を示唆するもので負の走性が生まれる。従って、微生物
は好環境に集まり繁殖が起こり発展する。即ち、増殖コ
ロニー化、分散化に発展する。従って、陽電極の周辺か
ら微生物と対象水との接触面積が拡大されるから水質浄
化作用が促進されてくる。又電気刺激による水分子集団
の細分化で、水より軽い物質は、空気中に放出され、重
い物は沈澱されてくるから浄化作用も促進されてくる。
従って、生物的浄化と物性的浄化と還元的浄化の3ツの
総合的な効果が生じてくるのである。又その後の経過で
も本発明を用いた改善水(浄化水)は、従来方式の対象
療法的な浄化水と比較すると、改善前の汚水に復元する
時間が圧倒的に長い特徴もある。
The present invention has three inherent water quality improvement measures by electric means for the target water. That is, the growth of microorganisms using electrophoretic properties improves the biological water quality and subdivides the water molecule population by electrical stimulation to improve the water quality by discharging and precipitating filth in the cluster and generate it from the negative electrode surface by electrolysis. It is a method of improving water quality (a method of producing new water H2O) by reducing action by making hydrogen and oxygen in the air collide with generated hydrogen through an air pump to facilitate "hydrogen bonding". The reducing action is a method of repeatedly reducing new water formation in the target water to the water quality before the oxidation with respect to the target water (oxidized water). The tacticity of microorganisms is produced by indicating a favorable environment and positive chemotaxis is produced, and by the negative chemotaxis is indicative of bad environment and negative chemotaxis is produced. Therefore, the microorganisms gather in a favorable environment, reproduce and develop. In other words, it grows into colonies and disperses. Therefore, the contact area between the microorganism and the target water is increased from the vicinity of the positive electrode, so that the water purification action is promoted. In addition, by subdividing the water molecule population by electrical stimulation, substances lighter than water are released into the air, and heavy substances are precipitated, so the purification action is also accelerated.
Therefore, three comprehensive effects of biological purification, physical purification, and reductive purification occur. Further, even after that, the improvement water (purified water) using the present invention has a feature that the time required to restore the wastewater before improvement is overwhelmingly longer than that of the conventional target treatment purified water.

【0017】[0017]

【実施例】【Example】

実験及び実施例 以下実施例により発明実施の態様を説明するが、例示は
単なる説明用のもので発明思想の制限又は限定を意味す
るものではない。
Experiments and Examples Embodiments of the present invention will be described below with reference to examples, but the examples are merely for the purpose of explanation and do not imply any limitation or limitation of the inventive idea.

【0018】実験(1)走電性と増殖の実験例 図1に示すように、直径120mm、深さ120mmのプラ
スチック容器3に水道水約400ccを入れた容器3の実
験用と同じ容器3のコントロール用を設けて実験した。
実験用容器3の左、右の内側にステン棒(ステンレス)
2、長さ150mm、直径5mmを直立に固定し、電池BO
X1に収納した乾電池3Vの電源を用いて、右側ステン
棒2に(+)端子を接続、左側のステン棒2に(−)端子を
接続して通電すると、約5時間後には右側ステン棒2に
微生物4が集り始め、12時間後には真白くなる程集結
する。反対の左側(−)ステン棒2には何んの変化もな
い。又対象実験のコントロール容器3には何の変化もな
い。
Experiment (1) Experimental Example of Electrophoresis and Proliferation As shown in FIG. 1, a plastic container 3 having a diameter of 120 mm and a depth of 120 mm was filled with about 400 cc of tap water. An experiment was carried out by providing a control.
Stainless steel rods (stainless steel) inside the left and right sides of the experimental container 3
2, length 150mm, diameter 5mm fixed upright, battery BO
Using the power source of the dry battery 3V housed in X1, connect the (+) terminal to the right stainless steel rod 2 and the (-) terminal to the left stainless steel rod 2 and turn on the power. Then, the microorganisms 4 start to collect, and after 12 hours, they become concentrated as they become white. There is no change in the opposite left (-) stainless steel rod 2. Further, there is no change in the control container 3 of the target experiment.

【0019】実験例 上記、実験例(1)のステン棒2の電極端子を反対に入れ
変えて接続し、12時間後に調べてみると、左側(+)の
ステン棒2は真白くなり、右側(−)のステン棒2は元の
ステン棒2に返り全く逆になっていた。従って、(1)
の実験例から走電性の有、無と時間と共に増殖する証明
の確認ができる。
Experimental Example When the electrode terminals of the stainless steel rod 2 of the above-mentioned experimental example (1) were reversed and connected, and after 12 hours, a check was conducted, the left (+) stainless steel rod 2 became white and the right one. The (-) stainless steel rod 2 returned to the original stainless steel rod 2 and was completely reversed. Therefore, (1)
From the experimental example, it is possible to confirm the proof that electrophoretic property is present or not and that it grows with time.

【0020】水分子集団の細分化実験 図2に示すトユ5を用いて実験水と対象水との比較実験
をしてみた。長さ50cm、直径約10cm(半円形状)の
トユ5の内部に、編組シート6を全体に敷き棲処とし、
その上に陽極板(+)7と約3cm間隔を取って陰極板(−)
8の各ステンレス板を取り付けて、水道の蛇口9から約
15度の傾斜で水を流すと陽極板(+)7を通って陰極板
(−)8を水が通過する仕組を作り、電源として乾電池
4,5V(太陽電池)10を各電極7、8に配線して水道
水を流すと約3〜7ミリアンペアの電流が流れる。従っ
て、同トユ5を用いて、通電した水と通電しない水、い
わゆる実験水と対照水を採取して蒸発実験をしてみた。
Experiment for subdividing water molecule population A comparative experiment between experimental water and target water was carried out using Toyu 5 shown in FIG. Inside the tou 5 having a length of 50 cm and a diameter of about 10 cm (semi-circular shape), a braided sheet 6 is laid as a whole and used as a habitat.
Anode plate (+) 7 and cathode plate (-) 7 cm apart from it
Attach each stainless steel plate 8 and feed water from the tap 9 at an angle of about 15 degrees and pass through the anode plate (+) 7 to the cathode plate.
When a mechanism for allowing water to pass through (-) 8 is made, and a dry battery 4,5V (solar battery) 10 is wired to each electrode 7, 8 as a power source and tap water is supplied, a current of about 3 to 7 milliamperes flows. Therefore, using the same tou 5, an evaporation experiment was conducted by collecting water that was energized and water that was not energized, so-called experimental water and control water.

【0021】実験方法と蒸発試験 各10gの容器に各200gの水を入れて経時的に重量
測定をして蒸発量を調べてみた。 蒸発試験 経時間 対象水(水道水) 実験水(通電水) 5時間後 1,12g 1,01g 10時間後 3,23g 2,22g 30時間後 8,42g 5,98g 48時間後 16,66g 12,06g 実験の結果、48時間後には蒸発量が4,6g少なかっ
たことは、水の物性的変化を示している。即ち、水分子
集団(クラスター)が細分化されたため水素結合が強ま
り蒸発が減少したものである。又比重の実験は試さなか
ったが目で見た感じで重くなっている感じがした。又蒸
発が水道水と同率になるのか追跡調査したところ約75
時間で平常水に返ったが、水は「構造記憶」になってい
る為に起こる現象である。(氷からとけた水は、3〜6
日後に平常水になる。「水の科学」ペトリヤノフ氏著よ
り)
Experimental Method and Evaporation Test 200 g of water was placed in each 10 g container, and the weight was measured over time to examine the amount of evaporation. Evaporation test Elapsed time Target water (tap water) Experimental water (energized water) 5 hours later 1,12g 1,01g 10 hours later 3,23g 2,22g 30 hours later 8,42g 5,98g 48 hours later 16,66g 12 As a result of the experiment, it was found that the evaporation amount was less by 46 g after 48 hours, which indicates a change in the physical properties of water. That is, since the water molecule group (cluster) is subdivided, hydrogen bonds are strengthened and evaporation is reduced. Although I did not try the specific gravity experiment, I felt that it was heavy visually. A follow-up survey was conducted to see if the evaporation rate was the same as tap water.
It returned to normal water in time, but this is a phenomenon that occurs because water is a "structural memory." (Water melted from ice is 3-6
It becomes normal water after a day. (From "Science of Water" by Petriyanov)

【0022】還元作用の実験 図3に示す水槽11(50 )に、電池BOX12より管14
の内部に陽極線(+)を配線し、上部に複数の小孔18を開
け、内部に編組シート6を貼着した陽極パイプ16と連結
具15で連結し、同じく電池BOX12より管14の内部に陰
極線(−)、エアーポンプ13よりホース20を管14の内部に
挿入し、上部に複数の小孔18を開け、内部にエアースト
ン19を挿入した陰極パイプ17と管14を連結具15で連結
し、又陽極パイプ16と陰極パイプ17を固定するため固定
具21で固定し、水槽11の底に配置して、住吉大社内の池
からアオコの発生している汚水50 を水槽11に入れ
て、電極の陰極パイプ17の先端からエアーポンプ13を介
して酸素を陰極パイプ17から発生する水素に与える仕組
みにセット、電源としてエアーポンプ13はAC(100
V)を用い、電極は電池BOX12に収納した乾電池(単
一)4,5Vで配線して通電すると、陰極パイプ17より
水泡が発生し、電極には約10〜20ミリアンペアが流
れるが、実施後約5時間経つと陰極パイプ17周辺より次
第に透明度を増して10時間後には、全く見違える程の
透明度に改善されるが、これは陰極パイプ17から発生す
る新しい水のみではない。アオコ(プランクトン)は陽
極の走電性の作用により陽極サイドの微生物が集中しコ
ロニー化するため沈澱劣化する。そこに新しい還元水が
拡散されるから、透明度の高い光沢の水に改善されるの
である。改善された水と全く新しい水道水各400ccを
プラスチック容器に採取して、窓際に置いてアオコの発
生テストをしてみた。 (1) 水道水は、14日頃より青くなり始め、30日で
アオコの発生が確認できる。 (2) 改善水は、60日経ってもアオコの発生が確認で
きなかった。
Experiment of reduction action In the water tank 11 (50) shown in FIG.
The anode wire (+) is wired inside, a plurality of small holes 18 are opened in the upper part, and the anode pipe 16 having the braided sheet 6 attached inside is connected to the inside by a connecting tool 15. Similarly, from the battery BOX 12 inside the tube 14. Cathode wire (-), insert the hose 20 from the air pump 13 into the inside of the pipe 14, open a plurality of small holes 18 in the upper part, and connect the cathode pipe 17 and the pipe 14 with the air stone 19 inside with the connector 15. Connect and fix the anode pipe 16 and the cathode pipe 17 with fixtures 21 and place them at the bottom of the water tank 11, and put the waste water 50 from which water is generated from the pond inside the Sumiyoshi University into the water tank 11. Then, oxygen is supplied to hydrogen generated from the cathode pipe 17 from the tip of the cathode pipe 17 of the electrode via the air pump 13, and the air pump 13 is used as a power source (AC (100
V) and the electrodes are wired by a dry cell (single) 4,5 V housed in a battery BOX12 and energized, water bubbles are generated from the cathode pipe 17 and about 10 to 20 milliamperes flow to the electrodes. After about 5 hours, the transparency gradually increased from around the cathode pipe 17 and after 10 hours, the transparency was improved to a completely different level, but this is not the only new water generated from the cathode pipe 17. Blue-bloom (plankton) precipitates and deteriorates because microorganisms on the anode side concentrate and colonize due to the electrophoretic action of the anode. Since new reduced water is diffused there, the water is improved to have high transparency and gloss. We collected 400cc each of improved water and completely new tap water in a plastic container and placed it near the window to test the generation of water-bloom. (1) Tap water begins to turn blue around 14 days, and the occurrence of water-bloom can be confirmed in 30 days. (2) In the improved water, generation of water-bloom was not confirmed even after 60 days.

【0023】実施例(1) 図4に示すように、家庭排水の流れる小さな河川で、川
巾約1m、3面がセメント構造で、水深が約15cm〜2
0cmの汚水で臭気の漂う河川24に、アルミ板50cm×1
00cmを川底に3枚10cm間隔で設置、その上に化学繊
維6(ポリプロピレン)を敷き固定する。いわゆる水底
に陽極板23(+)、陰極板22(−)、陽極板23(+)……の電
極を設けて通電する仕組みにする。電源は、太陽電池、
乾電池、バッテリー等適宜な電源でよいが、実験は、電
池BOX12に収納した乾電池(単一)4,5Vを用いた
が、実施後48時間頃から改善作用が確認されて来て、
5日目には、当初のBODも50PPMから6PPMに
改善された。
Example (1) As shown in FIG. 4, a small river in which domestic drainage flows, the river width is about 1 m, the three sides have a cement structure, and the water depth is about 15 cm to 2 cm.
Aluminum plate 50 cm x 1 in river 24 where odor is drifting from 0 cm of dirty water
Three pieces of 00 cm are installed on the riverbed at intervals of 10 cm, and chemical fiber 6 (polypropylene) is laid and fixed on it. The so-called water bottom is provided with the electrodes of the anode plate 23 (+), the cathode plate 22 (−), the anode plate 23 (+), ... The power source is a solar cell,
Although an appropriate power source such as a dry battery or a battery may be used, in the experiment, the dry battery (single) 4,5V stored in the battery BOX12 was used, but the improvement effect was confirmed from about 48 hours after the implementation,
On day 5, the initial BOD also improved from 50 PPM to 6 PPM.

【0024】実施例(2) 図6に示すように、陽極パイプ16の上部に小孔18を開
け、内部に編組シート6を貼着し、陰極パイプ17の上部
に小孔18を開け、内部にエアーストン19を収納した電極
パイプ16、17を約10m×20mの池に入れて水質改善
の実施をした。池巾の小さい10m側より4mの電極パ
イプ16,17を左、右の土手より6ケ所設置、各電極パイ
プ16,17の間隔を約10cm宛取り、先端を池に入れ土手
より電池BOX12に収納した乾電池(単一)4,5Vで
各パイプ16、17に通電した。又陰極パイプ17の先端近傍
よりエアーポンプ13(AC)でエアーレイションをして
還元作用を促進したところ30日で見違える程透明度が
アップ、P,Hも4,5から6,8まで回復した。
Embodiment (2) As shown in FIG. 6, a small hole 18 is formed in the upper part of the anode pipe 16, the braided sheet 6 is attached to the inside, and a small hole 18 is formed in the upper part of the cathode pipe 17. The electrode pipes 16 and 17 containing the Airstone 19 were put into a pond measuring about 10m x 20m to improve the water quality. Electrode pipes 16 and 17 of 4m from the side with a small pond width are installed at 6 places from the banks on the left and right. The distance between the electrode pipes 16 and 17 is about 10cm. Put the tip into the pond and store in the battery box 12 from the bank. The pipes 16 and 17 were energized by the dry cell (single) 4,5V. Further, when air reduction was promoted by an air pump 13 (AC) from the vicinity of the tip of the cathode pipe 17, the transparency was improved to the extent that it could be mistaken in 30 days, and P and H were recovered from 4,5 to 6,8.

【0025】実施例(3) 図2に示すトユ5(水分子集団の細分化に用いた)を用
いて水田約1,000m2の水口に設置して約6〜8ミリ
アンペアの電流を流して実施(大阪府豊能郡豊能町)、
期間は、7月1日より9月10日まで実施してみた。通
常より約20%の収穫があった。又品質も1等米であっ
た。結果は、水分子集団の細分化が、酵素反応を促進し
て生長及び収穫を醸成したものである。
Example (3) Using Toyu 5 (used for subdividing the water molecule population) shown in FIG. 2, the paddy was installed at a water mouth of about 1,000 m2 and a current of about 6 to 8 mA was applied. (Toyono-cho, Toyono-gun, Osaka Prefecture),
The period was from July 1st to September 10th. The harvest was about 20% higher than usual. The quality was also first-class rice. The result is that the subdivision of the water molecule population promotes enzymatic reactions to promote growth and harvest.

【0026】実施例(4) 図3に示す電極パイプ16,17を金魚の水槽11(50 )
に設置して、電池BOX12に収納した乾電池(単一)3
Vで通電、約12ミリアンペアを流し、陰極パイプ17の
上部一面に複数個の小孔18を開けて、エアーポンプ13か
ら酸素を送る還元作用を用い、陽極パイプ16から微生物
の増殖、電気刺激によるクラスターのミリオン化を図れ
ば、約3ケ月の水替えは不用であり、餌も一日一回やれ
ばよい。同金魚槽11で通常の方法では7日〜10日間が
水替えの限度である。又実施槽11の金魚の動きと金魚の
色艶は格段の差が生じてきた。
Example (4) The electrode pipes 16 and 17 shown in FIG.
Battery (single) 3 installed in the battery box 12
Electricity is applied at V, about 12 milliamperes are flowed, a plurality of small holes 18 are opened in the entire upper surface of the cathode pipe 17, and a reducing action of sending oxygen from the air pump 13 is used. If the cluster is made into millions, it is not necessary to change the water for about 3 months, and it is sufficient to feed once a day. In the same method as the goldfish tank 11, the water change is limited to 7 to 10 days by the usual method. Moreover, the movement of the goldfish in the implementation tank 11 and the color and luster of the goldfish have made a marked difference.

【0027】実施例(5) 図5に示すように、電極帯25(PPベルト)の両端に電
線(+)、(−)を配線しステンレス製の陽極板27(+)と陰
極板28(−)を約10m×25mの溜池に4本を25m巾
の長い堤防より相対する堤防に設置し、電池BOX12に
収納した乾電池(単一)6Vを用いて約10〜20ミリ
アンペアを各電極帯25に通電すると、アオコで汚れた溜
池も3日〜5日で透明な池に様変わりして来た。(4,
5PHが6,5になった)
Embodiment (5) As shown in FIG. 5, electric wires (+) and (-) are wired at both ends of an electrode strip 25 (PP belt), and an anode plate 27 (+) and a cathode plate 28 ( -) Are installed in a reservoir of about 10m x 25m, and four of them are installed on the opposite levee from a 25m-long levee. When the electricity was turned on, the reservoir that was stained with blue water turned into a transparent pond within 3-5 days. (4,
5PH became 6,5)

【0028】例示 本発明の例示は多岐にわたるが、例えば、プール、池な
どにあっては、図7に示すように電極ベルト29を(+)、
(−)円筒電極30に挿入し、該円筒電極30の一側面に電線
26を電線止め具31で係止した帯状にセットされた電極ベ
ルト29を対象水中に浸し(+)、(−)、(+)又は(+)(−)
と並べて通電すると電極ベルト29は、風波や流れによっ
て対象水中で揺動作用が起こる。従って、水上に浮体を
セットして置けば、空気中の酸素が対象水中に溶存して
水質の改善作用が起こる。所望により、オイル、フエン
ス等に電極をセットして通電する方法で湖沼や海洋に於
いてのアオコや赤潮対策の一環として発生防止に役立つ
ものである。
Exemplification Although the present invention is extensively illustrated, for example, in a pool, a pond, etc., an electrode belt 29 (+), as shown in FIG.
(-) Insert into the cylindrical electrode 30 and wire on one side of the cylindrical electrode 30
The electrode belt 29 set in the shape of a band in which 26 is locked by the wire stopper 31 is immersed in the target water (+), (-), (+) or (+) (-)
When the electrodes are energized side by side, the electrode belt 29 oscillates in the target water due to wind waves and flow. Therefore, if the floating body is set and placed on the water, oxygen in the air is dissolved in the target water to improve the water quality. If desired, a method of setting an electrode on oil, fluence, etc. to energize it is useful for preventing the occurrence of water-bloom and red tide in lakes and oceans.

【0029】図8に示すように、上蓋35の中央部にエア
ーポンプ13よりエアーを送るホース20の挿入穴と内部よ
りエアーを排出する小穴37を設けた筒状電極(+)32と内
部に編組シート6を取付け、底蓋36に前記と同じ作用を
する小穴35を設けた筒状電極(−)35との間にエアースト
ン19を配置し、外筒34で外れないようにカバーする。ま
た外筒34には電源より両筒状電極32、33に配線する電線
26を取り付ける。両筒状電極32,33の中央部(間隙)に
エアーストン19をセットして通電と共にエアーポンプ13
でエアーレイションすると、陽電極の微生物と陰電極の
水素結合(H2O)の促進が同時に起こるから、水質改
善効果が倍加される。所望により、公園などの噴水口に
電極を設けて(図8方式)通電すれば、噴水と浄水効果
が期待できる。又本発明の実施テストに於いて特筆に価
する変化が起きていることが判った。例えば、川に設置
した陽極板やパイプに魚類が集まること(習性と思われ
る)カワニナの生長がすこぶる早いこと。金魚の生長が
良いこと。等を総合的に判断すると、養殖魚に有効的で
あること。ホタルの復活に極めて有効的であること。そ
の他生態形の復元にも有効的なものと考えられるから、
水質改善と共に環境改善の一環として貢献できるもので
ある。
As shown in FIG. 8, a cylindrical electrode (+) 32 having an insertion hole for the hose 20 for sending air from the air pump 13 and a small hole 37 for discharging the air from the inside is provided in the center of the upper lid 35 and the inside. The braided sheet 6 is attached, and the air stone 19 is arranged between the braided sheet 6 and the cylindrical electrode (-) 35 having the small hole 35 having the same function as described above, and the outer cylinder 34 covers the air stone 19 so as not to come off. In addition, the outer tube 34 has an electric wire that is wired from the power source to both tubular electrodes 32 and 33.
Install 26. Air stone 19 is set in the central portion (gap) of both cylindrical electrodes 32, 33 to energize and air pump 13
When aeration is carried out, the microorganisms of the positive electrode and the hydrogen bonding (H2O) of the negative electrode are promoted at the same time, so that the water quality improving effect is doubled. If desired, if an electrode is provided at the fountain port of a park or the like (system shown in FIG. 8) and electricity is applied, a fountain and a water purification effect can be expected. Further, it was found that a remarkable change occurred in the practice test of the present invention. For example, the gathering of fish on the anode plate or pipe installed in the river (probably a habit) that the growth of the kawaina is extremely fast. Good growth of goldfish. It should be effective for farmed fish when comprehensively judging the above. Be extremely effective in reviving fireflies. It is thought to be effective in restoring other ecological forms,
It can contribute to the improvement of water quality as part of environmental improvement.

【0030】[0030]

【発明の効果】水の中で新しい水を造るという発明であ
る。即ち、電気を用いて微生物を集めて増殖する方法と
水分子集団を細分化して物性的な水質改善と電気分解作
用を応用して新しい水造り方法の3ツの有効的な効果
は、全く画期的なものであり、経費も手間もかからず、
自然環境にもやさしく、しかも効果は抜群に期待出来る
発明である。従って、これからの地球的環境の保全や改
善に大いに寄与するものである。
EFFECT OF THE INVENTION The invention is to create new water in water. That is, the three effective effects of the method of collecting and proliferating microorganisms using electricity and the method of water making by subdividing the water molecule group to improve physical properties of water and applying electrolysis are completely different from each other. It is a term, it does not cost or labor,
It is an invention that is kind to the natural environment and can be expected to have outstanding effects. Therefore, it will greatly contribute to the preservation and improvement of the global environment.

【図面の簡単な説明】[Brief description of drawings]

【図1】本発明の実験(1)走電性と増殖の実験例を示す
断面図。
FIG. 1 is a cross-sectional view showing an experiment of electrokinetic and proliferation of the present invention (1).

【図2】本発明の水分子集団の細分化実験例を示す斜視
図。
FIG. 2 is a perspective view showing an example of an experiment for subdividing a water molecule population of the present invention.

【図3】本発明の還元作用の実験例を示す斜視図。FIG. 3 is a perspective view showing an experimental example of the reducing action of the present invention.

【図4】本発明の実施例(1)を示す斜視図(模型)。FIG. 4 is a perspective view (model) showing an embodiment (1) of the present invention.

【図5】本発明の実施例5を示す斜視図。FIG. 5 is a perspective view showing a fifth embodiment of the present invention.

【図6】本発明の実施例(2)を示す配線図。FIG. 6 is a wiring diagram showing an embodiment (2) of the present invention.

【図7】本発明の例示を示す斜視図。FIG. 7 is a perspective view showing an example of the present invention.

【図8】本発明の例示を示す斜視図。FIG. 8 is a perspective view showing an example of the present invention.

【図9】本発明の例示を示す半断面図。FIG. 9 is a half sectional view showing an example of the present invention.

【符号の説明】[Explanation of symbols]

1 電池BOX 2 ステン棒 3 容器 4 微生物 5 トユ 6 編組シート 7 陽極板(+) 8 陰極板(−) 9 水道 10 太陽電池 11 水槽 12 電池BOX 13 エアーポンプ 14 管 15 連結具 16 陽極パイプ(+) 17 陰極パイプ(−) 18 小孔 19 エアーストン 20 ホース 21 固定具 22 陽極板(+) 23 陰極板(−) 24 コンクリート(河川) 25 電極帯(PPベルト) 26 電線(+、−) 27 陽極板(+) 28 陰極板(−) 29 帯状ベルト 30 円筒電極 31 電線止め具 32 筒状電極(+) 33 筒状電極(−) 34 外筒 35 上蓋 36 底蓋 37 小穴 1 Battery BOX 2 Stainless Steel Rod 3 Container 4 Microorganism 5 Toyu 6 Braided Sheet 7 Anode Plate (+) 8 Cathode Plate (−) 9 Water 10 Solar Cell 11 Water Tank 12 Battery BOX 13 Air Pump 14 Tube 15 Connector 16 Anode Pipe (+ ) 17 Cathode pipe (-) 18 Small hole 19 Airstone 20 Hose 21 Fixture 22 Anode plate (+) 23 Cathode plate (-) 24 Concrete (river) 25 Electrode strip (PP belt) 26 Electric wire (+,-) 27 Anode plate (+) 28 Cathode plate (-) 29 Strip belt 30 Cylindrical electrode 31 Wire stopper 32 Cylindrical electrode (+) 33 Cylindrical electrode (-) 34 Outer cylinder 35 Top lid 36 Bottom lid 37 Small hole

Claims (3)

【特許請求の範囲】[Claims] 【請求項1】 対象水中に電極を浸して電気刺激的分解
作用を特徴とした電気による水質改善方法。
1. A method for improving water quality by electricity, which is characterized in that an electrode is immersed in target water and electrostimulative decomposition is performed.
【請求項2】 電極に多孔質材を用いて微生物の棲処を
設ける請求項1の電気による水質改善方法。
2. The method for improving water quality by electricity according to claim 1, wherein a porous material is used for the electrode to provide a habitat for microorganisms.
【請求項3】 電極にエアーポンプを設ける請求項1の
電気による水質改善方法。
3. The method for improving water quality by electricity according to claim 1, wherein an air pump is provided on the electrode.
JP33299894A 1994-12-14 1994-12-14 Water quality improvement by electricity Pending JPH08168770A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP33299894A JPH08168770A (en) 1994-12-14 1994-12-14 Water quality improvement by electricity

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP33299894A JPH08168770A (en) 1994-12-14 1994-12-14 Water quality improvement by electricity

Publications (1)

Publication Number Publication Date
JPH08168770A true JPH08168770A (en) 1996-07-02

Family

ID=18261154

Family Applications (1)

Application Number Title Priority Date Filing Date
JP33299894A Pending JPH08168770A (en) 1994-12-14 1994-12-14 Water quality improvement by electricity

Country Status (1)

Country Link
JP (1) JPH08168770A (en)

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2006159112A (en) * 2004-12-08 2006-06-22 National Institute Of Advanced Industrial & Technology Microorganism carrying battery combined electrolyzer, and electrolytic method using the same
JP2007014952A (en) * 2005-06-10 2007-01-25 Iijima Hideyuki Purification method of water polluted with water-bloom, or preventive method of pollution of water by water-bloom
JP2011050318A (en) * 2009-09-02 2011-03-17 Oec Alpha:Kk Water with purification function and method for utilizing the same
WO2013094959A1 (en) * 2011-12-22 2013-06-27 한국생산기술연구원 Apparatus for manufacturing ultra-micro structure for preventing corrosion in cylindrical stainless steel

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2006159112A (en) * 2004-12-08 2006-06-22 National Institute Of Advanced Industrial & Technology Microorganism carrying battery combined electrolyzer, and electrolytic method using the same
JP2007014952A (en) * 2005-06-10 2007-01-25 Iijima Hideyuki Purification method of water polluted with water-bloom, or preventive method of pollution of water by water-bloom
JP2011050318A (en) * 2009-09-02 2011-03-17 Oec Alpha:Kk Water with purification function and method for utilizing the same
WO2013094959A1 (en) * 2011-12-22 2013-06-27 한국생산기술연구원 Apparatus for manufacturing ultra-micro structure for preventing corrosion in cylindrical stainless steel
KR101315286B1 (en) * 2011-12-22 2013-10-08 한국생산기술연구원 A device of microstructure fabrication for anti-oxdation in pipe shape

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