JP3073461B2 - Electrolytic disinfection equipment - Google Patents

Electrolytic disinfection equipment

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Publication number
JP3073461B2
JP3073461B2 JP09136073A JP13607397A JP3073461B2 JP 3073461 B2 JP3073461 B2 JP 3073461B2 JP 09136073 A JP09136073 A JP 09136073A JP 13607397 A JP13607397 A JP 13607397A JP 3073461 B2 JP3073461 B2 JP 3073461B2
Authority
JP
Japan
Prior art keywords
water
power supply
disinfected
supply unit
capacity power
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 - Fee Related
Application number
JP09136073A
Other languages
Japanese (ja)
Other versions
JPH1043766A (en
Inventor
善胤 田村
Original Assignee
有限会社徳島商科
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Application filed by 有限会社徳島商科 filed Critical 有限会社徳島商科
Priority to JP09136073A priority Critical patent/JP3073461B2/en
Publication of JPH1043766A publication Critical patent/JPH1043766A/en
Application granted granted Critical
Publication of JP3073461B2 publication Critical patent/JP3073461B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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Description

【発明の詳細な説明】DETAILED DESCRIPTION OF THE INVENTION

【0001】[0001]

【発明の属する技術分野】本発明は、貯水槽に貯留され
た貯留水等を電解消毒する電解消毒装置に関するもので
ある。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an electrolytic disinfection apparatus for electrolytically disinfecting stored water and the like stored in a water storage tank.

【0002】[0002]

【従来の技術】飲料水等を消毒する場合、従来は消毒液
を消毒対象水に直接注入して消毒する方法が一般に採ら
れている。しかし、これは常に消毒液の補充が必要であ
ると共に、注入装置の操作、メンテナンス等の点で問題
がある。また過剰消毒による発癌性の問題、或いは無注
入による消毒不良の問題、更にはランニングコストが嵩
む等の問題がある。
2. Description of the Related Art In the case of disinfecting drinking water and the like, a method of injecting a disinfecting solution directly into water to be disinfected has been generally adopted. However, this requires replenishment of the disinfecting solution at all times, and has problems in operation and maintenance of the injection device. In addition, there is a problem of carcinogenicity due to excessive disinfection, a problem of poor disinfection due to no injection, and a problem of increased running cost.

【0003】そこで、本発明者は、水中に含まれる塩化
物を電解して消毒対象水を消毒する電解消毒装置に関す
る技術を既に開発し提案した。この消毒法は、消毒器本
体に電極を備え、これを消毒対象水の水中に浸漬し、水
中に含まれる塩化物を電解して次亜塩素酸ソーダを生成
することにより消毒するものである。従って、従来のよ
うな消毒液の注入・添加を要せず、過剰消毒、その他の
問題を解消でき、しかも電源の供給だけで良いので、省
力化と併せてランニングコストを低減できる等の利点が
ある。
[0003] Therefore, the present inventor has already developed and proposed a technology relating to an electrolytic disinfection apparatus for disinfecting water to be disinfected by electrolyzing chlorides contained in water. According to this disinfecting method, an electrode is provided on a disinfecting device main body, the electrode is immersed in water for disinfection, and chloride contained in the water is electrolyzed to generate sodium hypochlorite for disinfection. Therefore, there is no need to inject or add a disinfecting solution as in the past, so that excessive disinfection and other problems can be solved.In addition, since only power supply is required, running costs can be reduced and running costs can be reduced. is there.

【0004】[0004]

【発明が解決しようとする課題】従来の電解消毒技術
は、単に貯留水中に消毒装置を投入し浸漬させた状態
で、大容量の電源部をオン・オフ制御して電極に直流電
源を間欠的に印加し、塩素イオンを含有する塩化物を電
解して次亜塩素酸ソーダを生成する方法を採っている。
しかし、単に大容量電源部をオン・オフ制御するだけで
は、その大容量電源部のオン時間中に過度に電解して塩
化物を無駄に消費し、またこれに伴い電力を無駄に消費
する等の問題がある。
In the conventional electrolytic disinfection technology, a DC power supply is intermittently applied to an electrode by simply turning on / off a large-capacity power supply unit in a state in which a disinfection device is simply put in and immersed in stored water. To produce sodium hypochlorite by electrolyzing chlorides containing chloride ions.
However, simply controlling on / off of the large-capacity power supply unit results in excessive electrolysis during the on-time of the large-capacity power supply unit, wastefully consuming chlorides, and wasting power. There is a problem.

【0005】また塩化物の無駄な消費を極力少なくする
ために大容量電源部のオン時間を短くしてオフ時間を長
くすれば、その大容量電源部のオフ時間中に水の残留塩
素濃度が低下して消毒力が極端に失われる等の問題も生
じ易くなる。本発明は、このような従来の課題に鑑み、
塩化物の無駄な電解を防止できると共に、水中の残留塩
素値の経時的な低下、これに伴う消毒力の低下を防止で
きる電解消毒装置を提供することを目的とするものであ
る。
If the on-time of the large-capacity power supply unit is shortened and the off-time is lengthened to minimize wasteful consumption of chloride, the residual chlorine concentration of water during the off-time of the large-capacity power supply unit is reduced. Problems such as a decrease in the disinfecting power due to a decrease are likely to occur. The present invention has been made in view of such conventional problems,
It is an object of the present invention to provide an electrolytic disinfecting apparatus capable of preventing wasteful electrolysis of chlorides and preventing a decrease in the residual chlorine value in water over time and a resulting decrease in disinfecting power.

【0006】[0006]

【課題を解決するための手段】請求項1に記載の本発明
は、容器内に電極を配置した電解式消毒器を備え、電源
部から電極に直流電源を印加して消毒対象水を電解する
ことにより消毒を行うようにした電解消毒装置におい
て、電源部に大容量電源部と小容量電源部とを設け、電
極に直流電源を印加する際に、大容量電源部から電極に
大容量電源を印加するように大容量電源部をオン・オフ
制御すると共に、大容量電源部のオフ時に小容量電源部
から電極に小容量電源を印加するように該小容量電源部
を制御する制御部を設けたものである。請求項2に記載
の本発明は、請求項1に記載の発明において、消毒対象
水を電解する必要があることを検出する検出手段と、こ
の検出手段が電解の必要を検出した時に電極に直流電源
を印加するように電源部を制御する制御部とを備えたも
のである。請求項3に記載の本発明は、請求項1又は2
に記載の発明において、貯水槽と、この貯水槽と電解式
消毒器との間で該貯水槽の貯留水を循環させる循環経路
とを備えたものである。
According to a first aspect of the present invention, there is provided an electrolytic disinfection device having electrodes disposed in a container, and a DC power is applied to the electrodes from a power supply to electrolyze the water to be disinfected. In the electrolytic disinfection apparatus that performs disinfection by performing the above, a large-capacity power supply unit and a small-capacity power supply unit are provided in the power supply unit, and when applying DC power to the electrode, a large-capacity power supply is supplied from the large-capacity power supply unit to the electrode. A control unit is provided which controls on / off of the large-capacity power supply unit so as to apply the voltage, and controls the small-capacity power supply unit to apply the small-capacity power supply to the electrode from the small-capacity power supply unit when the large-capacity power supply unit is turned off. It is a thing. According to a second aspect of the present invention, in the first aspect, a detecting means for detecting that the water to be disinfected needs to be electrolyzed, and a DC voltage applied to the electrode when the detecting means detects the need for the electrolysis. And a control unit for controlling the power supply unit so as to apply power. The present invention described in claim 3 provides the present invention according to claim 1 or 2
And a circulation path for circulating the water stored in the water storage tank between the water storage tank and the electrolytic disinfection device.

【0007】[0007]

【発明の実施の形態】以下、本発明の実施形態を図面に
基づいて詳述する。図1乃至図6は、本発明を水道水の
補完消毒用として利用した場合の一例を示す。図1にお
いて、1 はビルの屋上等に設置された高置貯水槽で、こ
の貯水槽1 は下部の入口管2 と出口管3 を介して水道水
の給水系に接続されており、入口管2から受水した水道
水を貯水して、その貯留水6 を出口管3 から各蛇口4 に
給水するようになっている。
Embodiments of the present invention will be described below in detail with reference to the drawings. 1 to 6 show an example in which the present invention is used for complementary disinfection of tap water. In FIG. 1, reference numeral 1 denotes an elevated water storage tank installed on the roof of a building or the like. This water storage tank 1 is connected to a tap water supply system via a lower inlet pipe 2 and an outlet pipe 3. Tap water received from 2 is stored, and the stored water 6 is supplied to each faucet 4 from an outlet pipe 3.

【0008】5 は飲料水用の流水形水電解式消毒器で、
貯水槽1 の上に設置されている。この消毒器5 は、貯水
槽1 を含む水道水の給水系、特にその貯水槽1 内の貯留
水6の一部を消毒対象水として、揚水ポンプ7 により揚
水管8 、流入管9 を介して消毒器5 側に汲み上げると共
に、この消毒器5 を通過後の消毒対象水を流出管10、戻
し管11を経て貯水槽1 の貯留水6 中に戻すように、貯水
槽1 との間で消毒対象水を循環させながら、貯水槽1 の
貯留水6 を消毒するようになっている。なお、揚水ポン
プ7 、揚水管8 、流入管9 、消毒器5 、流出管10、戻し
管11及び貯水槽1 により循環経路が構成されている。
[0008] 5 is a running water type water electrolysis disinfecter for drinking water,
Installed on water tank 1. This disinfector 5 uses a tap water supply system including a water storage tank 1, in particular, a part of the stored water 6 in the water storage tank 1 as a water to be disinfected, by a water pump 7 through a water supply pipe 8 and an inflow pipe 9. While being pumped to the disinfecting device 5 side, the disinfecting water after passing through the disinfecting device 5 is disinfected with the water storage tank 1 so as to be returned to the storage water 6 of the water storage tank 1 through the outflow pipe 10 and the return pipe 11. While circulating the target water, the stored water 6 in the water tank 1 is disinfected. The circulation path is constituted by the water pump 7, the water pipe 8, the inflow pipe 9, the disinfector 5, the outflow pipe 10, the return pipe 11, and the water storage tank 1.

【0009】消毒器5 は、消毒対象水中の塩分を電解し
て次亜塩素酸ソーダを生成する機能と、消毒対象水を電
解して酸素を発生させて消毒対象水の消毒と良水化とを
行う機能とを備えている。例えば、消毒対象水中の含有
塩分の濃度が所定レベル以上の時に、消毒対象水中の塩
分を電解して次亜塩素酸ソーダを生成し、消毒対象水中
の含有塩分の濃度が低下して次亜塩素酸ソーダの生成が
不能になった時に、消毒対象水を電解して酸素を発生さ
せて、消毒対象水の消毒と良水化とを行うようになって
いる。
The disinfecting device 5 has a function of electrolyzing salt in the water to be disinfected to generate sodium hypochlorite, and a function of dissolving the water to be disinfected by dissolving the water to be electrolyzed to generate oxygen. And a function for performing For example, when the concentration of the salt contained in the water to be disinfected is equal to or higher than a predetermined level, the salt in the water to be disinfected is electrolyzed to generate sodium hypochlorite, and the concentration of the salt contained in the water to be disinfected decreases, and hypochlorite is added. When the generation of acid soda becomes impossible, the water to be disinfected is electrolyzed to generate oxygen, thereby disinfecting the water to be disinfected and improving the water quality.

【0010】消毒器5 は、図2乃至図5に示すように構
成されている。即ち、図2乃至図5において、12は直方
体型に形成された横長状の密閉容器で、この密閉容器12
は揚水管9 から戻し管11に至る循環経路の途中に介装さ
れている。この密閉容器12には、その長手方向の一端下
部に流入口18が、他端側の上面に流出口45が夫々形成さ
れると共に、その内部に一端側から他端側に向かって整
流手段13、フィルター手段14、電解室15、電源ターミナ
ル部16が長手方向に沿って直列状に設けられている。
The disinfecting device 5 is configured as shown in FIGS. That is, in FIGS. 2 to 5, reference numeral 12 denotes a horizontally long closed container formed in a rectangular parallelepiped shape.
Is provided in the middle of the circulation path from the pumping pipe 9 to the return pipe 11. The closed container 12 has an inflow port 18 formed at the lower end of one end in the longitudinal direction and an outflow port 45 formed at the upper surface on the other end side. , A filter means 14, an electrolysis chamber 15, and a power supply terminal 16 are provided in series along the longitudinal direction.

【0011】整流手段13は、縦及び横方向に多数に区画
された格子状の整流板17を有し、流入口18から流入して
電解室15側に流れる消毒対象水を整流するように構成さ
れている。なお、整流板17の各格子目内には、整流兼用
の前置フィルターを介装しても良い。流入口18は、整流
板17に対向して密閉容器12の側壁19の下部に形成されて
おり、この流入口18に流入管9 が固着されている。そし
て、流入管9 に揚水管8 が着脱自在に接続されている。
The rectifying means 13 has a grid-shaped rectifying plate 17 divided into a large number in the vertical and horizontal directions, and is configured to rectify the water to be disinfected flowing from the inflow port 18 and flowing to the electrolytic chamber 15 side. Have been. Note that a pre-filter that also serves as a rectifier may be provided in each grid of the rectifier plate 17. The inflow port 18 is formed at a lower portion of the side wall 19 of the closed casing 12 so as to face the current plate 17, and the inflow pipe 9 is fixed to the inflow port 18. A pumping pipe 8 is detachably connected to the inflow pipe 9.

【0012】フィルター手段14にはフィルター保持枠20
が設けられており、このフィルター保持枠20に、塩素イ
オンを溶出してミネラル化するためのミネラル強化用、
或いは濾過用等のエレメント21が、必要に応じて挿入で
きる構造になっている。電解室15は密閉容器12内のフィ
ルター手段14と電源ターミナル部16との間に形成されて
おり、この電解室15内には多数組の電極22,23 が組み込
まれている。各電極22,23 は、流入口18から流入した消
毒対象水が電解室15を経て流出口45側に流れるように、
消毒対象水の流れ方向、即ち、密閉容器12の長手方向に
沿って縦方向に配置されると共に、前記流れ方向と直行
する方向に所定間隔をおいて複数枚配置されている。
The filter means 14 includes a filter holding frame 20.
Is provided on the filter holding frame 20, for mineral reinforcement for eluting chloride ions to be mineralized,
Alternatively, the structure is such that an element 21 for filtration or the like can be inserted as needed. The electrolysis chamber 15 is formed between the filter means 14 and the power supply terminal section 16 in the closed vessel 12, and a large number of sets of electrodes 22, 23 are incorporated in the electrolysis chamber 15. Each electrode 22, 23, so that the water to be disinfected from the inlet 18 flows to the outlet 45 side through the electrolytic chamber 15,
Along the longitudinal direction of the closed container 12, a plurality of sheets are arranged at predetermined intervals in a direction perpendicular to the flow direction.

【0013】電極22,23 は、例えばチタン板の表面の片
面又は両面に白金層を形成したものと、チタン板とを取
り混ぜて構成され、長手方向の両端部で上下一対の間隔
保持部材24,25 により略等間隔に保持されている。な
お、間隔保持部材24,25 は、長手方向の両端部に限ら
ず、その途中に所要間隔で設けても良い。各電極22,23
には消毒対象水の流れ方向側の端部にターミナル26,27
が一体に突出形成され、その各ターミナル26,27 に、電
源ターミナル部16内で電源ケーブル28の各線29,30 が接
続されている。
The electrodes 22, 23 are formed by mixing, for example, a titanium plate with a platinum layer formed on one or both sides of the surface thereof and a titanium plate, and a pair of upper and lower spacing members 24, 24 at both ends in the longitudinal direction. 25 are held at substantially equal intervals. The spacing members 24 and 25 are not limited to both ends in the longitudinal direction, and may be provided at required intervals in the middle. Each electrode 22, 23
Terminals 26 and 27 at the end on the flow direction side of the water to be disinfected
Each of the terminals 26 and 27 is connected to a respective one of the wires 29 and 30 of the power cable 28 in the power terminal section 16.

【0014】電源ターミナル部16は、各電極22,23 のタ
ーミナル26,27 を完全防水状に密閉するように、密閉容
器12内に絶縁性の充填材31を充填して構成され、また電
源ケーブル28はブッシュ32を介して密閉容器12の他方の
側板33から外部に引き出されている。上下一対の間隔保
持部材24,25 は絶縁材から成り、電極22,23 に対応して
嵌合凹部34,35 が等間隔おきに多数形成されると共に、
密閉容器12の上壁36及び底壁37の間に、消毒対象水の流
れ方向のガス通路38,39 を形成すべく切欠部40,41 が形
成されている。そして、各間隔保持部材24,25 は密閉容
器12内の上下に嵌合され、その各嵌合凹部34,35 に電極
22,23 が嵌合されている。なお、電極22,23 が0.8mm の
場合、各嵌合凹部34,35 は幅1mm、深さ3mm程度であ
り、また各嵌合凹部34,35 間の間隔は2〜3mmである。
The power supply terminal section 16 is constructed by filling an insulating container 31 with an insulating filler 31 so as to completely seal the terminals 26 and 27 of the electrodes 22 and 23 in a waterproof manner. 28 is drawn out from the other side plate 33 of the sealed container 12 via a bush 32 to the outside. A pair of upper and lower spacing members 24, 25 are made of an insulating material, and a large number of fitting recesses 34, 35 are formed at regular intervals corresponding to the electrodes 22, 23,
Notches 40 and 41 are formed between the top wall 36 and the bottom wall 37 of the closed container 12 to form gas passages 38 and 39 in the flow direction of the water to be disinfected. The spacing members 24 and 25 are vertically fitted in the closed container 12, and the fitting recesses 34 and 35 are provided with electrodes.
22,23 are fitted. When the electrodes 22 and 23 are 0.8 mm, the fitting recesses 34 and 35 have a width of about 1 mm and a depth of about 3 mm, and the interval between the fitting recesses 34 and 35 is 2 to 3 mm.

【0015】密閉容器12の上壁36には、残塩計、PH
計、伝導率計等の計測子挿入用の穴42が整流手段13に対
応して形成されると共に、内部を目視により点検するた
めのハッチ式の点検窓43,44 がフィルター手段14及び電
解室15に対応して形成され、更に電解室15の電源ターミ
ナル部16側の近傍に流出口45が形成されている。そし
て、流出口45には流出管10が固着されている。
On the upper wall 36 of the sealed container 12, a residual salt meter, PH
A hole 42 for inserting a measuring element such as a meter or a conductivity meter is formed corresponding to the rectifying means 13, and hatch type inspection windows 43 and 44 for visually inspecting the inside are provided with a filter means 14 and an electrolytic chamber. An outlet 45 is formed near the power supply terminal 16 of the electrolysis chamber 15. The outflow pipe 10 is fixed to the outflow port 45.

【0016】流出管10は電解後の消毒対象水が流出する
水出口部47と、電解時に発生したガスを消毒対象水から
分離して大気に放出するためのガス排気部48とを有し、
水出口部47に戻し管11が接続されている。ガス排気部48
は電解時に発生したガスを自動的に抜き取り得るように
自動的に連続して開閉自在である。なお、49はサンプリ
ング部で、密閉容器12の側面に開閉自在に設けられてい
る。
The outflow pipe 10 has a water outlet portion 47 from which the water to be disinfected after electrolysis flows out, and a gas exhaust portion 48 for separating gas generated during electrolysis from the water to be disinfected and discharging the gas to the atmosphere.
The return pipe 11 is connected to the water outlet 47. Gas exhaust unit 48
Can be automatically opened and closed continuously so that gas generated during electrolysis can be automatically extracted. Reference numeral 49 denotes a sampling unit which is provided on the side surface of the sealed container 12 so as to be freely opened and closed.

【0017】電源ケーブル28は制御函50内の電源制御装
置51に接続されている。電源制御装置51は、図6に示す
ように、位相反転部52、大容量電源部53、小容量電源部
54、制御手段55、及び安全器付きの主スイッチ56等によ
り構成されている。位相反転部52は、電極22,23 間に印
加する電源の位相(プラス・マイナス)を間欠的に反転
させるためのもので、その反転の持続時間及びその時の
印加電圧は制御手段55により制御される。
The power cable 28 is connected to a power controller 51 in the control box 50. As shown in FIG. 6, the power control device 51 includes a phase inverting section 52, a large capacity power section 53, and a small capacity power section.
54, a control means 55, a main switch 56 with a safety device, and the like. The phase inverting section 52 is for intermittently inverting the phase (plus or minus) of the power supply applied between the electrodes 22 and 23, and the duration of the inversion and the applied voltage at that time are controlled by the control means 55. You.

【0018】大容量電源部53は、位相反転部52を介して
電極22,23 間に大電圧を印加するためのものであり、小
容量電源部54は、大容量電源部53のオフ時に電極22,23
間に小電圧を印加するためのものである。この大容量電
源部53と小容量電源部54は、制御手段55のタイマー機能
等により交互にオン・オフ制御され、制御手段55からオ
ン信号があった時に、大容量電源部53から電極22,23 間
に大電圧を印加し、また制御手段55からオフ信号があっ
た時に、小容量電源部54から電極22,23 間に小電圧を印
加するようになっている。
The large-capacity power supply section 53 is for applying a large voltage between the electrodes 22 and 23 via the phase inverting section 52. The small-capacity power supply section 54 is provided when the large-capacity power supply section 53 is turned off. 22,23
This is for applying a small voltage therebetween. The large-capacity power supply unit 53 and the small-capacity power supply unit 54 are alternately turned on and off by a timer function or the like of the control unit 55, and when the control unit 55 receives an ON signal, the large-capacity power supply unit 53 transmits the electrode 22, A large voltage is applied between the electrodes 23 and 23, and a small voltage is applied between the electrodes 22 and 23 from the small-capacity power supply unit 54 when there is an off signal from the control means 55.

【0019】制御手段55は、大容量電源部53及び小容量
電源部54をオン・オフ制御するタイマー機能等の他に、
流水計57、残塩計58等の検出手段からの外部信号によ
り、位相反転部52及び各電源部53,54 を制御するもので
ある。主スイッチ56は電源コード59等を介してAC10
0(V)の商用交流電源に接続されている。流水計57、
残塩計58等の検出手段は、貯水槽1 内の貯留水6 を消毒
する必要があるか否かを検出するようになっており、こ
れらが消毒の必要を検出した時に、制御手段55が働くよ
うに構成されている。なお、60は電流計、62はモニター
ランプである。
The control means 55 includes a timer function for controlling on / off of the large-capacity power supply unit 53 and the small-capacity power supply unit 54, and the like.
The phase inverting section 52 and the power supply sections 53 and 54 are controlled by external signals from detecting means such as a flow meter 57 and a residual salt meter 58. The main switch 56 is connected to the AC10 via a power cord 59 or the like.
0 (V) is connected to a commercial AC power supply. Flow meter 57,
The detecting means such as the residual salt meter 58 is adapted to detect whether or not the stored water 6 in the water tank 1 needs to be disinfected. It is configured to work. In addition, 60 is an ammeter and 62 is a monitor lamp.

【0020】上記構成の消毒器5 を用いれば、次のよう
にして貯水槽1 内の貯留水6 を追加消毒することができ
る。即ち、貯水槽1 内への流入水が停止した時の流水計
57からの検出信号、又は貯水槽1 内の貯留水6 の残留塩
素値が低下した時の残塩計58からの検出信号により、制
御手段55が働いて揚水ポンプ7 が作動し、この揚水ポン
プ7 により貯水槽1内の貯留水6 の一部を消毒対象水と
して揚水管8 を経て汲み上げ、その消毒対象水を流入管
9 、流入口18から密閉容器12内に流入させる。なお、制
御手段55のタイマー機能によるオン・オフ制御によっ
て、所定時間になれば作動させるようにしても良い。
If the disinfecting device 5 having the above configuration is used, the stored water 6 in the water storage tank 1 can be additionally disinfected as follows. That is, the flow meter when the inflow water into the water tank 1 is stopped
A control signal 55 is activated by the detection signal from 57 or the detection signal from the residual salt meter 58 when the residual chlorine value of the stored water 6 in the storage tank 1 is lowered, and the pump 7 is operated. 7 pumps up a part of the stored water 6 in the water tank 1 as water to be disinfected through the pumping pipe 8, and then uses the water to be disinfected.
9, Flow into the closed container 12 from the inlet 18. Note that the operation may be performed at a predetermined time by the on / off control by the timer function of the control means 55.

【0021】密閉容器12内に流入した消毒対象水は、整
流手段13の整流板17により整流された後、フィルター手
段14により濾過されて電解室15側へと流れる。この時、
整流手段13の下流側にフィルター手段14があり、フィル
ター手段14によって消毒対象水の流れに適度な抵抗を付
与できるので、流入口18が下部側にあるにも拘わらず、
整流手段13で十分に整流しながら消毒対象水を電解室15
側へと流すことができる。このため、消毒器5 全体を小
型化でき、しかも電解室15を十分に長く取ることができ
る。
The water to be disinfected which has flowed into the closed container 12 is rectified by the rectifying plate 17 of the rectifying means 13, then filtered by the filter means 14 and flows toward the electrolytic chamber 15. At this time,
There is a filter means 14 on the downstream side of the rectification means 13, and the filter means 14 can provide an appropriate resistance to the flow of the water to be disinfected, so that the inlet 18 is on the lower side,
The water to be disinfected is supplied to the electrolysis
Can flow to the side. For this reason, the entire disinfection device 5 can be reduced in size, and the electrolysis chamber 15 can be made sufficiently long.

【0022】密閉容器12の電解室15に消毒対象水を流し
た状態で、制御手段55により大容量電源部53又は小容量
電源部54から各電極22,23 間に電圧を印加し、密閉容器
12内を通過する消毒対象水中の含有塩分を各電極22,23
間で電解する。即ち、消毒対象水が水道水であり、その
消毒対象水中に塩分が残留しているので、各電極22,23
間に直流電流を流せば、電極22,23 の内、その陽極では
Cl2 が、陰極ではNaOHが夫々生成され、その両者
が反応して次亜塩素酸ソーダNaClOが生成し消毒対
象水中に溶存する。そして、電解後の消毒対象水を貯水
槽1 内の貯留水6 の中に戻して行くため、貯留水6 中の
塩分を利用して消毒対象水の残留塩素値を増大させるこ
とができ、残留塩素値の経時的な低下を防止できる。
With the water to be disinfected flowing into the electrolysis chamber 15 of the sealed container 12, a voltage is applied between the electrodes 22 and 23 from the large-capacity power supply unit 53 or the small-capacity power supply unit 54 by the control means 55, and
The salt content in the water to be disinfected passing through
Electrolyze between. That is, since the water to be disinfected is tap water and salt remains in the water to be disinfected, each of the electrodes 22, 23
When a direct current is applied between the electrodes 22, 23, Cl 2 is generated at the anode and NaOH is generated at the cathode, and both react to form sodium hypochlorite NaClO, which is dissolved in the water to be disinfected. I do. Then, since the water to be disinfected after electrolysis is returned to the stored water 6 in the water tank 1, the residual chlorine value of the water to be disinfected can be increased by utilizing the salt in the stored water 6, and the residual chlorine can be increased. It is possible to prevent the chlorine value from decreasing over time.

【0023】従って、水道水であっても、貯水槽1 内で
滞留する間に残留塩素値が0.1ppm以下となって消毒力が
低下すれば、空気中の病原菌等が雨水と共に入った場合
には、それが繁殖して水質が低下するが、その貯留水6
中に残留する含有塩分を直接利用して、消毒対象水の電
解時に生成する次亜塩素酸ソーダによって、貯水槽1内
の貯留水6 の残留塩素値を常に例えば0.15ppm 以上等に
保ち、貯水槽1 内に貯水中の貯留水6 の水質の低下を防
止することができる。
Therefore, even in the case of tap water, if the residual chlorine value becomes 0.1 ppm or less and the disinfecting power is reduced while staying in the water storage tank 1, if pathogenic bacteria and the like in the air enter together with the rainwater. The water quality decreases as it breeds,
The residual chlorine content of the water 6 in the water storage tank 1 is constantly maintained at, for example, 0.15 ppm or more by sodium hypochlorite generated during electrolysis of the water to be disinfected by directly utilizing the salt content remaining in the water. The deterioration of the water quality of the stored water 6 in the tank 1 can be prevented.

【0024】また貯水槽1 内への流入水が停止した時の
流水計57からの検出信号、又は貯水槽1 内の貯留水6 の
残留塩素値が低下した時の残塩計58からの検出信号によ
って、貯水槽1 内の貯留水6 を揚水ポンプ7 で自動的に
汲み上げて、その消毒対象水中の含有塩分を直接電解す
るので、塩分の補給、添加等が不要であると共に、運
転、管理が非常に容易である。しかも、貯水槽1 内の貯
留水6 の一部を揚水ポンプ7 で汲み上げ、それを消毒対
象水とするため、貯留水6 を選択的に消毒することがで
き、溜まり水の浄化が可能である。特に、貯留水6 の揚
水箇所と戻し箇所とを選択することにより、貯水槽1 内
の貯留水6 を効率的に処理することができる。
A detection signal from the flow meter 57 when the inflow of water into the water tank 1 is stopped, or a detection signal from the residual salt meter 58 when the residual chlorine value of the water 6 in the water tank 1 is reduced. The pump automatically pumps up the stored water 6 in the water storage tank 1 with the pump 7 according to the signal, and directly electrolyzes the salt content in the water to be disinfected. Is very easy. Moreover, since a part of the stored water 6 in the water storage tank 1 is pumped up by the pump 7 and used as the water to be disinfected, the stored water 6 can be selectively disinfected, and the accumulated water can be purified. . In particular, by selecting a pumping point and a return point of the storage water 6, the storage water 6 in the water storage tank 1 can be efficiently treated.

【0025】流入水が停止して貯水槽1 内に貯留水6 が
溜まったままの状態の場合、長時間に亘って電解を継続
して行けば、貯留水6 の中の残留塩分を消費し尽くして
その濃度が次第に低下し、終には次亜塩素酸ソーダの生
成が不能になる。このため、消毒を停止した状態で貯水
槽1 内の貯留水6 を放置しておけば、貯留水6 の消毒力
が急速に低下して、病原菌等の混入によって水質が悪く
なり、汚染を招く恐れがある。
In the state where the inflow water is stopped and the stored water 6 remains in the water storage tank 1, if the electrolysis is continued for a long time, the residual salt in the stored water 6 is consumed. At the end, the concentration gradually decreases, and eventually the production of sodium hypochlorite becomes impossible. Therefore, if the stored water 6 in the water storage tank 1 is left in a state where the disinfection is stopped, the disinfecting power of the stored water 6 is rapidly reduced, and water quality is deteriorated due to contamination with pathogenic bacteria and the like, resulting in pollution. There is fear.

【0026】そこで、貯水槽1 内の貯留水6 の塩分がな
くなって次亜塩素酸ソーダの生成が不能になった後も、
各電極22,23 に対する電圧の印加を継続して、塩分の電
解から消毒対象水自体の電解に切り換え、消毒対象水の
電解により酸素と水素とを発生させる。そして、この電
解時に発生した酸素により消毒対象水の消毒(接触酸化
作用による酸化消毒)を行いながら、電解後の酸素を多
量に含んだ消毒対象水を貯水槽1 内の貯留水6 に戻し
て、貯水槽1 内の貯留水6 を全体に亘って消毒する。
Therefore, even after the salt water in the storage tank 1 in the water storage tank 1 has lost its salt content and the production of sodium hypochlorite has become impossible,
The application of the voltage to each of the electrodes 22 and 23 is continued to switch from electrolysis of the salt to electrolysis of the water to be disinfected, and oxygen and hydrogen are generated by electrolysis of the water to be disinfected. Then, while performing the disinfection of the water to be disinfected by the oxygen generated during the electrolysis (oxidative disinfection by contact oxidation), the water to be disinfected containing a large amount of oxygen after the electrolysis is returned to the storage water 6 in the water storage tank 1. Then, the stored water 6 in the water storage tank 1 is entirely disinfected.

【0027】なお、電解時に発生する酸素の内、その発
生期の酸素原子は特に酸化力が強く、瞬間的且つ直接的
に消毒対象水を酸化消毒することができる。従って、残
留塩素濃度が低下した貯留水6 を、流入水の停止状態で
貯水槽1 内に長時間に亘って溜めておいた場合でも、電
解時に発生した酸素の酸化消毒作用によって病原菌の繁
殖等を防止又は抑制して、水質の低下を防止することが
できるので、その後に貯水槽1 内の貯留水6 を飲料水と
して使用した場合にも問題はない。
[0027] Of the oxygen generated during electrolysis, oxygen atoms at the stage of generation have particularly strong oxidizing power, and can instantaneously and directly oxidize and disinfect the water to be disinfected. Therefore, even if the stored water 6 with the reduced residual chlorine concentration is stored in the water storage tank 1 for a long time while the inflow water is stopped, propagation of pathogenic bacteria, etc., due to the oxidative disinfection of oxygen generated during electrolysis, etc. Therefore, there is no problem even if the stored water 6 in the water storage tank 1 is subsequently used as drinking water.

【0028】また電解により発生した酸素は、大気に開
放したままであれば、水の中をバブリングしながら大気
中に拡散し消滅するが、密閉容器12内で消毒対象水を電
解しているので、消毒対象水の中でバブリングして消毒
対象水を消毒しながら密閉容器12内の消毒対象水と共に
移動する。このため、酸素によって消毒対象水を十分に
消毒できると共に、消毒対象水に多量の酸素が溶け込ん
で消毒対象水の溶存酸素濃度が大になり、消毒対象水を
生命体に有効なものに移行させる良水化ができる。しか
も、電解によって消毒対象水の水粒子が微細化して、更
に生命体に有効な水にすることができる。
If the oxygen generated by the electrolysis is left open to the atmosphere, the oxygen diffuses into the atmosphere while bubbling through the water and disappears. However, since the water to be disinfected is electrolyzed in the closed vessel 12, the oxygen is electrolyzed. The water moves along with the water to be disinfected in the closed container 12 while bubbling in the water to be disinfected to disinfect the water to be disinfected. For this reason, the water to be disinfected can be sufficiently disinfected by oxygen, and a large amount of oxygen dissolves in the water to be disinfected, so that the dissolved oxygen concentration in the water to be disinfected becomes large, and the water to be disinfected is transferred to an effective water for living organisms. Water can be improved. In addition, the water particles to be disinfected are made finer by the electrolysis, and the water can be made more effective for living organisms.

【0029】そして、この電解後の消毒対象水を密閉容
器12から貯水槽1 内の貯留水6 の中に戻し、順次、貯水
槽1 内と消毒器5 との間で循環させながら、揚水ポンプ
7 で汲み上げた消毒対象水を電解して、貯水槽1 内の貯
留水6 の全体に亘って消毒と良水化とを行う。
Then, the water to be disinfected after the electrolysis is returned from the sealed container 12 into the stored water 6 in the water storage tank 1, and is sequentially circulated between the water storage tank 1 and the disinfection device 5.
Electrolyze the water to be disinfected pumped in step 7 to disinfect and improve the quality of the stored water 6 in the water tank 1.

【0030】電解時には各電極22,23 間に直流電圧を印
加するが、制御手段55の信号によってオン・オフ制御す
る。即ち、制御手段55からオン信号があれば、大容量電
源部53から電極22,23 間に大電圧を供給して大電流を流
し、その供給電力量に応じて次亜塩素酸ソーダを生成す
る。また制御手段55からオフ信号があれば、大容量電源
部53からの大電圧の印加を停止すると同時に、小容量電
源部54から電極22,23間に小電圧を供給して微小電流を
流す。
At the time of electrolysis, a DC voltage is applied between the electrodes 22 and 23. On / off control is performed by a signal from the control means 55. That is, if there is an ON signal from the control unit 55, a large voltage is supplied between the electrodes 22 and 23 from the large capacity power supply unit 53 to flow a large current, and sodium hypochlorite is generated according to the supplied power amount. . If there is an off signal from the control means 55, the application of the large voltage from the large-capacity power supply unit 53 is stopped, and at the same time, a small voltage is supplied between the electrodes 22 and 23 from the small-capacity power supply unit 54 to flow a small current.

【0031】従って、電極22,23 への電源の供給時間
中、大容量電源部53から大電圧を供給し続ける場合に比
較して、貯留水6 中の塩化物の無駄な消費、及び電力の
無駄な消費を防止できると共に、大容量電源部54のオフ
中も小電圧の供給により適度に次亜塩素酸ソーダを生成
でき、残留塩素値の経時的な低下、それに伴う消毒力の
極端な低下等を防止できる。まこ電極22,23 自身の劣
化、損耗を防止することができる。
Therefore, during the supply of power to the electrodes 22 and 23, wasteful consumption of chlorides in the storage water 6 and power consumption compared to the case where a large voltage is continuously supplied from the large-capacity power supply unit 53 In addition to preventing wasteful consumption, even while the large-capacity power supply unit 54 is off, a small voltage can be supplied to generate moderate sodium hypochlorite, resulting in a decrease in the residual chlorine value over time and a corresponding decrease in the disinfecting power. Etc. can be prevented. It is possible to prevent the deterioration and wear of the saw electrodes 22 and 23 themselves.

【0032】しかも、オン時には、制御手段55からの反
転信号により位相反転部52が働き、電極22,23 に印加す
る電圧の位相を間欠的に反転させるので、陰極側に付着
した硬度成分のスケールを電気的に溶出させることがで
き、メンテナンスを少なくしつつ、初期の性能を持続さ
せることができる。消毒対象水の電解時に電解室15内に
水素と酸素が発生し、特に酸素は水質改善に利用できる
が、この時の酸素のバブリングの様子や電極22,23 の状
況は、点検窓44を覗けば密閉容器12の外側からでも目視
により容易に点検できる。
Further, at the time of ON, the phase inverting section 52 operates by an inversion signal from the control means 55 to intermittently invert the phase of the voltage applied to the electrodes 22 and 23, so that the scale of the hardness component attached to the cathode side is reduced. Can be electrically eluted, and the initial performance can be maintained while reducing maintenance. Hydrogen and oxygen are generated in the electrolysis chamber 15 during electrolysis of the water to be disinfected.Especially oxygen can be used to improve the water quality, but the state of the bubbling of oxygen and the condition of the electrodes 22 and 23 can be seen through the inspection window 44. For example, it can be easily visually inspected even from the outside of the sealed container 12.

【0033】このような構成の消毒器5 を利用すれば、
貯水槽1 内の貯留水6 を残留塩素により安定的に消毒す
ることができると共に、その残留塩素濃度が低下して残
留塩素による消毒力がなくなった後も、酸素により消毒
対象水を消毒し且つ良水化することができる。従って、
上水道での末端の貯水槽1 内の貯留水6 の衛生管理が容
易であり、また自然水を飲料水とする場合は、原水を消
毒器5 に通水することにより、水系病原菌による事故を
未然に防止できる。
If the disinfecting device 5 having such a configuration is used,
The stored water 6 in the water storage tank 1 can be stably disinfected with residual chlorine, and even after the residual chlorine concentration decreases and the disinfecting power due to residual chlorine is lost, the water to be disinfected is disinfected with oxygen and Good water can be obtained. Therefore,
It is easy to sanitize the stored water 6 in the water storage tank 1 at the end of the water supply, and when natural water is used as drinking water, the raw water is passed through the disinfector 5 to prevent accidents caused by waterborne pathogens. Can be prevented.

【0034】図7に示すように、入口管2 から貯水槽1
に入る水の一部を管75で消毒器5 に導いて処理した後、
管76を経て出口管3 内に入れ、貯水槽1 からの水6 と処
理後の水とを混ぜて給水栓に送るようにしても良い。こ
の場合にも、処理後の水が貯水槽1 からの水6 と混ざる
ので、両者を混合調整することにより、水6 に適当な残
留塩素を付与すること等が可能である。
As shown in FIG. 7, the water supply tank 1
After a part of the water that enters is guided to the disinfector 5 by the pipe 75 and treated,
The water 6 from the water storage tank 1 and the treated water may be mixed and sent to the water faucet via the pipe 76 into the outlet pipe 3. In this case as well, the treated water is mixed with the water 6 from the water storage tank 1. Therefore, by mixing and adjusting the two, it is possible to impart appropriate residual chlorine to the water 6.

【0035】井戸63を飲料水源とする場合は、図8に示
すように、井戸水64を揚水管65を介して揚水ポンプ66に
より汲み上げ、送水管67を経て各給水栓に送水する配管
の途中に消毒器5 を介装しても良いし、また井戸水64の
中に消毒器5 を投入し吊り下げて浸漬しておいても良
い。なお、後者の場合には、密閉容器12の流入口18、流
出口45を大きくするか、又はその数を増やすことが望ま
しい。
In the case where the well 63 is used as a drinking water source, as shown in FIG. The disinfecting device 5 may be interposed, or the disinfecting device 5 may be put in the well water 64, suspended and immersed. In the latter case, it is desirable to increase the number of inlets 18 and outlets 45 of the sealed container 12 or to increase the number thereof.

【0036】このようにすれば、前者の場合には、井戸
水64が汲み上げられて送水される間に、その配管の途中
にインラインで消毒し良水化できる。また後者の場合に
は井戸63内で既に消毒し良水化できる。従って、井戸水
64であるにも拘らず、それに残留塩素を与えて消毒する
ことができると共に、消毒力が持続する所謂残留塩素0.
1ppm以上の水道水に適合する水とすることが可能であ
る。
In this way, in the former case, the well water 64 can be disinfected in-line in the middle of the piping while the well water 64 is being pumped up and supplied, so that good water can be obtained. In the latter case, the well 63 can be already disinfected and made clean. Therefore, well water
Despite being 64, it can be disinfected by giving residual chlorine to it, and the so-called residual chlorine that maintains the disinfecting power.
It is possible to use water that is compatible with tap water of 1 ppm or more.

【0037】なお、井戸63の場合も、図1の貯水槽1 と
同様に、井戸63から揚水して井戸63に戻す循環経路中に
消毒器5 を設けても良い。消毒器5 を小型で小容量のも
のにすれば、図9及び図10に示すように、レストル−
ム等のシスタンク68内に投入して電源を入れて置いても
良い。この場合、消毒器5 はハンガ−69をタンク本体70
の上端縁等に引っ掛けて水中に吊り下げておき、また制
御函50はレストル−ムの壁面等に金具71で掛けておけば
良い。
In the case of the well 63 as well, the disinfecting device 5 may be provided in a circulation path for pumping water from the well 63 and returning to the well 63 as in the water tank 1 of FIG. If the disinfecting device 5 is made small and of small capacity, as shown in FIG. 9 and FIG.
The power may be turned on by putting it in the cis tank 68 such as In this case, the disinfecting device 5 attaches the hanger 69 to the tank body 70.
And the control box 50 may be hung on a wall or the like of a rest room with a metal fitting 71.

【0038】これによってシスタンク68という最も末端
の水槽内での溜まり水を追加消毒することができる利点
がある。従って、間違って飲用しても安全な水となり、
シャワ−等の使用時にも健康的な良い水を使用すること
ができる。なお、この場合、密閉容器12の流入口18、流
出口45は比較的大きくすることが望ましい。災害復旧現
場等での架設飲用水タンク内の飲料水の消毒にも利用で
きる。この場合には、前記シスタンク68の場合と略同様
にすれば良い。
Thus, there is an advantage that the accumulated water in the cis tank 68 at the end of the water tank can be additionally disinfected. Therefore, it is safe water to drink by mistake,
Even when using a shower or the like, healthy water can be used. In this case, it is desirable that the inlet 18 and the outlet 45 of the closed container 12 are relatively large. It can also be used for disinfecting drinking water in an installed drinking water tank at a disaster recovery site. In this case, it may be substantially the same as the case of the cis tank 68.

【0039】飲料水以外の分野では、鑑賞池やプールの
水の浄化に利用することができる。例えば、図11に示
すように池77等の水78を揚水ポンプ79により揚水管80を
介して消毒器5 に揚水し、この消毒器5 で電解して消毒
し溶存酸素濃度が上昇した水を戻し管81を経て池に戻
す。これを続けて行えば、その循環により池77等の水78
を浄化することができる。この場合の原理作用は、オゾ
ンによる酸化作用を利用する従来の技術と同じである
が、空気を水中にバブリングする方式よりも効率的であ
る。
In fields other than drinking water, it can be used to purify water in appreciation ponds and pools. For example, as shown in FIG. 11, water 78 from a pond 77 or the like is pumped by a water pump 79 to a disinfecting device 5 via a water pumping tube 80, and is electrolyzed and disinfected by the disinfecting device 5 to remove water having an increased dissolved oxygen concentration. Return to the pond via return pipe 81. If this is continued, the water 78
Can be purified. The principle operation in this case is the same as that of the conventional technique using the oxidation effect of ozone, but is more efficient than the method of bubbling air into water.

【0040】農業用にも利用することができる。即ち、
図12に示すように、給水栓82からの水をホース83を介
して消毒器5 に導き、この消毒器5 で浄化処理した後の
水をホース84、電磁弁85を経て散水管86に送り、そのノ
ズル87から植物に散水する。散水制御はタイマー等で電
磁弁85をオン・オフすることにより行う。このようにす
れば、植物の成育促進や健康強化を図ることができる。
従って、ゴルフ場での農薬散布量を節約できる等の利点
がある。
It can also be used for agricultural purposes. That is,
As shown in FIG. 12, the water from the water tap 82 is led to the disinfecting device 5 via the hose 83, and the water purified by the disinfecting device 5 is sent to the water sprinkling pipe 86 via the hose 84 and the solenoid valve 85. , Watering the plant from its nozzle 87 Watering control is performed by turning on / off the electromagnetic valve 85 with a timer or the like. In this way, it is possible to promote plant growth and enhance health.
Therefore, there is an advantage that the amount of pesticide sprayed at the golf course can be saved.

【0041】各種のプラントや水道配水の本管に取り付
けることも可能である。即ち、図13に示すように、フ
ランジ88に各電極22,23 を片持ち状に取り付けておく。
この場合、必要に応じて間隔保持用のスペーサー89を各
電極22,23 の先端部間に介在し、それにシャフトを通し
てネジで締め付けて固定する。そして、これを図14に
示す円筒状の容器12に上から挿入し、フランジ88を容器
12の上端にボルト等で固定して蓋をする。
It is also possible to attach to various plants and mains of water distribution. That is, as shown in FIG. 13, the electrodes 22, 23 are attached to the flange 88 in a cantilever manner.
In this case, a spacer 89 for maintaining the interval is interposed between the tips of the electrodes 22 and 23 as necessary, and is fixed by tightening a screw through the shaft. Then, this is inserted into the cylindrical container 12 shown in FIG.
Fix to the upper end of 12 with bolts and cover.

【0042】対象水は流入管9 から流入させるが、水の
流速が速過ぎる場合は、容器12の径を大きくして、電解
に適した流速になるように合わせる。容器12内の発生ガ
スは、流出管10から同時に流出させ、その後の配管付属
品で気液分離しても良し、また容器12の上部にガス溜ま
りを設け、そこで気液分離しても良い。容器12は下部の
フランジ79をボルト等で所要位置に取り付ける。プラン
ト用途等では、塩素イオン濃度が2000ppm の対象水等、
様々な条件の水電解となるから、電源部、制御部等はそ
の用途に合ったものにする必要がある。
The target water flows in through the inflow pipe 9. If the flow rate of the water is too high, the diameter of the container 12 is increased so that the flow rate becomes suitable for electrolysis. The generated gas in the container 12 may be simultaneously discharged from the outflow pipe 10 and then separated into gas and liquid by using a piping accessory. Alternatively, a gas reservoir may be provided at the top of the container 12 and gas and liquid may be separated there. The container 12 has a lower flange 79 attached to a required position with bolts or the like. For plant applications, etc., target water with a chloride ion concentration of 2000 ppm
Since water electrolysis is performed under various conditions, the power supply unit, the control unit, and the like need to be adapted to the intended use.

【0043】本発明は、各実施形態に示したものの他、
二元給水、雑用水、下水処理水、工業用水等の用途にも
使用可能であり、これによってそれらの追加消毒ができ
る。つまり、ビルや地域での二元給水でも、飲料水はも
とより、雑用水へ活用した場合にも、消毒効果を有効に
利用することができ、電源さえあれば、無添加で常に良
水を確保することが可能である。なお、消毒器5 を消毒
対象水の中に入れる場合には、適当なスタンションを用
いても良い。また図1の場合、流入管9 及び流出管10に
は、フランジ型、ねじ込み型、タケノコ型等のものを用
いても良い。
The present invention is not limited to the embodiments described above.
It can also be used for applications such as binary water supply, miscellaneous water, sewage treatment water, industrial water, etc., which allows for additional disinfection. In other words, it can effectively use the disinfecting effect not only for drinking water but also for drinking water as well as for dual water supply in buildings and regions, and if there is a power source, always ensuring good water without any additives It is possible to When the disinfecting device 5 is placed in the water to be disinfected, an appropriate stanchion may be used. In the case of FIG. 1, the inflow pipe 9 and the outflow pipe 10 may be of a flange type, a screw type, a bamboo shoot type, or the like.

【0044】[0044]

【発明の効果】請求項1に記載の本発明によれば、容器
内に電極を配置した電解式消毒器を備え、電源部から電
極に直流電源を印加して消毒対象水を電解することによ
り消毒を行うようにした電解消毒装置において、電源部
に大容量電源部と小容量電源部とを設け、電極に直流電
源を印加する際に、大容量電源部から電極に大容量電源
を印加するように大容量電源部をオン・オフ制御すると
共に、大容量電源部のオフ時に小容量電源部から電極に
小容量電源を印加するように該小容量電源部を制御する
制御部を設けているので、塩化物の無駄な電解を防止で
きると共に、水中の残留塩素値の経時的な低下、これに
伴う消毒力の低下を防止できる。請求項2に記載の本発
明によれば、消毒対象水を電解する必要があることを検
出する検出手段と、この検出手段が電解の必要を検出し
た時に電極に直流電源を印加するように電源部を制御す
る制御部とを備えているので、制御部を自動的に制御で
きる。請求項3に記載の本発明によれば、貯水槽と、こ
の貯水槽と電解式消毒器との間で該貯水槽の貯留水を循
環させる循環経路とを備えているので、貯水槽内に貯水
状態の水を循環させながら電解消毒できる。
According to the first aspect of the present invention, an electrolytic disinfection device having electrodes disposed in a container is provided, and DC power is applied to the electrodes from a power supply unit to electrolyze the water to be disinfected. In an electrolytic disinfection apparatus configured to perform disinfection, a large-capacity power supply unit and a small-capacity power supply unit are provided in a power supply unit, and when a DC power supply is applied to an electrode, a large-capacity power supply is applied to the electrode from the large-capacity power supply unit. And a control unit for controlling the large-capacity power supply unit so that the small-capacity power supply unit applies on-off power to the electrodes when the large-capacity power supply unit is turned off. Therefore, it is possible to prevent wasteful electrolysis of chloride, and also to prevent a decrease in the residual chlorine value in water with time and a reduction in the disinfecting power due to this. According to the present invention as set forth in claim 2, a detecting means for detecting that the water to be disinfected needs to be electrolyzed, and a power supply for applying DC power to the electrode when the detecting means detects the need for electrolysis. Since the control unit controls the unit, the control unit can be automatically controlled. According to the present invention as set forth in claim 3, since the water storage tank and the circulation path for circulating the stored water in the water storage tank between the water storage tank and the electrolytic disinfection device are provided, Electrolytic disinfection can be performed while circulating stored water.

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

【図1】本発明の第1実施形態を示す追加消毒の場合の
一部破断正面図である。
FIG. 1 is a partially cutaway front view of an additional disinfection showing a first embodiment of the present invention.

【図2】本発明の第1実施形態を示す消毒器の斜視図で
ある。
FIG. 2 is a perspective view of a sterilizer according to the first embodiment of the present invention.

【図3】本発明の第1実施形態を示す消毒器の断面図で
ある。
FIG. 3 is a cross-sectional view of the disinfecting apparatus according to the first embodiment of the present invention.

【図4】本発明の第1実施形態を示す消毒器内部の斜視
図である。
FIG. 4 is a perspective view showing the inside of the disinfecting device according to the first embodiment of the present invention.

【図5】図3のA−A矢示拡大図である。FIG. 5 is an enlarged view shown by an arrow AA in FIG. 3;

【図6】本発明の第1実施形態を示す電源制御部のブロ
ック図である。
FIG. 6 is a block diagram of a power control unit according to the first embodiment of the present invention.

【図7】本発明の第2実施形態を示す構成図である。FIG. 7 is a configuration diagram showing a second embodiment of the present invention.

【図8】本発明の第3実施形態を示す構成図である。FIG. 8 is a configuration diagram showing a third embodiment of the present invention.

【図9】本発明の第4実施形態を示す一部切欠き斜視図
である。
FIG. 9 is a partially cutaway perspective view showing a fourth embodiment of the present invention.

【図10】本発明の第4実施形態を示す消毒器の斜視図
である。
FIG. 10 is a perspective view of a sterilizer according to a fourth embodiment of the present invention.

【図11】本発明の第5実施形態を示す構成図である。FIG. 11 is a configuration diagram showing a fifth embodiment of the present invention.

【図12】本発明の第6実施形態を示す構成図である。FIG. 12 is a configuration diagram showing a sixth embodiment of the present invention.

【図13】本発明の第7実施形態を示す斜視図である。FIG. 13 is a perspective view showing a seventh embodiment of the present invention.

【図14】本発明の第7実施形態を示す正面図である。FIG. 14 is a front view showing a seventh embodiment of the present invention.

【符合の説明】[Description of sign]

1 貯水槽 5 流水形水電解式消毒器 6 水 12 密閉容器 22,23 電極 53 大容量電源部 54 小容量電源部 55 制御部 1 Water storage tank 5 Flow-through type water electrolysis disinfector 6 Water 12 Sealed container 22,23 Electrodes 53 Large capacity power supply unit 54 Small capacity power supply unit 55 Control unit

───────────────────────────────────────────────────── フロントページの続き (51)Int.Cl.7 識別記号 FI C02F 1/50 550 C02F 1/50 550L 560 560F ──────────────────────────────────────────────────続 き Continued on the front page (51) Int.Cl. 7 Identification code FI C02F 1/50 550 C02F 1/50 550L 560 560F

Claims (3)

(57)【特許請求の範囲】(57) [Claims] 【請求項1】 容器内に電極を配置した電解式消毒器を
備え、電源部から電極に直流電源を印加して消毒対象水
を電解することにより消毒を行うようにした電解消毒装
置において、電源部に大容量電源部と小容量電源部とを
設け、電極に直流電源を印加する際に、大容量電源部か
ら電極に大容量電源を印加するように大容量電源部をオ
ン・オフ制御すると共に、大容量電源部のオフ時に小容
量電源部から電極に小容量電源を印加するように該小容
量電源部を制御する制御部を設けたことを特徴とする電
解消毒装置。
1. An electrolytic disinfection apparatus comprising: an electrolytic disinfection device having an electrode disposed in a container, wherein a DC power is applied from a power supply unit to the electrode to disinfect the water to be disinfected by electrolysis. A large-capacity power supply unit and a small-capacity power supply unit are provided in the unit, and when applying DC power to the electrodes, the large-capacity power supply unit is turned on and off so that the large-capacity power supply unit applies large-capacity power to the electrodes. An electrolytic disinfection apparatus further comprising a control unit for controlling the small-capacity power supply unit to apply the small-capacity power supply to the electrode when the large-capacity power supply unit is turned off.
【請求項2】 消毒対象水を電解する必要があることを
検出する検出手段と、この検出手段が電解の必要を検出
した時に電極に直流電源を印加するように電源部を制御
する制御部とを備えたことを特徴とする請求項1に記載
の電解消毒装置。
2. A detecting unit for detecting that the water to be disinfected needs to be electrolyzed, and a control unit for controlling a power supply unit to apply DC power to the electrode when the detecting unit detects the need for electrolysis. The electrolytic disinfection apparatus according to claim 1, further comprising:
【請求項3】 貯水槽と、この貯水槽と電解式消毒器と
の間で該貯水槽の貯留水を循環させる循環経路とを備え
たことを特徴とする請求項1又は2に記載の電解消毒装
置。
3. The electrolytic cell according to claim 1, further comprising a water storage tank, and a circulation path for circulating water stored in the water storage tank between the water storage tank and the electrolytic disinfecting device. Disinfection equipment.
JP09136073A 1997-05-09 1997-05-09 Electrolytic disinfection equipment Expired - Fee Related JP3073461B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP09136073A JP3073461B2 (en) 1997-05-09 1997-05-09 Electrolytic disinfection equipment

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP09136073A JP3073461B2 (en) 1997-05-09 1997-05-09 Electrolytic disinfection equipment

Related Parent Applications (1)

Application Number Title Priority Date Filing Date
JP4197536A Division JP2711382B2 (en) 1992-06-30 1992-06-30 Water electrolytic disinfection method

Publications (2)

Publication Number Publication Date
JPH1043766A JPH1043766A (en) 1998-02-17
JP3073461B2 true JP3073461B2 (en) 2000-08-07

Family

ID=15166603

Family Applications (1)

Application Number Title Priority Date Filing Date
JP09136073A Expired - Fee Related JP3073461B2 (en) 1997-05-09 1997-05-09 Electrolytic disinfection equipment

Country Status (1)

Country Link
JP (1) JP3073461B2 (en)

Also Published As

Publication number Publication date
JPH1043766A (en) 1998-02-17

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