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JP3786249B2 - Cleaning device - Google Patents
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JP3786249B2 - Cleaning device - Google Patents

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JP3786249B2
JP3786249B2 JP36439899A JP36439899A JP3786249B2 JP 3786249 B2 JP3786249 B2 JP 3786249B2 JP 36439899 A JP36439899 A JP 36439899A JP 36439899 A JP36439899 A JP 36439899A JP 3786249 B2 JP3786249 B2 JP 3786249B2
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water
tank
solution
outlet
cleaning apparatus
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JP2001179193A (en
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潤郎 伊藤
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柴田陶器株式会社
森下 晴菜
株式会社エヌエム
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Description

【0001】
【発明の属する技術分野】
本発明は、自動車、鉄道車輌、船舶、建築物の外壁、ガラス等の各種物品の表面を水噴射だけで洗浄すると共に、被膜形成する様にした洗浄装置に関する。
【0002】
【従来の技術】
従来、自動車、鉄道車輌、船舶、建築物の外壁、ガラス等の各種物品の表面は、降雨、埃等の付着で汚濁されるために、定期的な洗浄が必要であった。
例えば、自動車等を洗車する時は、一般的に洗剤を併用して洗車した後に、ワックス掛けを行っていたために、手間、コストが必要であると共に、洗剤等による環境汚染も発生していた。
又、最近では特殊配合ポリマーによる被膜形成も一部で行われる様になって来たが、コスト高の欠点を有していた。
そこで、本件出願人らは、上記課題を解決するため、被洗浄物(各種物品)の表面をホウ酸シリカ含有活性洗浄水を噴射するだけで洗浄すると共に、ホウ酸シリカの被膜を形成する様にした洗浄方法及び装置を開発し、所期の目的を達成した。
ところが、上記方法では厚い被膜形成には時間を要した。
他方、木材、石材、コンクリート等の吸水性を有する被洗浄物は、吸水性の原因である多数の微細な開気孔(被洗浄物の表面に開口した気孔)を有するため、被洗浄物の表面に噴射されたホウ酸シリカ含有活性洗浄水が開気孔に吸収されてしまい、表面部に固着されるホウ酸シリカが減少し、充分な厚さの被膜を形成することが困難であった。
【0003】
【発明が解決しようとする課題】
本発明は、省力化、低コスト化を図ると共に、洗剤、ワックス等の薬剤類を不要にする様にした洗浄装置を提供する。
【0004】
【課題を解決するための手段】
本発明は、上記従来技術に基づく、洗浄は手間、コストが掛かる課題、及び薬剤使用で環境が汚染される課題に鑑み、基体ケースに、粒状セラミックを充填した水活性タンクと、水溶性ガラスの溶液タンクと、洗浄水タンクと、送水装置とを備え、前記水活性タンクに給水口及び活性水送出口を設け、該活性水送出口に活性水輸送経路の上流端を接続すると共に、下流端を前記洗浄水タンクの活性水給入口に接続し、一方前記溶液タンクに溶液注入口及び溶液送出口を設け、該溶液送出口に溶液輸送経路の上流端を接続すると共に、下流端を前記洗浄水タンクの溶液給入口に接続し、前記洗浄水タンクの洗浄水送出口に連結管を介して送水装置を連結し、該送水装置に設けた送出口に高圧ホース、ガン及びノズルを連設することによって、活性水で洗浄力を向上すると共に、含有(溶出及び添加)ホウ酸シリカ及び含有(添加)水ガラスを被洗浄物の表面に付着させる。
その態様としては、水ガラスで吸水性被洗浄物の開気孔を閉塞し、トルマリンの発生する電荷による電着作用で表面にホウ酸シリカ及び水ガラスを付着させ、又電荷で水を活性化させている。
【0005】
【発明の実施の形態】
以下本発明の一実施例を図面に基づいて説明する。
図1〜6は本発明の洗浄装置の一例を示す概略図であり、図1は洗浄装置を構成する各部の接続状態を示す模式図、図2〜4は洗浄装置の外郭を示す図、図5〜6は洗浄装置の内部を示す図である。
図1〜6に示す様に、本発明の洗浄装置1は、基体ケース2内に、水活性タンク3と、水溶性ガラスの溶液タンク4と、洗浄水タンク5と、送水装置6を内装している。
【0006】
水活性タンク3は上部に着脱自在な蓋体7を有し、水活性タンク3内に多数の数mm大の球状(粒状)のセラミック8、8a…が充填されたカートリッジ9を交換自在に装着している。
又、水活性タンク3の下部に送水圧が付加された水道水の給水パイプ10a が直結される給水口10を、上部に活性水送出口11を設け、該活性水送出口11に活性水輸送経路12の上流端を接続すると共に、下流端を洗浄水タンク5の上部に設けた活性水給入口13に接続している。
一方、溶液タンク4の上部にガラス水溶液の注入口14を設け、該注入口14に蓋体14a を着脱自在に装着し、又溶液タンク4の下部に溶液送出口15を設け、該溶液送出口15に溶液輸送経路16の上流端を接続すると共に、下流端を洗浄水タンク5の上部に設けた溶液給入口17に接続している。
又、活性水輸送経路12の中間部に電磁バルブ12a (経路の通断手段)を、溶液輸送経路16の上流側にニードルバルブ16a (流量調節手段)、下流側に電磁バルブ16b (経路の通断手段)を夫々配設している。
尚、水活性タンク3の供給側及び排水側に夫々設けた給水口10と活性水送出口11の口径は、排水下流側の活性水送出口11のものを小径と成している。
又、洗浄水タンク5の下部に設けた洗浄水送出口18に連結管19を介して送水装置6を連結し、該送水装置6の高圧水の送出口20に高圧ホース21、ガン22、ノズル23を順次、接続する様にしている。
【0007】
又、24は水位検出スイッチであり、該水位検出スイッチ24は、複数の水位検出部25、25a …を有し、該水位検出部25、25a …を洗浄水タンク5上部側から底部側に渡って複数位置に配設している。
そして、活性水輸送経路12と溶液輸送経路16の電磁バルブ12a 、16b が開いて洗浄水タンク5の水位が上昇して最下限水位(図1では水位E3)になると送水装置6の稼働が可能となり、最上限水位(水位E1)に達すると電磁バルブ12a 、16b が閉じる。
一方、送水装置6の稼働、洗浄作業続行により、水位が下がって所定水位(水位E2)になると電磁バルブ12a 、16b が開いて洗浄水L3を補充する様に、検出部25、25a …で各水位を感知させて洗浄装置1の動作を制御している。
即ち、水位検出スイッチ24の作動により、、通常時は所定水量(E1〜E2)を維持している。
【0008】
又、水活性タンク3、溶液タンク4及び洗浄水タンク5の底部にドレン口26、26a …を夫々設け、該ドレン口26、26a …にバルブ27、27a …を有するドレン管28、28a …の基端を接続すると共に、先端を基体ケース2外へ突出させて、洗浄装置1のメンテナンスの便宜を図っている。
【0009】
尚、活性水輸送経路12の中間部には外部へ活性水L1を取出す吐出管29を接続し、更に、基体ケース2に車輪30、取手31、、スイッチ、及び電源プラグ等を付設し、又基体ケース2の上面に蓋体を、側面正面側に扉体を設けている。
【0010】
又、溶液タンク4に収容される水溶性ガラスの水溶液は、2種類の水溶液を混合したものであり、温水(例えば、40〜60℃)99〜90gに対しホウ酸シリカの粉末1〜10gを添加、溶解させて成したホウ酸シリカ1〜10%の水溶液と、温水99〜95gに対し水ガラス1〜5gを添加、溶解させて成した水ガラス1〜5%の水溶液を混合し、その混合比率は、ホウ酸シリカ水溶液:水ガラス水溶液=5:1〜10:1が後述の理由で望ましい。
【0011】
上記ホウ酸シリカ水溶液及び水ガラス水溶液の濃度範囲及びこれら水溶液の混合比率に関し、濃度の下限値未満の場合はホウ酸シリカ及び水ガラスによる効能(詳細については後述する)が不充分であり、上限値は実用上の溶解量の限界値であり、これ以上はホウ酸シリカ及び水ガラスが溶解せず、ホウ酸シリカ及び水ガラスが析出してしまい不都合である。
又、水ガラス水溶液がアルカリ性であることから、水ガラス水溶液を単独で溶液タンク4に収容させると洗浄装置1を傷め耐用年数を縮めるため、酸性のホウ酸シリカ水溶液と混合し、中和して用いるのが良く、これら水溶液の混合比率は、被洗浄物に形成する被膜にホウ酸シリカと水ガラス双方の作用(詳細については後述する)を兼備させるために、上記範囲が望ましいことが種々の実験の結果確認された。
【0012】
次に本発明に係る洗浄方法について説明する。
予めホウ酸シリカ水溶液と水ガラス水溶液の混合液L2(以下単にガラス溶液L2と称す)を溶液タンク4に注入する。
多数の粒状のセラミック8、8a…を収納した通水自在なカートリッジ9が装着されている水活性タンク3の給水口10に水道水の給水パイプ10a を接続し、送水装置6の洗浄水L3の送出口20に高圧ホース21、ガン22及びノズル23を順次接続し、送水装置6を作動させる。
【0013】
洗浄装置1の作動開始により、活性水輸送経路12の電磁バルブ12a 及び溶液輸送経路16の電磁バルブ16b が同時に開き、給水口10から送水された源水L(水道水)は水活性タンク3の通過時に、セラミック8、8a…のトルマリン含有被膜から溶出したホウ酸シリカS1、S2…(低温ガラス)が源水Lに含有されると共に、トルマリンの作用で、ホウ酸シリカS1、S2…は帯電し、且つ源水Lは電気分解、水改質されて活性水L1となり、水活性タンク3から活性水輸送経路12を経由して洗浄水タンク5に送水される。
又、溶液タンク4に注入されたガラス溶液L2(ホウ酸シリカS11、S12…、水ガラスT1、T2…を含有)は、溶液タンク4から溶液輸送経路16を経由して洗浄水タンク5に送水され、洗浄水タンク5内において、水活性タンク3から送水されたホウ酸シリカ含有活性水L1と合流し、自然流動で攪拌され、活性水L1にホウ酸シリカS11、S12…を添加すると共に、水ガラスT1、T2…を添加する。
又、これら溶液タンク4からのホウ酸シリカS11、S12…及び水ガラスT1、T2…もセラミック8、8a…から溶出したホウ酸シリカS1、S2…と同様に帯電する。
又、活性水L1とガラス溶液L2の混合割合は、活性水L1:ガラス溶液L2=80:20〜99:1の範囲が望ましく、溶液輸送経路16に設けられたニードルバルブ16a で、溶液タンク4から洗浄水タンク5へ送水されるガラス溶液L2の流量を調節して上記範囲に設定、制御している。
【0014】
洗浄水タンク5内に収容されたホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…を含有する洗浄水L3は、洗浄水タンク5から連結管19を経由して送水装置6へ送水され、送水装置6の送出口20に接続した高圧ホース21、ガン22等を経由してノズル23から被洗浄物の表面Wに洗浄高圧水として噴出され、被洗浄物の表面Wに付着した汚れを洗浄水L3が洗浄する。
この時、洗浄水L3に含有されている水ガラスT1、T2…は、表面Wに噴出された後空気中の炭酸ガスにより直ちに固化するため、吸水性を有する被洗浄物の開気孔の深部まで吸収されず、気孔開口部付近に電荷で付着し気孔を閉塞する。
そして、開気孔が閉塞された表面Wに、更に、ホウ酸シリカS1、S2、S11、S12……及び水ガラスT1、T2…が電荷により付着し、且つ表面Wの微細な凹凸に入り込み、被洗浄物の表面Wにガラス質の厚い被膜M1を形成する。
【0015】
次に、上述の基本的な洗浄方法における詳細な作用を説明する。
先ず、源水Lが流入する水活性タンク3内に収納した多数の粒状のセラミック8、8a…は2種類のものが収納される。
【0016】
1種類目のセラミック8、8a…の成分はゼオライト、バクハン石及びトルマリンを混合焼結形成したもの、又はゼオライト、バクハン石を混合焼結形成した担体の表面にトルマリン含有被膜を焼結形成したものであり、このセラミック8、8a…は低温ガラスであるホウ酸シリカS1、S2…を含有していることにより、水活性タンク3内で流通する源水Lに微量溶出し、源水Lに混入する。
【0017】
尚、セラミック8、8a…の表面に固着され被膜を形成するトルマリンは、ホウ素を含む珪酸塩鉱物の一種であり、加圧(圧力変化)したり、衝撃を加えること等により、表面に電荷(圧電気、電位等)を生じる性質を有している。
又、トルマリンは、水中において、含有するホウ酸シリカS1、S2…を容易に溶出し、ホウ酸シリカS1、S2…を溶出することによっても電荷を生じる。従って、トルマリンが電荷を発生することにより、洗浄水L3に含有させたホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…の表面に電荷が帯電し、ホウ酸シリカS1、S2、S11、S12……及び水ガラスT1、T2…は所謂荷電粒子状態になり、電着作用が具備されるものと思われる。
又、トルマリンが発生する電荷により、セラミック8、8a…の周囲を通過する水の電気分解が発生し、水が改質されて、活性化するものと思われる。
【0018】
又、2種類目のセラミック32、32a …の成分はマグネシアを焼結形成したものであり、このセラミック32、32a …は含有するミネラルを溶出することにより、水質をアルカリ性化する作用を有している。
又、トルマリンを主成分とするセラミック8、8a…と同様に水活性作用を有しており、軟磁性体、誘電体であることにより、セラミック32、32a …の周囲を通過する水との接触作用により、次の様な作用で源水Lが活性化されると思われる。
例えば、セラミック32、32a …と水の接触により静電気が発生すると共に電位が変化し、発生した微弱電流により水の電気分解が発生したり、発生した磁力線により水が改質されて、水が活性化するものと思われる。
【0019】
上記2種類のセラミック8、8a…、32、32a …による水改質の作用例としては、磁気水、磁化水、構造変化水と呼ばれるものであり、例えば、磁気作用で水分子のイオン結合、水素結合等の水構造に作用して、クラスター(水分子H2Oの結合体)が小さくなって、水構造が疎となり、活性化するものと思われ、疎の水構造が被洗浄物の表面Wに付着した汚れを水構造内に包含し洗浄作用が増大する。
【0020】
又、水活性化はセラミック8、8a…(セラミック32、32a …を含む、洗浄作用において以下同じ)による作用の他、源水Lに作用している圧力がセラミック8、8a…を充填した水活性タンク3内に流入して変化したり、セラミック8、8a…前後の給水口10と小径の活性水輸送経路12の口径差により圧力増加(圧力変化)し、水の粘性率が変化したり、水構造変化が発生したり、圧力変化が発生する。又、水活性タンク3内に収容された多数の粒状のセラミック8、8a…間の空隙がランダムになるため、水活性タンク3内に水道の圧力がかかった状態で流入する源水Lの流れが激しく乱れて乱流になることから、セラミック8、8a…の周囲の水圧が局部的に増減したり、水活性タンク3内が激しい乱流により攪拌状態になる。
これらの流水作用により、トルマリンでの電荷発生、並びにトルマリンからのホウ酸シリカS1、S2…の溶出が促進される。
【0021】
そして、ホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…を含有する洗浄水L3が被洗浄物の表面Wに噴出された時、表面W付着の汚れは送水装置6で高圧噴射された圧力水で除去されたり、洗浄水L3で汚れを含有除去する。
又、洗浄作用と同時に、洗浄水L3に含有されているホウ酸シリカS1、S2、S11、S12……及び水ガラスT1、T2…が吸水性の被洗浄物の表面Wに付着して被膜M1を形成する。
又、吸水性を有する被洗浄物は、吸水性の原因である開気孔を多数有するが、洗浄水L3に含有させた水ガラスT1、T2…は表面Wに噴出された後空気中の炭酸ガスにより直ちに固化することから、被洗浄物の開気孔の深部まで吸収されず、気孔開口部付近に電荷で付着し気孔を閉塞し、更に、トルマリンの発生する電荷による電着作用で、洗浄水L3に含有されている帯電ホウ酸シリカS1、S2…、S11、S12…及び帯電水ガラスT1、T2…が、気孔が閉塞された被洗浄物の表面Wに強固に着床し、且つ被洗浄物の表面Wには微細無数の凹凸が存在しているため、洗浄水L3に含有されているホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…が凹凸に入り込む様にして、表面Wに付着して被膜M1を形成する。
又、上記のガラス質の被膜M1は、ホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…から成り、ホウ酸シリカS1、S2…、S11、S12…は撥水性を有しているため、晴天時の粉塵、埃等の汚れの成分を弾いて寄せ付けず、汚れが付着し難くなる。
又、水ガラスT1、T2…は親水性を有しているため、雨天時に被膜M1に降り注ぐ雨水が玉状にならず、拡がって汚れと共に流下し、汚れが付着し難くなる。
【0022】
次に上記洗浄装置のより望ましい実施態様として、温水供給装置を備えた洗浄装置について構成の異なる部分についてのみ説明する。
この洗浄装置1は、図7〜9に示す様に、基体ケース2内に温水供給装置33が内装され、該温水供給装置33は、ボイラー34と、該ボイラー34に燃料輸送経路35を介して接続された燃料タンク36を備えて成り、ボイラー34(温水供給装置33)の温水送出口37に温水輸送経路38の上流端を接続すると共に、下流端を水活性タンク3の給入口10に接続し、ボイラー34の入水口39に減圧弁40を有する給水管41を接続している。
又、ボイラー34上部に逃し弁42を有する排水管43が接続された排出口44を、下部にバルブ45を有するドレン管46が接続されたドレン口47を設けている。
又、温水輸送経路38の中間部に接続管48を介して圧力スイッチ49を設け、該圧力スイッチ49にボイラー34内の水圧を感知させて、ボイラー34の燃焼の開始及び停止を制御させている。
【0023】
次に温水供給装置を備えた洗浄装置の作用について説明する。
一般的に溶質がある溶媒に溶け得る量(溶解度)には上限があり、溶解度は溶媒の温度により変化するが、水に水溶性ガラスを溶かす場合は、水の温度上昇に伴い溶解度が上昇し、更に、溶解度の上昇に伴い溶質の溶解速度、溶液の均一化速度が上昇するため、セラミック8、8a…が充填された水活性タンク3にボイラー34で加熱された温水(例えば、40〜60℃の温水)を通水させることにより、常温の水道水を通水させた時よりも、セラミック8、8a…からのホウ酸シリカS1、S2…の溶出量が増加し、電荷発生、水活性化がより促進される。
又、洗浄水タンク5に送水される活性水L1の温度も常温の水道水より高いため、溶液タンク4からのガラス溶液L2と活性水L1が自然流動で混合、攪拌されて成された洗浄水L3中のホウ酸シリカS11、S12…及び水ガラスT1、T2…が迅速に均一化される。
又、被洗浄物に噴出される洗浄水L3の温度が被洗浄物より高いため、表面Wに噴出された際、洗浄水L3の温度が低下し溶解度が下がることから、ホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…が迅速且つ多量に析出する。
【0024】
又、図10に示す様に、洗浄装置1にホウ酸シリカ水溶液を収容する溶液タンク4と、水ガラス水溶液を収容する溶液タンク4aを設け、該溶液タンク4aと洗浄水タンク5を連通させる溶液輸送経路50の上流側にニードルバルブ50a (流量調節手段)、下流側に電磁バルブ50b (経路の通断手段)を夫々配設し、溶液タンク4の溶液輸送経路16に設けたニードルバルブ16a でホウ酸シリカ水溶液の流量を、溶液タンク4aの溶液輸送経路50に設けたニードルバルブ50a で水ガラス水溶液の流量を夫々調節し、ホウ酸シリカ水溶液と水ガラス水溶液を所望の比率で混合させる様にしても良い。
尚、この場合は、アルカリ性溶液に対して耐久性を有する部材から成された、溶液タンク4a、溶液輸送経路50、ニードルバルブ50a 、電磁バルブ50b を用いなければならない。
【0025】
最後に、上述の洗浄方法を使用した好ましい態様等を説明する。
初めて本発明の洗浄方法を行う時には、被洗浄物の汚れを充分に落とさないと、ホウ酸シリカ・水ガラス被膜M1内に汚れが強固に内蔵されるために、初回だけは洗剤を使用して洗浄することが肝要である。
又、1回でも本発明による洗浄を行った時には、水洗いだけでも良いが、本発明の方法による洗浄を複数回行うことにより、被膜M1の上に次々と新しい被膜M2、M3…が形成され、光沢発揮、撥水効果、親水効果が向上する。
尚、本発明の対象物品として吸水性を有する被洗浄物について説明したが、対象物品或いは材質は問わず、例えば、低吸水性或いは非吸水性で比較的円滑、円滑な表面であれば、より短時間で被膜M1を形成可能である。
【0026】
【発明の効果】
要するに本発明は、物品の洗浄に、粒状セラミック8、8a…を充填した水活性タンク3を通水して得られた活性水L1を用いたので、半永久使用、長期間使用可能なセラミック8、8a…充填のカートリッジ7内を流通した洗浄水L3で被洗浄物の洗浄及び被膜M1の形成を行うために、手間、コストの大幅な低減を行うことが出来る。
又、セラミック8、8a…間の流通により、洗浄水L3が活性化されているために、被洗浄物の表面Wに付着した埃を離脱させて洗浄力を増大させることが出来、洗剤を不要と成して環境破壊を防止することが出来る。
【0027】
又、ホウ酸シリカ水溶液と水ガラス水溶液を前記活性水L1に添加した後、被洗浄物の表面に噴出し、表面洗浄すると共に被膜を形成する様にしたので、洗浄水L3に水ガラスT1、T2…を含有させることにより、水ガラスT1、T2…は、表面Wに噴出された後空気中の炭酸ガスにより直ちに固化するため、吸水性を有する被洗浄物の開気孔の深部まで吸収されず、気孔開口部付近に電荷で付着し、気孔を閉塞することが出来、よって、開気孔が閉塞された表面Wに、更にホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…が電荷で付着し、且つ表面Wの微細な凹凸に入り込み、吸水性を有する被洗浄物の表面Wにガラス質の厚い被膜M1を形成することが出来る。
【0028】
又、ホウ酸シリカS11、S12…と水ガラスT1、T2…を水溶液にして添加することにより、水溶液は活性水L1と容易に混合、均一化されるため、洗浄水L3にホウ酸シリカS11、S12…と水ガラスT1、T2…を多量に含有させて、表面Wに噴出されるホウ酸シリカS1、S2…、S11、S12…と水ガラスT1、T2…の量を増加させ、短時間で厚い被膜M1を形成することが出来る。
【0029】
又、被膜M1は、ホウ酸シリカS1、S2…、S11、S12…の撥水作用、水ガラスT1、T2…の親水性を兼ね備えているため、晴天時には粉塵、埃等の汚れの成分を弾いて寄せ付けず、雨天時には被膜M1に降り注ぐ雨水が玉状にならず、拡がって汚れと共に流下することから、汚れが付着し難くなり、被膜M1形成後の被洗浄物の洗浄は水だけで、洗剤、薬剤を不要にすることが出来る。
従って、木材、石材、コンクリート等の吸水性を有する材質から成る被洗浄物、例えば、建築物の外壁の洗浄の手間、コストの大幅な低減を行うことが出来る。
【0030】
又、吸水性のない被洗浄物であれば、極めて短時間で耐久性の高い厚い被膜M1を形成することが出来、例えば、船舶の船底(外面)に適用して、汚れ、貝類の付着を防止することが出来る。
【0031】
又、水活性タンク3に温水を通水する様にしたので、源水Lの温度を上昇させることにより、源水Lに対する水溶性ガラスの溶解度を上昇させて、ホウ酸シリカS1、S2…をセラミック8、8a…からより多く溶出させ、電荷発生(帯電)、水の活性化を促進させることが出来る。
【0032】
又、洗浄水タンク5に送水される活性水L1の温度も常温の水道水より高く、ガラス溶液L2がより迅速に活性水L1と混合、均一化されるため、洗浄水L3により多くのホウ酸シリカS11、S12…及び水ガラスT1、T2…を溶解させることが出来、而も、被洗浄物に噴出される洗浄水L3の温度が被洗浄物より高いため、表面Wに噴出された際、洗浄水L3の温度が低下し溶解度が下がることから、ホウ酸シリカS1、S2…、S11、S12…及び水ガラスT1、T2…が迅速且つ多量に析出し、更に短時間で厚い被膜M1を形成することが出来る。
【0033】
又、トルマリンを含有させたセラミック8、8a…を使用する様にしたので、セラミック8、8a…間を流通した活性水L1に、セラミック8、8a…の一部成分であるホウ酸シリカS1、S2…が含有されると共に、トルマリンが電荷を発生する。
そして、トルマリンが電荷を発生することにより、セラミック8、8a…から溶出したホウ酸シリカS1、S2…、活性水L1に添加されたホウ酸シリカS11、S12…及び水ガラスT1、T2…は帯電し、所謂荷電粒子状態になり、電着作用が具備されるため、被洗浄物の表面Wに噴出された時、電着作用で強固に着床し、且つ表面Wの微細な凹凸に付着して被膜M1を形成する。
【0034】
又、マグネシアを含有させたセラミック32、32a …を併用する様にしたので、洗浄装置1の水活性タンク内3を通過する源水Lにミネラルを溶出することにより、活性水L1(洗浄水L3)の水質をアルカリ性にして洗浄力を向上させると共に、トルマリンを含有させたセラミック8、8a…と同様の作用でもって、水活性して、洗浄力の更なる向上を図ることが出来る。
【0035】
又、洗浄を複数回行って被膜M1、M2…を複数層と成す様にしたので、被膜M1、M2…は強固となり、その後の被洗浄物の手入れを容易とすることが出来る。
【0036】
又、初回の洗浄に際して洗剤を使用する様にしたので、被洗浄物の表面Wに汚れが付着していても洗剤併用で汚れを除去して被膜M1、M2…内への汚れ残留を防止することが出来る。
【0037】
又、溶液輸送経路16に流量調節手段16a を設けたので、流量調節手段16a (ニードルバルブ)で、溶液タンク4から洗浄水タンク5へ送水されるガラス溶液L2の流量を調節して、水活性タンク3から送水される活性水L1とガラス溶液L2の混合比率を所望の割合に調節することが出来る。
【0038】
又、基体ケース2に水溶性ガラスの溶液タンク4を複数備えたので、溶液タンク4にホウ酸シリカ水溶液を、溶液タンク4aに水ガラス水溶液を収容させ、溶液タンク4、4a夫々からの溶液の流量を個別に調節することにより、被洗浄物の吸水性、粗度程度等の条件に対応させて即座にホウ酸シリカ水溶液と水ガラス水溶液の混合比率を変更することが出来る。
【0039】
又、水活性タンク3内にセラミック8、8a…、32、32a …を充填したカートリッジ9を着脱自在と成したので、長期間使用したセラミック8、8a…、32、32a …を交換して、洗浄効果を再生すると共に、セラミック8、8a…、32、32a …の交換を容易に行うことが出来る。
【0040】
又、給水口10の口径に比して活性水送出口11の口径を小径と成したので、電荷発生(帯電)、ホウ酸シリカS1、S2…含有及び活性化の3作用が圧力変化で促進され、洗浄水L3の効能を向上することが出来る。
【0041】
又、活性水輸送経路11の中間部に吐出管29を設けたので、ホウ酸シリカ含有活性水L1をバケツ等に別途取り出して、使い勝手を向上することが出来る等その実用的効果甚だ大である。
【図面の簡単な説明】
【図1】本発明に係る洗浄装置の模式図である。
【図2】洗浄装置の外郭を示す概略正面図である。
【図3】図2の概略側面図である。
【図4】図2の概略平面図である。
【図5】洗浄装置の内部を示す概略正面図である。
【図6】図5の概略平面図である。
【図7】温水供給装置を装備した洗浄装置の模式図である。
【図8】図7の洗浄装置の内部を示す概略正面図である。
【図9】図8の概略平面図である。
【図10】溶液タンクを複数装備した洗浄装置の模式図である。
【図11】被膜形成状況を説明する図である。
【符号の説明】
2 基体ケース
3 水活性タンク
4 溶液タンク
4a 溶液タンク
5 洗浄水タンク
6 送水装置
8、8a… セラミック
9 カートリッジ
10 給水口
11 活性水送出口
12 活性水輸送経路
13 活性水給入口
14 注入口
15 溶液送出口
16 溶液輸送経路
16a ニードルバルブ(流量調節手段)
17 溶液給入口
18 洗浄水送出口
19 連結管
20 送出口
21 高圧ホース
22 ガン
23 ノズル
29 吐出管
32、32a … セラミック
33 温水供給装置
38 温水輸送経路
39 入水口
W 表面
M1、M2… 被膜
S1、S2… ホウ酸シリカ
T1、T2… 水ガラス
[0001]
BACKGROUND OF THE INVENTION
In the present invention, the surface of various articles such as automobiles, railway vehicles, ships, outer walls of buildings, glass and the like is cleaned only by water jetting, and a film is formed. Cleaning device About.
[0002]
[Prior art]
Conventionally, the surfaces of various articles such as automobiles, railway vehicles, ships, outer walls of buildings, glass and the like are contaminated by rain, dust, and the like, and therefore have to be regularly cleaned.
For example, when washing an automobile or the like, generally, since washing with a detergent is also performed and then waxing is performed, labor and cost are required, and environmental pollution due to the detergent and the like has also occurred.
In addition, recently, a part of film formation with a special blended polymer has been carried out, but it has a disadvantage of high cost.
Therefore, in order to solve the above-mentioned problems, the present applicants cleaned the surface of an object to be cleaned (various articles) simply by spraying silica-containing active cleaning water, and formed a silica borate film. Developed the cleaning method and equipment, and achieved the intended purpose.
However, in the above method, it takes time to form a thick film.
On the other hand, objects to be cleaned, such as wood, stone, concrete, etc., have many fine open pores (pores opened on the surface of the object to be cleaned) that cause water absorption. Silica borate-containing active cleaning water sprayed onto the surface was absorbed by the open pores, and the amount of silica borate adhering to the surface portion decreased, making it difficult to form a sufficiently thick coating.
[0003]
[Problems to be solved by the invention]
The present invention achieves labor saving and cost reduction, and also eliminates the need for chemicals such as detergents and waxes. apparatus I will provide a.
[0004]
[Means for Solving the Problems]
The present invention is based on the above prior art, in view of the problem that cleaning is troublesome and costly, and the problem that the environment is polluted by the use of chemicals, The base case is provided with a water activation tank filled with granular ceramic, a water-soluble glass solution tank, a washing water tank, and a water supply device. The water activation tank is provided with a water supply port and an active water supply outlet. The upstream end of the active water transport path is connected to the water outlet, and the downstream end is connected to the active water inlet of the washing water tank. On the other hand, the solution tank is provided with a solution inlet and a solution outlet. An upstream end of the solution transport path is connected to the outlet, a downstream end is connected to the solution supply inlet of the washing water tank, a water supply device is connected to the washing water outlet of the washing water tank via a connecting pipe, By connecting a high-pressure hose, gun and nozzle to the outlet provided in the water supply device, The cleaning power is improved with active water, and the contained (elution and addition) silica borate and the contained (added) water glass are adhered to the surface of the object to be cleaned.
As an aspect of this, the open pores of the water-absorbing object to be washed are closed with water glass, silica borate and water glass are attached to the surface by the electrodeposition action by the charge generated by tourmaline, and water is activated by the charge. ing.
[0005]
DETAILED DESCRIPTION OF THE INVENTION
An embodiment of the present invention will be described below with reference to the drawings.
1 to 6 are schematic views showing an example of the cleaning device of the present invention, FIG. 1 is a schematic diagram showing a connection state of each part constituting the cleaning device, and FIGS. 2 to 4 are diagrams showing an outline of the cleaning device. 5 to 6 are views showing the inside of the cleaning apparatus.
As shown in FIGS. 1 to 6, the cleaning device 1 of the present invention includes a base case 2 and a water activation tank 3, a water-soluble glass solution tank 4, a cleaning water tank 5, and a water supply device 6. ing.
[0006]
The water activation tank 3 has a detachable lid 7 at the upper part, and a cartridge 9 filled with a number of several mm-sized spherical ceramics 8, 8 a. is doing.
In addition, a water supply port 10 directly connected to a tap water supply pipe 10a to which water supply pressure is added is provided at the lower part of the water activation tank 3, and an active water supply outlet 11 is provided at the upper part. The upstream end of the path 12 is connected, and the downstream end is connected to an active water inlet 13 provided in the upper part of the washing water tank 5.
On the other hand, a glass aqueous solution inlet 14 is provided in the upper part of the solution tank 4, a lid 14a is detachably attached to the inlet 14, and a solution outlet 15 is provided in the lower part of the solution tank 4, and the solution outlet is provided. The upstream end of the solution transport path 16 is connected to 15, and the downstream end is connected to a solution inlet 17 provided at the upper part of the washing water tank 5.
In addition, an electromagnetic valve 12a (path disconnecting means) is provided in the middle of the active water transport path 12, a needle valve 16a (flow rate adjusting means) is provided upstream of the solution transport path 16, and an electromagnetic valve 16b (path communication means) is provided downstream. Cutting means).
Incidentally, the diameters of the water supply port 10 and the active water outlet 11 provided on the supply side and the drain side of the water activation tank 3 are smaller than those of the active water outlet 11 on the downstream side of the drain.
Further, a water supply device 6 is connected to a cleaning water outlet 18 provided at the lower portion of the cleaning water tank 5 through a connecting pipe 19, and a high pressure hose 21, a gun 22, a nozzle is connected to the high pressure water outlet 20 of the water supply device 6. 23 are connected sequentially.
[0007]
Reference numeral 24 denotes a water level detection switch, and the water level detection switch 24 has a plurality of water level detection units 25, 25a..., And the water level detection units 25, 25a. Are arranged at a plurality of positions.
When the electromagnetic valves 12a and 16b of the active water transport path 12 and the solution transport path 16 are opened and the water level of the washing water tank 5 rises to the lowest water level (water level E3 in FIG. 1), the water feeding device 6 can be operated. Thus, when the upper limit water level (water level E1) is reached, the electromagnetic valves 12a and 16b are closed.
On the other hand, each of the detection units 25, 25a,... Opens the electromagnetic valves 12a, 16b and replenishes the cleaning water L3 when the water level drops to a predetermined water level (water level E2) by operating the water supply device 6 and continuing the cleaning operation. The operation of the cleaning apparatus 1 is controlled by sensing the water level.
That is, the operation of the water level detection switch 24 maintains a predetermined amount of water (E1 to E2) during normal times.
[0008]
Further, drain ports 26, 26a,... Are provided at the bottoms of the water activation tank 3, the solution tank 4, and the washing water tank 5, respectively, and drain pipes 28, 28a,. The proximal end is connected and the distal end protrudes outside the base case 2 to facilitate maintenance of the cleaning apparatus 1.
[0009]
A discharge pipe 29 for taking out the active water L1 to the outside is connected to the intermediate portion of the active water transport path 12, and further, a wheel 30, a handle 31, a switch, a power plug and the like are attached to the base case 2. A lid is provided on the upper surface of the base case 2, and a door is provided on the front side of the side surface.
[0010]
Moreover, the aqueous solution of the water-soluble glass accommodated in the solution tank 4 is a mixture of two types of aqueous solutions, and 1 to 10 g of silica borate powder is added to 99 to 90 g of hot water (for example, 40 to 60 ° C.). Add and dissolve an aqueous solution of 1-10% silica borate and add 1-5 g of water glass to 99-95 g of warm water, and mix 1-5% of an aqueous solution of water glass formed by dissolving, The mixing ratio is preferably silica borate aqueous solution: water glass aqueous solution = 5: 1 to 10: 1 for reasons described later.
[0011]
Regarding the concentration range of the aqueous silica borate solution and the aqueous water glass solution and the mixing ratio of these aqueous solutions, if the concentration is less than the lower limit of the concentration, the efficacy (details will be described later) due to the silica borate and water glass is insufficient. The value is a limit value of the practical amount of dissolution. Above this, silica borate and water glass are not dissolved and silica borate and water glass are precipitated, which is inconvenient.
Further, since the water glass aqueous solution is alkaline, if the water glass aqueous solution is contained alone in the solution tank 4, the cleaning device 1 is damaged and the service life is shortened. It is preferable to use a mixture ratio of these aqueous solutions in which the above range is desirable in order to make the film formed on the object to be cleaned have both actions of silica borate and water glass (details will be described later). The result of the experiment was confirmed.
[0012]
Next, the cleaning method according to the present invention will be described.
A liquid mixture L2 (hereinafter simply referred to as a glass solution L2) of a silica borate aqueous solution and a water glass aqueous solution is poured into the solution tank 4 in advance.
A tap water supply pipe 10a is connected to a water supply port 10 of a water activation tank 3 in which a cartridge 9 containing a plurality of granular ceramics 8, 8a... A high pressure hose 21, a gun 22 and a nozzle 23 are sequentially connected to the delivery port 20, and the water feeding device 6 is operated.
[0013]
With the start of the operation of the cleaning device 1, the electromagnetic valve 12 a of the active water transport path 12 and the electromagnetic valve 16 b of the solution transport path 16 are opened at the same time, and the source water L (tap water) fed from the water supply port 10 When passing, the borate silica S1, S2 (low temperature glass) eluted from the tourmaline-containing coating of the ceramic 8, 8a is contained in the source water L, and the borate silica S1, S2 is charged by the action of tourmaline. In addition, the source water L is electrolyzed and subjected to water reforming to become active water L1, which is fed from the water activation tank 3 to the washing water tank 5 via the active water transport path 12.
Further, the glass solution L2 (containing silica borate S11, S12..., Water glass T1, T2...) Injected into the solution tank 4 is supplied from the solution tank 4 to the washing water tank 5 via the solution transport path 16. In the washing water tank 5, the silica-containing activated water L1 fed from the water activation tank 3 is merged and stirred by natural flow, and silica borate S11, S12... Are added to the activated water L1, Water glass T1, T2,... Are added.
Further, the borate silicas S11, S12... And the water glasses T1, T2... From the solution tank 4 are charged in the same manner as the borate silicas S1, S2.
The mixing ratio of the active water L1 and the glass solution L2 is preferably in the range of the active water L1: glass solution L2 = 80: 20 to 99: 1. The needle valve 16a provided in the solution transporting path 16 is used for the solution tank 4 The flow rate of the glass solution L2 fed to the washing water tank 5 is adjusted and set within the above range.
[0014]
Wash water L3 containing borate silica S1, S2,..., S11, S12... And water glass T1, T2... Accommodated in the wash water tank 5 is supplied from the wash water tank 5 through the connecting pipe 19 to the water supply device. 6, and is jetted as cleaning high-pressure water from the nozzle 23 to the surface W of the object to be cleaned via the high-pressure hose 21, gun 22, etc. connected to the outlet 20 of the water supply device 6. Washing water L3 cleans the adhered dirt.
At this time, since the water glass T1, T2... Contained in the cleaning water L3 is immediately solidified by the carbon dioxide gas in the air after being ejected to the surface W, the water glass T1, T2,. It is not absorbed and adheres to the pore opening in the vicinity of the pores and closes the pores.
Further, the boric silica S1, S2, S11, S12... And the water glass T1, T2... Adhere to the surface W where the open pores are blocked, and enter the fine irregularities on the surface W. A thick glassy film M1 is formed on the surface W of the cleaning object.
[0015]
Next, the detailed operation of the above basic cleaning method will be described.
First, two kinds of granular ceramics 8, 8a,... Stored in the water activation tank 3 into which the source water L flows are stored.
[0016]
Components of the first ceramic 8, 8a ... are those in which zeolite, bakuhanite and tourmaline are mixed and formed, or those obtained by sintering and forming a tourmaline-containing coating on the surface of a carrier in which zeolite and bakuhanite are mixed and formed. These ceramics 8, 8 a... Are contained in the source water L circulated in the water activation tank 3 and mixed into the source water L by containing borate silica S1, S2. To do.
[0017]
Note that tourmaline, which is fixed on the surface of the ceramic 8, 8a, and forms a film, is a kind of boron-containing silicate mineral. Piezoelectricity, potential, etc.).
In addition, tourmaline easily elutes the contained borate silica S1, S2,..., And generates charges by eluting the borate silica S1, S2,. Therefore, when the tourmaline generates electric charges, the electric charges are charged on the surfaces of the borate silicas S1, S2,..., S11, S12, and the water glass T1, T2. S2, S11, S12... And water glasses T1, T2... Are in a so-called charged particle state and are considered to have an electrodeposition effect.
In addition, it is considered that electrolysis of water passing around the ceramics 8, 8a,... Occurs due to the electric charge generated by tourmaline, and the water is reformed and activated.
[0018]
In addition, the ceramic 32, 32a, etc. of the second kind is formed by sintering magnesia, and this ceramic 32, 32a ... has an action of making the water quality alkaline by eluting the contained mineral. Yes.
In addition, it has a water activity like the ceramics 8 and 8a, which are mainly composed of tourmaline, and is in contact with water passing around the ceramics 32, 32a because they are soft magnetic materials and dielectric materials. By the action, it is considered that the source water L is activated by the following action.
For example, static electricity is generated due to contact with ceramics 32, 32a, etc., and the potential changes. Electrolysis of water occurs due to the weak current generated, or water is reformed by the generated magnetic field lines, and water is activated. It seems to become.
[0019]
Examples of the action of water reforming by the above-mentioned two types of ceramics 8, 8a ..., 32, 32a ... are magnetic water, magnetized water, and structural change water. It acts on the water structure such as hydrogen bonds, resulting in clusters (water molecules H 2 O conjugate) becomes smaller, the water structure becomes sparse and activated, and the sparse water structure includes dirt adhering to the surface W of the object to be cleaned in the water structure to increase the cleaning action. To do.
[0020]
In addition to the action of activation of the ceramics 8, 8a (including the ceramics 32, 32a, etc., the same applies hereinafter in the cleaning operation), the water activation is the water in which the pressure acting on the source water L is filled with the ceramics 8, 8a, etc. The pressure changes due to the difference in the diameter of the water supply port 10 before and after the ceramics 8, 8 a... And the small diameter active water transport path 12, and the viscosity of the water changes. A water structure change or a pressure change occurs. Further, since the gaps between the large number of granular ceramics 8, 8 a... Accommodated in the water activation tank 3 are random, the flow of the source water L that flows into the water activation tank 3 with water pressure applied. Is turbulent and turbulent, the water pressure around the ceramics 8, 8 a... Locally increases or decreases, and the water activation tank 3 is stirred by intense turbulent flow.
These flowing water actions promote charge generation in tourmaline and elution of borate silica S1, S2,... From tourmaline.
[0021]
When the cleaning water L3 containing the borate silicas S1, S2,..., S11, S12... And the water glass T1, T2,. It is removed with pressure water jetted at a high pressure, or dirt is removed with washing water L3.
Simultaneously with the cleaning action, the borate silica S1, S2, S11, S12... And the water glasses T1, T2... Contained in the cleaning water L3 adhere to the surface W of the water-absorbing object to be cleaned, and the coating M1. Form.
Further, the object to be cleaned has many open pores that cause water absorption, but the water glass T1, T2,... Contained in the cleaning water L3 is carbon dioxide in the air after being jetted to the surface W. As a result of solidification immediately, the water is not absorbed up to the depth of the open pores of the object to be cleaned, adheres to the pore openings in the vicinity of the pores, closes the pores, and is further washed with water L3 by electrodeposition due to the charge generated by tourmaline. The charged borate silica S1, S2,..., S11, S12... And the charged water glass T1, T2... Firmly adhere to the surface W of the object to be cleaned with the pores blocked. Since the surface W has innumerable fine irregularities, the borate silica S1, S2,..., S11, S12, and the water glass T1, T2. The film M1 is formed by adhering to the surface W.
The glassy coating M1 is composed of borate silica S1, S2,..., S11, S12... And water glass T1, T2,..., And the borate silica S1, S2,. Therefore, it is difficult for the dirt to adhere by flipping away the components of dirt such as dust and dust in fine weather.
Moreover, since water glass T1, T2 ... has hydrophilicity, the rain water which pours into the film M1 at the time of rain does not become a ball shape, spreads and flows down with dirt, and dirt does not adhere easily.
[0022]
Next, as a more desirable embodiment of the above-described cleaning device, only a different part of the configuration of the cleaning device provided with the hot water supply device will be described.
As shown in FIGS. 7 to 9, the cleaning device 1 is provided with a hot water supply device 33 inside the base case 2, and the hot water supply device 33 is connected to the boiler 34 and the boiler 34 via a fuel transport path 35. It has a fuel tank 36 connected to it, and connects the upstream end of the hot water transport path 38 to the hot water outlet 37 of the boiler 34 (hot water supply device 33) and the downstream end to the inlet 10 of the water activation tank 3. A water supply pipe 41 having a pressure reducing valve 40 is connected to the water inlet 39 of the boiler 34.
In addition, a drain port 44 to which a drain pipe 43 having a relief valve 42 is connected is provided at the upper part of the boiler 34, and a drain port 47 to which a drain pipe 46 having a valve 45 is connected to the lower part.
Further, a pressure switch 49 is provided in the middle of the hot water transport path 38 via a connecting pipe 48, and the pressure switch 49 senses the water pressure in the boiler 34 to control the start and stop of combustion of the boiler 34. .
[0023]
Next, the operation of the cleaning device provided with the hot water supply device will be described.
In general, there is an upper limit on the amount of solute that can be dissolved in a solvent (solubility), and the solubility varies depending on the temperature of the solvent. When water-soluble glass is dissolved in water, the solubility increases as the temperature of water increases. Further, since the dissolution rate of the solute and the homogenization rate of the solution increase as the solubility increases, warm water (for example, 40 to 60) heated by the boiler 34 in the water active tank 3 filled with the ceramics 8, 8a. The amount of elution of borate silica S1, S2 ... from ceramics 8, 8a ... is increased by passing water (° C warm water), and charge generation, water activity. Is more promoted.
Moreover, since the temperature of the active water L1 sent to the wash water tank 5 is higher than that of room temperature tap water, the wash water formed by mixing and stirring the glass solution L2 and the active water L1 from the solution tank 4 by natural flow. The borate silica S11, S12... And the water glass T1, T2.
Further, since the temperature of the cleaning water L3 ejected to the object to be cleaned is higher than that of the object to be cleaned, the temperature of the cleaning water L3 decreases and the solubility decreases when it is ejected to the surface W. ..., S11, S12 ... and water glass T1, T2 ... are deposited quickly and in large quantities.
[0024]
Further, as shown in FIG. 10, the cleaning apparatus 1 is provided with a solution tank 4 containing a silica borate aqueous solution and a solution tank 4a containing a water glass aqueous solution, and the solution tank 4a and the washing water tank 5 communicate with each other. A needle valve 50a (flow rate adjusting means) is provided upstream of the transport path 50, and an electromagnetic valve 50b (path disconnecting means) is provided downstream, and the needle valve 16a provided in the solution transport path 16 of the solution tank 4 The flow rate of the aqueous solution of boric acid is adjusted with the needle valve 50a provided in the solution transport path 50 of the solution tank 4a to adjust the flow rate of the aqueous solution of water glass to mix the aqueous solution of silica borate and the aqueous solution of water glass at a desired ratio. May be.
In this case, it is necessary to use the solution tank 4a, the solution transport path 50, the needle valve 50a, and the electromagnetic valve 50b made of a member having durability against the alkaline solution.
[0025]
Finally, a preferred embodiment using the above-described cleaning method will be described.
When the cleaning method of the present invention is carried out for the first time, the dirt is firmly incorporated in the silica borate / water glass coating M1 unless the object to be cleaned is sufficiently cleaned. It is important to wash.
Further, when the cleaning according to the present invention is performed once, it may be performed only with water, but by performing the cleaning according to the method of the present invention a plurality of times, new coatings M2, M3,... Are successively formed on the coating M1, Improved gloss, water repellent effect, and hydrophilic effect.
In addition, although the article to be cleaned having water absorbency has been described as the target article of the present invention, regardless of the target article or material, for example, if it has a relatively smooth and smooth surface with low water absorbency or non-water absorbency, The coating M1 can be formed in a short time.
[0026]
【The invention's effect】
In short, the present invention uses the active water L1 obtained by passing the water active tank 3 filled with the granular ceramic 8, 8a... For washing the articles. 8a... Since the object to be cleaned and the coating M1 are formed with the cleaning water L3 circulated in the filled cartridge 7, labor and cost can be greatly reduced.
Further, since the cleaning water L3 is activated by the flow between the ceramics 8, 8a, etc., the dust adhering to the surface W of the object to be cleaned can be removed to increase the cleaning power, and no detergent is required. In this way, environmental destruction can be prevented.
[0027]
In addition, since the aqueous solution of silica borate and the aqueous solution of water glass are added to the active water L1, the glass is sprayed onto the surface of the object to be cleaned and the surface is cleaned and a film is formed. By containing T2,..., The water glass T1, T2,... Is solidified immediately by carbon dioxide in the air after being ejected to the surface W, so that it is not absorbed up to the depth of the open pores of the object to be cleaned. It is possible to block the pores by adhering to the vicinity of the pore opening portion by the electric charge. Therefore, the boric silica S1, S2,..., S11, S12. ... adheres with electric charges and enters fine irregularities on the surface W, and a thick glassy film M1 can be formed on the surface W of the object to be cleaned having water absorption.
[0028]
Further, by adding borate silica S11, S12... And water glass T1, T2... As an aqueous solution, the aqueous solution is easily mixed and homogenized with the active water L1, so that the borate silica S11, S12 ... and water glass T1, T2 ... are contained in a large amount, and the amount of borate silica S1, S2, ..., S11, S12 ... and water glass T1, T2 ... ejected on the surface W is increased in a short time. A thick film M1 can be formed.
[0029]
Further, since the coating M1 has both the water repellency of silica borate S1, S2,..., S11, S12, and the hydrophilicity of the water glass T1, T2,. The rainwater that pours onto the coating M1 does not become ball-shaped when it rains, and spreads and flows down along with the dirt, making it difficult for the dirt to adhere to it. , Can eliminate the need for drugs.
Therefore, it is possible to greatly reduce the labor and cost of cleaning an object to be cleaned made of a material having water absorption properties such as wood, stone, concrete, etc., for example, the outer wall of a building.
[0030]
In addition, if the object to be cleaned has no water absorption, it is possible to form a highly durable thick film M1 in a very short time. For example, it can be applied to the bottom (outer surface) of a ship to remove dirt and shellfish. Can be prevented.
[0031]
Further, since warm water is passed through the water activation tank 3, by increasing the temperature of the source water L, the solubility of the water-soluble glass in the source water L is increased, so that the silica borate S1, S2,. More elution from the ceramics 8, 8a... Can promote charge generation (charging) and water activation.
[0032]
Moreover, since the temperature of the active water L1 sent to the wash water tank 5 is higher than that of room temperature tap water, and the glass solution L2 is mixed and homogenized more quickly with the active water L1, more boric acid is contained in the wash water L3. Silica S11, S12... And water glass T1, T2... Can be dissolved, and since the temperature of the cleaning water L3 ejected to the object to be cleaned is higher than that of the object to be cleaned, Since the temperature of the washing water L3 is lowered and the solubility is lowered, the silica borate S1, S2,..., S11, S12... And the water glass T1, T2. I can do it.
[0033]
Further, since the ceramics 8, 8a... Containing tourmaline are used, the activated water L1 circulated between the ceramics 8, 8a..., And silica borate S1, which is a partial component of the ceramics 8, 8a. S2 ... is contained and tourmaline generates an electric charge.
When the tourmaline generates electric charges, the borate silicas S1, S2... Eluted from the ceramics 8, 8a..., The borate silicas S11, S12... Added to the active water L1, and the water glasses T1, T2. However, since it is in a so-called charged particle state and has an electrodeposition action, when it is ejected onto the surface W of the object to be cleaned, it is firmly grounded by the electrodeposition action and adheres to fine irregularities on the surface W. To form the coating M1.
[0034]
In addition, since the ceramics 32, 32a... Containing magnesia are used in combination, minerals are eluted in the source water L passing through the water activation tank 3 of the cleaning device 1, thereby activating the active water L1 (washing water L3). ) To improve the detergency by making the water quality alkaline, and with the same action as the ceramics 8, 8a... Containing tourmaline, the water can be activated and the detergency can be further improved.
[0035]
Further, since the coatings M1, M2,... Are formed into a plurality of layers by performing cleaning a plurality of times, the coatings M1, M2,... Become strong, and the subsequent cleaning of the object to be cleaned can be facilitated.
[0036]
Further, since the detergent is used for the first cleaning, even if the surface W of the object to be cleaned is contaminated, the dirt is removed by using the detergent together to prevent the dirt from remaining in the coatings M1, M2,. I can do it.
[0037]
Further, since the flow rate adjusting means 16a is provided in the solution transport path 16, the flow rate adjusting means 16a (needle valve) is used to adjust the flow rate of the glass solution L2 fed from the solution tank 4 to the washing water tank 5 to activate the water activity. The mixing ratio of the active water L1 and the glass solution L2 fed from the tank 3 can be adjusted to a desired ratio.
[0038]
In addition, since the base case 2 is provided with a plurality of water-soluble glass solution tanks 4, the solution tank 4 contains an aqueous solution of silica borate and the solution tank 4 a contains an aqueous solution of water glass, and the solution from the solution tanks 4 and 4 a is supplied. By individually adjusting the flow rate, it is possible to immediately change the mixing ratio of the silica borate aqueous solution and the water glass aqueous solution in accordance with conditions such as water absorption and roughness of the object to be cleaned.
[0039]
Further, since the cartridge 9 filled with the ceramics 8, 8a ..., 32, 32a ... in the water activation tank 3 is made detachable, the ceramics 8, 8a ..., 32, 32a ... used for a long time are replaced, In addition to regenerating the cleaning effect, the ceramics 8, 8a, ..., 32, 32a ... can be easily replaced.
[0040]
Moreover, since the diameter of the active water outlet 11 is made smaller than the diameter of the water supply port 10, the three actions of charge generation (charging), silica borate S1, S2,... Thus, the efficacy of the washing water L3 can be improved.
[0041]
In addition, since the discharge pipe 29 is provided in the middle part of the active water transport path 11, the practical effect such as the ability to take out the silica-containing active water L1 separately in a bucket and improve the usability is very large. .
[Brief description of the drawings]
FIG. 1 is a schematic view of a cleaning apparatus according to the present invention.
FIG. 2 is a schematic front view showing an outline of a cleaning device.
FIG. 3 is a schematic side view of FIG. 2;
4 is a schematic plan view of FIG.
FIG. 5 is a schematic front view showing the inside of the cleaning apparatus.
6 is a schematic plan view of FIG. 5. FIG.
FIG. 7 is a schematic view of a cleaning device equipped with a hot water supply device.
8 is a schematic front view showing the inside of the cleaning apparatus of FIG. 7. FIG.
9 is a schematic plan view of FIG. 8. FIG.
FIG. 10 is a schematic view of a cleaning apparatus equipped with a plurality of solution tanks.
FIG. 11 is a diagram for explaining a state of film formation.
[Explanation of symbols]
2 Base case
3 Water activation tank
4 Solution tank
4a Solution tank
5 Washing water tank
6 Water feeder
8, 8a ... Ceramic
9 Cartridge
10 Water inlet
11 Active water outlet
12 Active water transport route
13 Active water inlet
14 Inlet
15 Solution outlet
16 Solution transport route
16a Needle valve (flow rate adjusting means)
17 Solution inlet
18 Wash water outlet
19 Connecting pipe
20 Outlet
21 High pressure hose
22 Gun
23 nozzles
29 Discharge pipe
32, 32a… Ceramic
33 Hot water supply device
38 Hot water transport route
39 Entrance
W surface
M1, M2 ... coating
S1, S2 ... silica borate
T1, T2 ... Water glass

Claims (9)

基体ケースに、粒状セラミックを充填した水活性タンクと、水溶性ガラスの溶液タンクと、洗浄水タンクと、送水装置とを備え、前記水活性タンクに給水口及び活性水送出口を設け、該活性水送出口に活性水輸送経路の上流端を接続すると共に、下流端を前記洗浄水タンクの活性水給入口に接続し、一方前記溶液タンクに溶液注入口及び溶液送出口を設け、該溶液送出口に溶液輸送経路の上流端を接続すると共に、下流端を前記洗浄水タンクの溶液給入口に接続し、前記洗浄水タンクの洗浄水送出口に連結管を介して送水装置を連結し、該送水装置に設けた送出口に高圧ホース、ガン及びノズルを連設したことを特徴とする洗浄装置。 The base case is provided with a water activation tank filled with granular ceramic, a water-soluble glass solution tank, a washing water tank, and a water supply device. The water activation tank is provided with a water supply port and an active water supply outlet. The upstream end of the active water transport path is connected to the water outlet, and the downstream end is connected to the active water inlet of the washing water tank. On the other hand, the solution tank is provided with a solution inlet and a solution outlet. An upstream end of the solution transport path is connected to the outlet, a downstream end is connected to the solution supply inlet of the washing water tank, a water supply device is connected to the washing water outlet of the washing water tank via a connecting pipe, A cleaning apparatus comprising a high-pressure hose, a gun, and a nozzle connected to a delivery port provided in a water delivery apparatus. 溶液輸送経路に流量調節手段を設けたことを特徴とする請求項1記載の洗浄装置。 The cleaning apparatus according to claim 1 , wherein a flow rate adjusting means is provided in the solution transport path . 基体ケースに温水供給装置を備え、該温水供給装置の温水送出口に温水輸送経路の上流端を接続すると共に、下流端を水活性タンクの給水口に接続したことを特徴とする請求項1又は2記載の洗浄装置。 Includes a hot water supply device to the substrate case, the hot water outlet of the hot water supply device as well as connecting the upstream end of the hot water transportation routes, according to claim 1 or downstream end, characterized in that connected to the water inlet of the water activity tank 2. The cleaning apparatus according to 2 . 基体ケースに水溶性ガラスの溶液タンクを複数備えたことを特徴とする請求項1、2又は3記載の洗浄装置。 4. The cleaning apparatus according to claim 1, wherein a plurality of water-soluble glass solution tanks are provided in the base case . 水活性タンク内にセラミックを充填したカートリッジを着脱自在と成したことを特徴とする請求項1、2、3又は4記載の洗浄装置。 5. A cleaning apparatus according to claim 1, wherein a cartridge filled with ceramic in the water activation tank is detachable . 水活性タンクの給水口の口径に比して活性水送出口の口径を小径と成したことを特徴とする請求項1、2、3、4又は5記載の洗浄装置。 6. The cleaning device according to claim 1, wherein the diameter of the active water delivery outlet is smaller than the diameter of the water supply opening of the water activation tank . 活性水輸送経路の中間部に吐出管を設けたことを特徴とする請求項1、2、3、4、5又は6記載の洗浄装置。 7. A cleaning apparatus according to claim 1 , wherein a discharge pipe is provided at an intermediate portion of the active water transport path . セラミックは、トルマリンを含有させたものと成したことを特徴とする請求項1、2、3、4、5、6又は7記載の洗浄装置。The cleaning apparatus according to claim 1, 2, 3, 4, 5, 6 or 7 , wherein the ceramic contains tourmaline . セラミックは、マグネシアを含有させたものを、請求項8記載のセラミックに混合したことを特徴とする洗浄装置。9. A cleaning apparatus comprising ceramic mixed with magnesia-containing ceramic according to claim 8.
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JP2011099143A (en) * 2009-11-05 2011-05-19 Ota Yoshio Machine Industry Co Ltd Cleaning and film forming device, and cleaning and film forming method

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JP2004050043A (en) * 2002-07-19 2004-02-19 Shibata Toki Kk Washing method and apparatus
WO2010073062A1 (en) * 2008-12-24 2010-07-01 Milroy Business Management Ltd Method of oil residue utilisation and chemical agent thereof
CN109821280B (en) * 2019-04-04 2024-06-28 芜湖华衍水务有限公司 Sedimentation tank water catch bowl belt cleaning device
JP7165406B2 (en) * 2019-11-19 2022-11-04 株式会社エヌエム Method for producing water modifier

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