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JP4588104B1 - Disinfection / deodorization method and disinfection / deodorization equipment - Google Patents

Disinfection / deodorization method and disinfection / deodorization equipment Download PDF

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JP4588104B1
JP4588104B1 JP2009205176A JP2009205176A JP4588104B1 JP 4588104 B1 JP4588104 B1 JP 4588104B1 JP 2009205176 A JP2009205176 A JP 2009205176A JP 2009205176 A JP2009205176 A JP 2009205176A JP 4588104 B1 JP4588104 B1 JP 4588104B1
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光正 村上
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Abstract

【課題】安価な装置を使用するにも拘わらず、安全にかつ効率よく室内を除菌・消臭することができる除菌・消臭方法を提供する。
【解決手段】所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液(22)を調製する。薬液を空気に接触(Y2)させて、空気中に次亜塩素酸を蒸散させる。このとき、薬液は液相に維持した状態にして、すなわち霧状にしないようにして空気に接触させる。そして、得られた次亜塩素酸を含んだ空気を所定のエリアに送風(Y3)して該エリアを除菌・消臭する。
【選択図】図1
Disclosed is a sterilization / deodorization method capable of sterilizing and deodorizing a room safely and efficiently despite using an inexpensive apparatus.
A chemical solution (22) containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 is prepared. The chemical solution is brought into contact with air (Y2), and hypochlorous acid is evaporated in the air. At this time, the chemical solution is kept in a liquid phase, that is, it is brought into contact with air without being atomized. The obtained air containing hypochlorous acid is blown to a predetermined area (Y3) to sterilize and deodorize the area.
[Selection] Figure 1

Description

本発明は、マンション、住宅等の居住施設、病院、老人ホーム、保育施設等の公共施設、または食品工場、地下街等の所定のエリアに殺菌作用と消臭作用を有する物質を含んだ空気を供給して、該エリアを除菌および消臭する除菌・消臭方法、および除菌・消臭装置に関するものである。   The present invention supplies air containing a substance having a bactericidal and deodorizing action to a predetermined area such as a residential facility such as a condominium, a house, a public facility such as a hospital, a nursing home or a childcare facility, or a food factory or an underground shopping center. Thus, the present invention relates to a sterilization / deodorization method and a sterilization / deodorization apparatus for sterilizing and deodorizing the area.

手術室や、術後の患者を収容する病室においては、免疫力の低下している患者が感染症に感染しないように室内が除菌される。このような除菌方法としては、例えば消毒用アルコールを霧吹きによって直接室内で噴霧して除菌するようなシンプルな方法もあるし、オゾンガス法、紫外線照射法等の、比較的高価な装置を使用して除菌する方法もある。オゾンガス法は、密閉された無人の室内にオゾンガス発生装置によりオゾンガスを供給する方法である。オゾンガスの強力な酸化作用によって室内の空気中に漂っている細菌や、家具、器具等に付着している細菌が除菌されことになる。紫外線照射法は、紫外線照射装置によって室内の家具や器具に紫外線を照射する方法である。紫外線の殺菌作用によって紫外線が照射された部分が除菌されることになる。しかしながら、これらの除菌方法には問題が認められる。例えば、消毒用アルコールを霧吹きによって吹き付ける方法においては、消毒用アルコールの噴霧直後は除菌効果が得られるが、密閉した室内に蒸発したアルコールが滞留していると、アルコール自体が細菌やカビの栄養になってしまって、かえって細菌やカビが増殖してしまうという問題がある。従って、比較的空気の入れ換えが頻繁な救急車の車内の除菌等には適しているが、手術室や病室の除菌に適しているとは必ずしも言えない。オゾンガス法においては、オゾンガスは酸化作用が強力なので、部屋を無人にした後に供給するようにしなければならないので不便であるし、強力な酸化作用によって部屋内の器具が腐食してしまうという重大な問題もある。紫外線照射法においては、紫外線が直接人体に照射されないように留意する必要があるし、紫外線が照射されない陰の部分は除菌されないので、十分な除菌効果が得られないという問題もある。   In an operating room or a hospital room that accommodates a post-operative patient, the room is sterilized so that a patient with reduced immunity does not get infected. As such a sterilization method, for example, there is a simple method such as sterilization by spraying a rubbing alcohol directly in a room by spraying, and a relatively expensive apparatus such as an ozone gas method or an ultraviolet irradiation method is used. There is also a method of sterilization. The ozone gas method is a method in which ozone gas is supplied into a sealed unmanned room by an ozone gas generator. Bacteria floating in the indoor air and bacteria adhering to furniture, appliances, etc. are sterilized by the strong oxidizing action of ozone gas. The ultraviolet irradiation method is a method of irradiating indoor furniture and fixtures with ultraviolet rays using an ultraviolet irradiation device. The part irradiated with ultraviolet rays is sterilized by the sterilizing action of ultraviolet rays. However, there are problems with these sterilization methods. For example, in the method of spraying disinfecting alcohol by spraying, a sterilizing effect can be obtained immediately after the disinfecting alcohol is sprayed, but if the evaporated alcohol stays in a sealed room, the alcohol itself is nutrient for bacteria and mold. However, there is a problem that bacteria and mold grow on the contrary. Therefore, it is suitable for sterilization of ambulances in which ambulatory air exchange is relatively frequent, but it is not necessarily suitable for sterilization of operating rooms and hospital rooms. In the ozone gas method, ozone gas has a strong oxidizing action, so it is inconvenient because it must be supplied after the room is unattended, and a serious problem that the equipment in the room corrodes due to the strong oxidizing action. There is also. In the ultraviolet irradiation method, it is necessary to take care not to directly irradiate the human body with ultraviolet rays, and there is also a problem that a sufficient sterilizing effect cannot be obtained because the shaded part not irradiated with ultraviolet rays is not sterilized.

そこで、細菌やカビの栄養になることのない、次亜塩素酸を含んだ薬液を霧状に噴霧して室内に供給して、屋内を除菌する色々な除菌方法が特許文献1〜3において提案されている。   Therefore, various sterilization methods for sterilizing indoors by spraying a chemical solution containing hypochlorous acid that does not become nutrients for bacteria and molds in a mist state and supplying the solution indoors are disclosed in Patent Documents 1 to 3. Has been proposed in

特開2001−129061号公報JP 2001-129061 A 特開2001−276842号公報JP 2001-276842 A 特開2004−141429号公報JP 2004-141429 A

特許文献1には、所定のpH4.0〜7.5に調整された次亜塩素酸ナトリウム水溶液からなる薬液を、超音波振動装置を使用して霧状にして、これを空気と攪拌して室内に供給する除菌方法が記載されている。特許文献1に記載の方法によると、薬液には殺菌力の強い次亜塩素酸が5〜200ppm含まれているので、霧状にされた薬液が空気と共に攪拌されて室内に供給されると、室内を効率よく除菌することができる。特許文献2には、塩素イオンを含む水を霧状に噴霧して除菌対象物に噴霧するとき、霧状に噴霧された水に紫外線を照射して次亜塩素酸を生成させ、除菌対象物に次亜塩素酸を含む霧状の水が到達するようにする除菌方法が記載されている。特許文献2によると、単純に次亜塩素酸を含む薬液を噴霧すると、噴霧時に薬液中の次亜塩素酸が所定の割合だけ分解されてしまう問題があるように記載されている。これは、本発明の説明において明らかにされているように、次亜塩素酸が空気中に蒸散される現象について、次亜塩素酸が分解されていると解釈されてしまったようである。いずれにしても、特許文献2に記載の方法によると、噴霧された水に紫外線を照射して次亜塩素酸を生成するので、すなわち噴霧時には分解されてしまう次亜塩素酸は含まれないので、次亜塩素酸が分解されずに除菌に有効に利用されることになる。特許文献3には、亜塩素酸と次亜塩素酸を含む薬液を高圧にして、高圧にされた空気と共にノズルから噴出して、0.2〜25μmの霧状にして空気中に放出する除菌方法が記載されている。特許文献3に記載の方法によれば、亜塩素酸や次亜塩素酸は殺菌力が強いので、これらを含む薬液が霧状にされて空気中に放出されると、室内の空気が効率的に除菌されることになる。   In Patent Document 1, a chemical solution composed of an aqueous sodium hypochlorite solution adjusted to a predetermined pH of 4.0 to 7.5 is atomized using an ultrasonic vibration device, and this is stirred with air. A sterilization method to be supplied indoors is described. According to the method described in Patent Document 1, since the chemical liquid contains 5 to 200 ppm of hypochlorous acid having a strong sterilizing power, when the atomized chemical liquid is stirred together with air and supplied into the room, The room can be sterilized efficiently. Patent Document 2 discloses that when water containing chlorine ions is sprayed in a mist and sprayed on a sterilized object, the sprayed water is irradiated with ultraviolet rays to generate hypochlorous acid, and sterilized. A sterilization method is described in which mist water containing hypochlorous acid reaches an object. According to Patent Document 2, it is described that when a chemical solution containing hypochlorous acid is simply sprayed, there is a problem that hypochlorous acid in the chemical solution is decomposed by a predetermined ratio at the time of spraying. This seems to have been interpreted that hypochlorous acid has been decomposed with respect to the phenomenon that hypochlorous acid is evaporated in the air, as is clarified in the description of the present invention. In any case, according to the method described in Patent Document 2, since the sprayed water is irradiated with ultraviolet rays to generate hypochlorous acid, that is, hypochlorous acid that is decomposed during spraying is not included. Hypochlorous acid is effectively used for sterilization without being decomposed. In Patent Document 3, a chemical solution containing chlorous acid and hypochlorous acid is set to a high pressure, ejected from a nozzle together with the pressurized air, and discharged into the air in the form of a mist of 0.2 to 25 μm. A fungal method is described. According to the method described in Patent Document 3, chlorous acid and hypochlorous acid have a strong sterilizing power. Therefore, when a chemical solution containing these is atomized and released into the air, the indoor air is efficient. Will be sterilized.

特許文献1〜3に記載の方法によれば、次亜塩素酸を含む霧状の薬液を空気中に噴霧するので、空気を除菌することができるし、このような薬液を除菌対象物に噴霧すると除菌対象物を効率よく除菌することができる。さらには、次亜塩素酸は有機物を分解することもできるので、部屋内を消臭する効果も認められる。そして、次亜塩素酸は人体に対する影響が十分に小さいので、有人の部屋に供給することも可能である。しかしながら、これらの方法には、解決すべき問題も見受けられる。まず、それぞれの方法について個別の問題を説明し、次いで特許文献1〜3に共通する問題点について説明する。   According to the methods described in Patent Documents 1 to 3, since a mist-like chemical solution containing hypochlorous acid is sprayed into the air, the air can be sterilized, and such a chemical solution can be sterilized. When sprayed on, the sterilization object can be sterilized efficiently. Furthermore, since hypochlorous acid can also decompose organic substances, an effect of deodorizing the interior of the room is recognized. Since hypochlorous acid has a sufficiently small influence on the human body, it can be supplied to a manned room. However, these methods also have problems to be solved. First, individual problems will be described for each method, and then problems common to Patent Documents 1 to 3 will be described.

(個別の問題)
特許文献1に記載の方法においては、薬液を霧状にする超音波振動装置が格別に必要になるという問題がある。例えば、病院や老人ホームのように除菌すべき室内が広い場合、大量の薬液を霧状に噴霧する必要があるが、このような大量の薬液を霧状にするには多数の超音波振動装置、または大型の超音波振動装置が必要になってしまう。また、このような薬液中の次亜塩素酸は、有効塩素濃度が5〜200ppmと比較的低濃度であるので、十分な除菌効果を得るためには薬液を大量に霧状にする必要がある。そうするとコスト高になってしまう。特許文献2に記載の方法においては、塩素イオンを含み霧状にされた水に紫外線を照射して次亜塩素酸を生成させているが、このような方法で生成される次亜塩素酸は一般的に濃度は高くないし、生成効率も高くない。そうすると、十分な除菌効果を得ようとすると大型の装置が必要になってコスト高になる。特許文献3に記載の方法においては、薬液を高圧にすると共に高圧の空気と共に薬液をノズルから噴射するので、コンプレッサーと加圧ポンプが格別に必要になる。そうすると装置が大型化してしまう。また、適切に薬液が噴霧されるようにするために、コンプレッサーと加圧ポンプの運転を調整する必要があり、高度な制御と調整が必要でありコスト高になってしまう。
(Individual issues)
In the method described in Patent Document 1, there is a problem that an ultrasonic vibration device that makes the chemical liquid in a mist form is particularly necessary. For example, if the room to be sterilized is large, such as a hospital or nursing home, it is necessary to spray a large amount of chemical liquid in a mist. A device or a large ultrasonic vibration device is required. In addition, since hypochlorous acid in such a chemical solution has a relatively low effective chlorine concentration of 5 to 200 ppm, it is necessary to atomize the chemical solution in a large amount in order to obtain a sufficient sterilizing effect. is there. This will increase costs. In the method described in Patent Document 2, hypochlorous acid is generated by irradiating ultraviolet rays to water atomized and containing chlorine ions to form hypochlorous acid. Generally, the concentration is not high and the production efficiency is not high. If it does so, if it is going to acquire sufficient disinfection effect, a large sized apparatus will be needed and it will become high-cost. In the method described in Patent Document 3, since the chemical liquid is made high pressure and the chemical liquid is ejected from the nozzle together with the high pressure air, a compressor and a pressurizing pump are required. This will increase the size of the device. Moreover, in order to spray a chemical | medical solution appropriately, it is necessary to adjust the operation | movement of a compressor and a pressurization pump, advanced control and adjustment are needed, and it will become high cost.

(共通の問題)
特許文献1、または3に記載の方法においては、次亜塩素酸を含んだ薬液を霧状にして空気に攪拌し、水分を含んだ状態で部屋の隅々まで到達するようにしている。また、特許文献2に記載の方法においては、霧状の水に次亜塩素酸を生成させたもの、すなわち次亜塩素酸を含んだ薬液を直接除菌対象物に噴霧するようにしている。このように、いずれの方法においても水分を含んだ状態で次亜塩素酸を除菌対象に接触させることを予定している。このように水分を含んだ状態で次亜塩素酸を除菌対象に接触させる点について、これらの文献には明確に理由が記載されていないが、次亜塩素酸に関する従来の知見または推測に基づいてなされているように考えられる。すなわち、次亜塩素酸は水分子がある水中でのみ殺菌力を有するとの知見である。もしくは、次亜塩素酸が蒸発すると下記式のように一酸化二塩素に変化してしまい、十分な殺菌効果が得られなくなってしまうのではないかとの推測である。
2HOCl=ClO+HO (式1)
従って、特許文献1〜3においては、次亜塩素酸が単体で空気中に拡散する可能性とその状態における次亜塩素酸の殺菌力については顧みられていない。このため、特許文献1〜3のそれぞれに記載の方法においては、次亜塩素酸を含んだ薬液を霧状に噴霧して空気に攪拌しているが、新たな問題が生じる。すなわち、このような薬液には次亜塩素酸の生成時に必要な塩化ナトリウムが不純物として含まれていたり、薬液のpHを調整する塩酸が所定の割合で含まれている。そうすると、不純物の塩化ナトリウムや塩酸も霧状にされて噴霧されるので、室内の金属類が錆びてしまったり、室内を汚染してしまう。さらには、次亜塩素酸が自己分解して生成される塩素酸ナトリウム(NaClO)等の毒性の強い物質が薬液中に含まれている場合には、これらが噴霧されて危険でもある。このように、特許文献1〜3のそれぞれの方法によっては、次亜塩素酸のみを室内に供給することができないので、問題が生じてしまう。
(Common problems)
In the method described in Patent Document 1 or 3, a chemical solution containing hypochlorous acid is atomized and stirred in air so that it reaches every corner of the room in a state containing moisture. Moreover, in the method described in Patent Document 2, a solution obtained by generating hypochlorous acid in mist-like water, that is, a chemical solution containing hypochlorous acid is sprayed directly on the sterilization target. Thus, in any method, hypochlorous acid is scheduled to be brought into contact with the sterilization target in a state containing moisture. The reason why hypochlorous acid is brought into contact with the sterilization target in a state of containing moisture in this way is not clearly described in these documents, but based on conventional knowledge or assumption regarding hypochlorous acid. It seems to have been made. That is, hypochlorous acid is a finding that water molecules have bactericidal power only in water with water molecules. Alternatively, it is speculated that when hypochlorous acid evaporates, it changes to dichlorine monoxide as in the following formula, and a sufficient bactericidal effect cannot be obtained.
2HOCl = Cl 2 O + H 2 O ( Equation 1)
Therefore, in patent documents 1-3, the possibility that hypochlorous acid diffuses in the air alone and the sterilizing power of hypochlorous acid in that state are not considered. For this reason, in the methods described in Patent Documents 1 to 3, a chemical solution containing hypochlorous acid is sprayed in a mist and stirred in the air, but a new problem arises. That is, such a chemical solution contains sodium chloride necessary for the generation of hypochlorous acid as an impurity or hydrochloric acid for adjusting the pH of the chemical solution at a predetermined ratio. As a result, impurities such as sodium chloride and hydrochloric acid are also atomized and sprayed, so that the metal in the room rusts or pollutes the room. Furthermore, when a highly toxic substance such as sodium chlorate (NaClO 3 ) produced by autolysis of hypochlorous acid is contained in the chemical solution, these are sprayed and dangerous. Thus, according to each method of patent documents 1-3, since only hypochlorous acid cannot be supplied indoors, a problem will arise.

本発明は、上記したような問題点に鑑みてなされたものであって、具体的には、安価な装置を使用するにも拘わらず、広い室内であっても効率よく除菌・消臭効果を有する物質を室内の空気に攪拌することができ、人体に対する影響がほとんどなく、従って室内に人がいても実施することができ、そして塩化ナトリウム、塩酸等の金属類を錆びさせたり室内を汚染する物質や、塩素酸ナトリウム等の毒性の強い物質を外部に排出することがなく、安全に除菌・消臭することができる室内の除菌・消臭方法、および除菌・消臭装置を提供することを目的としている。   The present invention has been made in view of the above-described problems. Specifically, even though an inexpensive device is used, it can effectively disinfect and deodorize a large room. It can be agitated in indoor air, has almost no effect on the human body, so it can be carried out even if there is a person in the room, and rusts metal such as sodium chloride and hydrochloric acid or pollutes the room. A sterilization / deodorization method and a sterilization / deodorization device that can be safely sterilized and deodorized without discharging toxic substances such as sodium chlorate and highly toxic substances to the outside. It is intended to provide.

本発明は、上記目的を達成するために、所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液を空気に接触させて、空気中に次亜塩素酸を蒸散させる。このとき、薬液は所定の薬液槽に入れておき、空気を薬液の液面に平行に吹き付けるようにして空気を薬液に接触させる。そして、得られた次亜塩素酸を含んだ空気を所定のエリアに送風して該エリアを除菌・消臭するように構成する。このようにすると、塩化ナトリウムや塩酸、他の不純物がエリア内を汚染することがない。また、除菌・消臭装置の発明においては、薬液を所定の薬液槽に入れ、薬液の液面に平行に空気が吹き付けられるようにして空気が薬液に接触されるように所定の構造を備えた除菌・消臭装置として構成する。 In order to achieve the above-mentioned object, the present invention brings a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 into contact with air to bring hypochlorous acid into the air. Allow chloric acid to evaporate. At this time, the chemical solution is placed in a predetermined chemical solution tank , and the air is brought into contact with the chemical solution so as to blow air parallel to the liquid surface of the chemical solution . Then, the air containing the obtained hypochlorous acid is blown to a predetermined area so that the area is sterilized and deodorized. In this way, sodium chloride, hydrochloric acid, and other impurities do not contaminate the area. Further, in the invention of the sterilization / deodorization apparatus, the chemical solution is put in a predetermined chemical solution tank, and has a predetermined structure so that air is blown in parallel with the liquid surface of the chemical solution so that the air is brought into contact with the chemical solution. It is configured as a sterilization / deodorization device.

すなわち、請求項1に記載の発明は、上記目的を達成するために、所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液に、送風機によって空気を送り込んで前記薬液の液面に接するように平行に流し、前記空気中に次亜塩素酸を蒸散させ、得られた次亜塩素酸を含んだ空気を所定のエリアに送風して該エリアを除菌・消臭するとき、前記エリアへの送風は、前記送風機によって送り込まれた空気をそのまま流すようにして実施するように構成される。
請求項2に記載の発明は、請求項1に記載の除菌・消臭方法において、前記薬液は、直列に接続された複数槽の薬液槽を所定時間滞留させながら流下させ、前記空気は前記薬液の流れと反対方向から前記薬液槽の液面に平行に吹き付けるように構成される。
そして、請求項3に記載の発明は、請求項1または2に記載の除菌・消臭方法において、前記薬液を前記空気に接触させて得られた前記次亜塩素酸を含んだ空気を、空調機、加湿器または空気清浄機の送風口に供給して、前記次亜塩素酸を含んだ空気を前記送風口から送風される空気にブレンドして送風するように構成される。
That is, in order to achieve the above-mentioned object, the invention according to claim 1 is a method in which a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 is aired by a blower. the fed is flowed in parallel in contact with the liquid surface of the chemical solution, evaporate the hypochlorite in said air, by blowing air containing hypochlorous acid obtained in a predetermined area of the area When sterilization / deodorization is performed, the air to the area is configured so as to flow as it is by the air sent by the blower .
The invention according to claim 2 is the sterilization / deodorization method according to claim 1, wherein the chemical liquid is allowed to flow down while retaining a plurality of chemical liquid tanks connected in series for a predetermined time, and the air is It is comprised so that it may spray in parallel with the liquid level of the said chemical | medical solution tank from the direction opposite to the flow of a chemical | medical solution.
And in invention of Claim 3, in the disinfection and deodorization method of Claim 1 or 2, the air containing the said hypochlorous acid obtained by making the said chemical solution contact the said air, The air is supplied to a blower port of an air conditioner, a humidifier, or an air purifier, and the air containing the hypochlorous acid is blended with the air blown from the blower port and blown.

請求項4に記載の発明は、外部から空気を取り込む吸入口と外部に空気を送風する送風口が設けられた所定の薬剤蒸散室と、前記薬剤蒸散室内に設けられている薬液槽と、前記吸入口に設けられている送風機とから構成され、前記薬液槽には、所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液が入れられており、前記送風機が駆動されると、前記吸入口から吸入された空気は、前記薬液槽の液面に対して平行に流れて前記薬液と接触して、前記送風口から外部に送風されるように構成される。
また、請求項5に記載の発明は、外部から空気を取り込む吸入口と外部に空気を送風する送風口が設けられた所定の薬剤蒸散室と、前記薬剤蒸散室内に設けられている直列に接続された複数槽の薬液槽と、前記吸入口に設けられている送風機とから構成され、前記吸入口と前記送風口は、それぞれ前記複数槽の薬液槽の最下流の槽と最上流の槽の近傍に設けられ、前記送風機が駆動され、そして前記最上流の槽に所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液が供給されると、前記薬液は前記複数槽の薬液槽を所定の滞留時間を経て順次下流側に流れ、前記吸入口から吸入された空気は、前記薬液の流れと反対の方向に前記複数槽の薬液槽の液面に対して平行に流れて前記薬液と接触して、前記送風口から外部に送風されるように構成される。
さらには、請求項6に記載の発明は、請求項4または5に記載の除菌・消臭装置において、前記送風口は、空調機、加湿器または空気清浄機の送風口近傍に設けられるように構成される。
The invention according to claim 4 is a predetermined chemical evaporation chamber provided with an intake port for taking in air from the outside and an air supply port for blowing air to the outside, a chemical solution tank provided in the chemical evaporation chamber, The chemical solution tank contains hypochlorous acid having a predetermined effective chlorine concentration and has a pH adjusted to 3.0 to 7.0. When the blower is driven, the air sucked from the suction port flows in parallel to the liquid level of the chemical solution tank, contacts the chemical solution, and is blown to the outside from the blower port. Composed.
Further, the invention according to claim 5 is connected in series to a predetermined drug evaporation chamber provided with an intake port for taking in air from outside and a blower port for blowing air to the outside, and provided in the drug evaporation chamber. A plurality of chemical liquid tanks and a blower provided at the suction port, and the suction port and the blower port are respectively the most downstream tank and the most upstream tank of the multiple chemical liquid tanks. Provided in the vicinity, the blower is driven, and a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 is supplied to the most upstream tank, The chemical solution sequentially flows through the plurality of chemical solution tanks downstream through a predetermined residence time, and the air sucked from the suction port is in the direction opposite to the flow of the chemical solution in the liquid surface of the multiple chemical solution tanks. in contact with the drug solution to flow parallel to, out of the blower port Configured to be blown in.
Furthermore, the invention described in claim 6 is the sterilization / deodorization apparatus according to claim 4 or 5, wherein the air blowing port is provided in the vicinity of the air blowing port of the air conditioner, the humidifier, or the air cleaner. Configured.

以上のように本発明によると、所定の有効塩素濃度の次亜塩素酸を含む薬液を空気に接触させるとき、空気を薬液の液面に平行に吹き付けて接触させるので、空気中に塩化ナトリウム、塩酸、塩素酸ナトリウム等の不純物は拡散しない。そして、薬液はpHが3.0〜7.0に調整されているので、薬液中には、分子状態の、すなわちイオン状態でない次亜塩素酸が所定の濃度で存在することになる。従って次亜塩素酸は効率よく蒸散されることになる。そうすると、実質的に次亜塩素酸だけが空気中に蒸散することになる。このようにして得られた次亜塩素酸を含んだ空気を所定のエリアに送風して該エリアを除菌・消臭するので、次のような効果が得られる。まず、病院・学校等の広い室内、または地下鉄のホーム、地下街等の一部が開放された空間のような所定のエリアであっても効率よく除菌・消臭することができる。そして、次亜塩素酸は人体に対する影響がほとんどないので、人がいるエリアに対しても除菌・消臭が可能である。さらには、塩化ナトリウム、塩酸等の金属類を錆びさせたり室内を汚染する物質や、塩素酸ナトリウム等の毒性の強い物質を外部に排出することがないので安全に除菌・消臭をすることができる。 As described above, according to the present invention, when a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration is brought into contact with air, air is blown in parallel with the liquid surface of the chemical solution, so that sodium chloride in the air, Impurities such as hydrochloric acid and sodium chlorate do not diffuse. Since the pH of the chemical solution is adjusted to 3.0 to 7.0, hypochlorous acid in a molecular state, that is, not in an ionic state is present in the chemical solution at a predetermined concentration. Therefore, hypochlorous acid is efficiently evaporated. As a result, only hypochlorous acid is evaporated in the air. Since the air containing hypochlorous acid thus obtained is blown to a predetermined area to sterilize and deodorize the area, the following effects can be obtained. First, sterilization and deodorization can be efficiently performed even in a predetermined area such as a large room such as a hospital or school, or a space where a part of a subway platform or underground shopping area is open. And since hypochlorous acid has almost no influence on the human body, it can be sterilized and deodorized even in areas where people are present. In addition, it is safe to disinfect and deodorize because it does not rust out metals such as sodium chloride and hydrochloric acid, pollute the interior of the room, and does not discharge toxic substances such as sodium chlorate to the outside. Can do.

他の発明によると、薬液を前記空気に接触させるとき、薬液は直列に接続された複数槽の薬液槽を所定時間滞留させながら流下させ、空気は薬液の流れと反対方向から薬液槽の液面と平行に吹き付けるようにするので、シンプルな方法で空気に次亜塩素酸を蒸散させることができる。従って安価に除菌・消臭することができる。さらには、他の発明においては、これらの方法において、薬液を空気に接触させて得られた次亜塩素酸を含んだ空気を、空調機、加湿器または空気清浄機の送風口に供給して、次亜塩素酸を含んだ空気送風口から送風される空気ブレンドて送風るように構成されている。このようにすると、空調機、加湿器または空気清浄機から送風される空気によって、部屋の隅々にまで除菌・消臭効果を有する次亜塩素酸を供給することができるので、効率よく除菌・消臭することが可能になる。 According to another invention, when the chemical liquid is brought into contact with the air, the chemical liquid flows down while retaining a plurality of chemical liquid tanks connected in series for a predetermined time, and the air flows from the opposite direction to the flow of the chemical liquid. Because it is sprayed in parallel with the air, hypochlorous acid can be evaporated in the air by a simple method. Therefore, it can be sterilized and deodorized at low cost. Furthermore, in other inventions, in these methods, air containing hypochlorous acid obtained by bringing a chemical solution into contact with air is supplied to a blower port of an air conditioner, a humidifier, or an air purifier. , it has been configured to blowing blended air that is blown air containing hypochlorous acid from the air blowing port. In this way, hypochlorous acid having a sterilizing / deodorizing effect can be supplied to every corner of the room by air blown from an air conditioner, a humidifier, or an air purifier. It becomes possible to deodorize bacteria.

本発明の実施の形態に係る除菌・消臭装置を模式的に示す図で、その(ア)は、第1の実施の形態に係る除菌・消臭装置を、その(イ)は第2の実施の形態に係る除菌・消臭装置を、それぞれ示す側面断面図である。BRIEF DESCRIPTION OF THE DRAWINGS It is a figure which shows typically the disinfection / deodorizing apparatus which concerns on embodiment of this invention, The (a) is the disinfection / deodorizing apparatus which concerns on 1st Embodiment, The (a) is No. It is side surface sectional drawing which respectively shows the microbe elimination / deodorizing apparatus which concerns on 2 embodiment. 本発明の実施の形態に係る除菌・消臭装置を模式的に示す図で、その(ア)は、第3の実施の形態に係る除菌・消臭装置を、その(イ)は第4の実施の形態に係る除菌・消臭装置を、それぞれ示す側面断面図である。BRIEF DESCRIPTION OF THE DRAWINGS It is a figure which shows typically the disinfection / deodorizing apparatus which concerns on embodiment of this invention, The (a) is the disinfection / deodorizing apparatus which concerns on 3rd Embodiment, The (a) is No. It is side surface sectional drawing which respectively shows the microbe elimination / deodorizing apparatus which concerns on 4 embodiment. 本発明の第5の実施の形態に係る除菌・消臭装置を模式的に示す側面断面図である。It is side surface sectional drawing which shows typically the microbe elimination / deodorizing apparatus which concerns on the 5th Embodiment of this invention. 空気と液面において接触している薬液中の次亜塩素酸の蒸散速度を示すグラフである。It is a graph which shows the evaporation rate of hypochlorous acid in the chemical | medical solution which is contacting in the liquid surface with air.

本発明においては、所定の有効塩素濃度の次亜塩素酸を含み、pHが3.0〜7.0に調整された薬液を空気に接触させて、空気中に次亜塩素酸を蒸散させる。このとき、薬液を液相状態に維持して、すなわち霧状にしないで空気に接触させ、空気中に次亜塩素酸以外の不純物が拡散することを防止する。そして得られた次亜塩素酸を含む空気を除菌・消臭したい所定のエリア、すなわち一般家庭屋内、手術室、病室等のような密閉された部屋や、地下街、地下鉄のホーム、店舗等の一部開放された半開放空間に送風する。このように、本発明は、薬液を液相状態に維持した状態で空気に接触させる点に特徴がある。以下、本発明の色々な実施の形態を説明する。   In the present invention, a hypochlorous acid containing a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 is brought into contact with air to evaporate hypochlorous acid into the air. At this time, the chemical solution is maintained in a liquid phase state, that is, it is brought into contact with air without being atomized to prevent impurities other than hypochlorous acid from diffusing into the air. And in certain areas where you want to sterilize and deodorize the air containing hypochlorous acid, that is, sealed rooms such as indoors, operating rooms, hospital rooms, etc., underground malls, subway platforms, stores, etc. The air is blown into a partially open semi-open space. As described above, the present invention is characterized in that the chemical liquid is brought into contact with air while being maintained in a liquid phase state. Hereinafter, various embodiments of the present invention will be described.

本発明の第1の実施の形態に係る除菌・消臭装置1aは、所定の筐体5と、所定の有効塩素濃度の次亜塩素酸を含んだ薬液が入れられる第1〜3の薬液槽7〜9と、薬液を供給する薬液供給槽13と、使用後の薬液を貯める廃液槽14とから構成されている。筐体5は密閉した扁平な箱状を呈しており、外部から空気を吸入する吸入口2と、外部に次亜塩素酸を含んだ空気を送風する送風口3とが設けられている。筐体5は次亜塩素酸によって腐食されないように材料が選定されているが、特に送風口3近傍は腐食されやすいので、塩化ビニル等の耐腐食性材料から形成されている。吸入口2には筐体5内に空気を吸入する送風機すなわちファン11が設けられている。従って、ファン11を駆動すると、矢印Y1で示されているように吸入口2から空気が筐体5内に吸入される。次いで、空気は矢印Y2で示されているように第1〜3の薬液槽7〜9に入れられた薬液の液面と接しながら流れ、送風口3から矢印Y3で示されているように外部に送風される。従って、筐体5内において薬液中の次亜塩素酸が空気中に蒸散するので、筐体5内は薬剤が蒸散する薬剤蒸散室15になっている。薬剤蒸散室15の底面と壁面の所定部分とからなる下方部分は、異なる高さの第1、2の仕切壁17、18によって3個の部分に分割されている。これらの各部分が第1〜3の薬液槽7〜9になっている。筐体5の第1の薬液槽7側の側壁には、薬液供給槽13から薬液を供給する薬液供給管19が設けられ、薬液供給管19には流量調整弁21が設けられている。従って、流量調整弁21を開くと薬液が第1の薬液槽7に供給される。ところで、第2の仕切壁18の高さは第1の仕切壁17の高さより低い。そして、筐体5の第3の薬液槽9側の側壁には、第2の仕切壁18の高さより低い位置に薬液を排出する薬液排出口20が明けられている。従って、第1〜3の薬液槽7〜9が薬液で満たされるとき、各薬液槽7〜9の液面は、第1の薬液槽7、第2の薬液槽8、第3の薬液槽9の順番で低くなる。このような状態において、第1の薬液槽7に薬液が供給されると、第1の薬液槽7中の薬液は第1の仕切壁17を越えて第2の薬液槽8へ流れ、第2の薬液槽8中の薬液は第2の仕切壁18を越えて第3の薬液槽9へ流れることになる。つまり、第1の薬液槽7は最上流の槽、第3の薬液槽9は最下流の槽になっている。そして、第1、2の仕切壁17、18はこのような薬液の流れをコントロールする堰としての作用を奏する。薬液排出口20は廃液槽14に接続されているので、排出された薬液は廃液槽14に貯められる。   The disinfecting / deodorizing apparatus 1a according to the first embodiment of the present invention includes a predetermined casing 5 and first to third chemical solutions in which a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration is placed. It is comprised from the tanks 7-9, the chemical | medical solution supply tank 13 which supplies a chemical | medical solution, and the waste liquid tank 14 which stores the chemical | medical solution after use. The casing 5 has a closed flat box shape, and is provided with a suction port 2 for sucking air from the outside and a blower port 3 for blowing air containing hypochlorous acid to the outside. The casing 5 is made of a material so as not to be corroded by hypochlorous acid. In particular, the vicinity of the air blowing port 3 is easily corroded, and is therefore made of a corrosion-resistant material such as vinyl chloride. A blower, that is, a fan 11 for sucking air into the housing 5 is provided at the suction port 2. Therefore, when the fan 11 is driven, air is sucked into the housing 5 from the suction port 2 as indicated by the arrow Y1. Next, the air flows while contacting the liquid surface of the chemical liquid placed in the first to third chemical liquid tanks 7 to 9 as indicated by the arrow Y2, and from the air outlet 3 to the outside as indicated by the arrow Y3. To be blown. Therefore, since hypochlorous acid in the chemical solution evaporates in the air in the housing 5, the housing 5 is a chemical evaporation chamber 15 in which the chemical evaporates. A lower part composed of a bottom surface of the chemical evaporation chamber 15 and a predetermined part of the wall surface is divided into three parts by first and second partition walls 17 and 18 having different heights. These parts are the first to third chemical tanks 7-9. A chemical solution supply pipe 19 for supplying a chemical solution from the chemical solution supply tank 13 is provided on the side wall of the housing 5 on the first chemical solution tank 7 side, and a flow rate adjusting valve 21 is provided in the chemical solution supply pipe 19. Accordingly, when the flow rate adjustment valve 21 is opened, the chemical solution is supplied to the first chemical solution tank 7. By the way, the height of the second partition wall 18 is lower than the height of the first partition wall 17. And the chemical | medical solution discharge port 20 which discharges | emits a chemical | medical solution in the position lower than the height of the 2nd partition wall 18 is opened in the side wall by the side of the 3rd chemical | medical solution tank 9 of the housing | casing 5. FIG. Therefore, when the 1st-3rd chemical | medical solution tanks 7-9 are filled with a chemical | medical solution, the liquid level of each chemical | medical solution tank 7-9 is the 1st chemical | medical solution tank 7, the 2nd chemical | medical solution tank 8, the 3rd chemical | medical solution tank 9. It becomes low in order. In such a state, when a chemical solution is supplied to the first chemical solution tank 7, the chemical solution in the first chemical solution tank 7 flows to the second chemical solution tank 8 across the first partition wall 17, and the second The chemical solution in the chemical solution tank 8 flows over the second partition wall 18 to the third chemical solution tank 9. That is, the first chemical tank 7 is the most upstream tank, and the third chemical tank 9 is the most downstream tank. And the 1st, 2nd partition walls 17 and 18 have an effect | action as a weir which controls the flow of such a chemical | medical solution. Since the chemical solution outlet 20 is connected to the waste liquid tank 14, the discharged chemical liquid is stored in the waste liquid tank 14.

本実施の第1の形態に係る除菌・消臭装置1aの作用を説明する。最初に薬液を調製する。薬液は、純度の高い次亜塩素酸水から調製するようにしてもよいが、本発明の方法によると、金属イオン、塩酸等の不純物は除菌・消臭対象のエリアに放出されないので、薬液に含まれる不純物に関しては格別に考慮する必要はない。従って、塩化ナトリウム水溶液を電気分解して次亜塩素酸を含む薬液を生成してもよい。本実施の形態においては、安価に入手できる次亜塩素酸ナトリウム水溶液から調製する。所定の濃度の次亜塩素酸ナトリウム水溶液に希塩酸を所定量だけ添加して、pH3.0〜7.0、好ましくはpH4.0〜6.5に調整する。薬液の有効塩素濃度が高いほど次亜塩素酸の蒸散効果が高くなるので、除菌・消臭の効果は高い。しかしながら、送風する空気中の次亜塩素酸の濃度に関しては、除菌・殺菌対象のエリアの広さに応じて必要とされる濃度が変わるので、薬液の有効塩素濃度は調整する必要がある。従って、必要に応じて水道水で希釈する。ただし、第1の実施の形態においては空気は薬液の液面と接触するので、すなわち接触面積はそれほど広くないので、薬液の次亜塩素酸の有効塩素濃度は10mg/L以上あることが好ましい。所定の有効塩素濃度に希釈して、薬液を調製する。得られた薬液22を薬液供給槽13に入れる。   The operation of the disinfecting / deodorizing apparatus 1a according to the first embodiment will be described. First, prepare the drug solution. The chemical solution may be prepared from highly pure hypochlorous acid water. However, according to the method of the present invention, impurities such as metal ions and hydrochloric acid are not released to the area to be sterilized and deodorized. It is not necessary to consider the impurities contained in. Accordingly, a chemical solution containing hypochlorous acid may be generated by electrolyzing an aqueous sodium chloride solution. In the present embodiment, it is prepared from a sodium hypochlorite aqueous solution that can be obtained at low cost. A predetermined amount of dilute hydrochloric acid is added to a sodium hypochlorite aqueous solution having a predetermined concentration to adjust the pH to 3.0 to 7.0, preferably pH 4.0 to 6.5. The higher the effective chlorine concentration of the chemical, the higher the effect of transpiration of hypochlorous acid, and the higher the effect of sterilization and deodorization. However, regarding the concentration of hypochlorous acid in the air to be blown, the required concentration varies depending on the area of the area to be sterilized and sterilized, so the effective chlorine concentration of the chemical must be adjusted. Therefore, dilute with tap water as necessary. However, in the first embodiment, since air contacts the liquid surface of the chemical solution, that is, the contact area is not so large, the effective chlorine concentration of hypochlorous acid in the chemical solution is preferably 10 mg / L or more. A chemical solution is prepared by diluting to a predetermined effective chlorine concentration. The obtained chemical liquid 22 is put into the chemical liquid supply tank 13.

流量調整弁21を所定量だけ開き、薬液22を所定の流速で第1の薬液槽7に供給する。供給された薬液によって第1の薬液槽7は第1の仕切壁17の高さまで満たされる。次いで、薬液は第1の仕切壁17からあふれて第2の薬液槽8に流れる。流入する薬液によって第2の薬液槽8が第2の仕切壁18の高さまで満たされると、第2の仕切壁18からあふれて第3の薬液槽9に流れる。そして、流入する薬液によって第3の薬液槽9が薬液排出口20の高さまで満たされると、薬液は薬液排出口20から廃液槽14に排出される。引き続き第1の薬液槽7に薬液を供給すると、薬液は所定時間第1の薬液槽7を滞留した後に第2の薬液槽8に流れ、第2の薬液槽8を所定時間滞留した後に第3の薬液槽9に流れ、所定時間滞留後に廃液槽14に排出される。薬液の供給開始に先だってファン11を駆動する。あるいは、薬液の供給開始後、所定時間経過後にファン11を駆動する。ファン11によって外部の空気が吸入口2から吸入される。空気は薬剤蒸散室15内を矢印Y2で示されている方向に流れる。すなわち、空気は薬液の流れと反対方向に流れ、第3の薬液槽9、第2の薬液槽8、第1の薬液槽7の順番で各液面に接触する。そうすると、空気中に次亜塩素酸が蒸散され、空気中の次亜塩素酸の濃度が徐々に高くなる。所定の濃度の次亜塩素酸を含んだ空気が送風口3から外部のエリアに送風される。空気に含まれている次亜塩素酸によってエリアが除菌・消臭される。ところで、第1〜3の薬液槽7〜9を流れる薬液は、次亜塩素酸が蒸散するので、下流に流れるに従って次亜塩素酸の有効塩素濃度が低くなる。従って、十分に次亜塩素酸が蒸散して、次亜塩素酸の有効塩素濃度が低下した後に薬液は廃液槽14に排出される。   The flow rate adjusting valve 21 is opened by a predetermined amount, and the chemical liquid 22 is supplied to the first chemical liquid tank 7 at a predetermined flow rate. The first chemical tank 7 is filled up to the height of the first partition wall 17 by the supplied chemical liquid. Next, the chemical liquid overflows from the first partition wall 17 and flows into the second chemical liquid tank 8. When the second chemical solution tank 8 is filled up to the height of the second partition wall 18 by the inflowing chemical solution, it overflows from the second partition wall 18 and flows into the third chemical solution tank 9. Then, when the third chemical tank 9 is filled up to the height of the chemical liquid outlet 20 by the flowing chemical liquid, the chemical liquid is discharged from the chemical liquid outlet 20 to the waste liquid tank 14. When the chemical solution is continuously supplied to the first chemical solution tank 7, the chemical solution stays in the first chemical solution tank 7 for a predetermined time and then flows into the second chemical solution tank 8. And then discharged to the waste liquid tank 14 after staying for a predetermined time. Prior to the start of supply of the chemical solution, the fan 11 is driven. Alternatively, the fan 11 is driven after a predetermined time has elapsed after the supply of the chemical liquid is started. External air is sucked from the suction port 2 by the fan 11. The air flows in the chemical evaporation chamber 15 in the direction indicated by the arrow Y2. That is, air flows in the direction opposite to the flow of the chemical solution, and comes into contact with each liquid level in the order of the third chemical solution tank 9, the second chemical solution tank 8, and the first chemical solution tank 7. Then, hypochlorous acid is evaporated in the air, and the concentration of hypochlorous acid in the air gradually increases. Air containing hypochlorous acid having a predetermined concentration is blown from the blower port 3 to an external area. The area is sterilized and deodorized by hypochlorous acid contained in the air. By the way, since the hypochlorous acid evaporates in the chemical | medical solution which flows through the 1st-3rd chemical | medical solution tanks 7-9, the effective chlorine concentration of hypochlorous acid becomes low as it flows downstream. Therefore, after the hypochlorous acid is sufficiently evaporated and the effective chlorine concentration of hypochlorous acid is reduced, the chemical solution is discharged to the waste liquid tank 14.

次に図1の(イ)によって、第2の実施の形態に係る除菌・消臭装置1bについて説明する。前実施の形態に係る除菌・消臭装置1aと同様の構成部品・構成部材については同じ参照番号を付して詳しく説明はしない。第2の実施の形態に係る除菌・消臭装置1bにおいては、薬液槽23が1槽のみから構成され、薬剤蒸散室15の下方部分全体に形成されている。そして、筐体5の所定の部分には所定のくり抜き24が明けられている。このくり抜き24には、薬液22が入れられた薬液供給タンク25が、その縮径された開口部27が下方になるようにして差し込まれている。この開口部27は、薬液槽23に入れられた薬液中に所定長さだけ沈むように薬液供給タンク25の位置が調整されている。従って、薬液槽23の薬液が減って液面が低下して開口部27が露出すると、薬液が自動的に薬液供給タンク25から薬液槽23に供給され、薬液槽23の液面が上昇することになる。本実施の形態においては、薬液排出口20には手動で開閉する弁28が設けられている。   Next, a sterilization / deodorization apparatus 1b according to a second embodiment will be described with reference to FIG. Constituent parts / components similar to those of the sterilization / deodorizing apparatus 1a according to the previous embodiment are given the same reference numerals and will not be described in detail. In the sterilization / deodorization apparatus 1b according to the second embodiment, the chemical tank 23 is composed of only one tank, and is formed in the entire lower part of the chemical evaporation chamber 15. A predetermined cutout 24 is opened in a predetermined portion of the housing 5. A chemical liquid supply tank 25 in which the chemical liquid 22 is placed is inserted into the cutout 24 so that the opening 27 whose diameter has been reduced is directed downward. The position of the chemical solution supply tank 25 is adjusted so that the opening 27 sinks a predetermined length in the chemical solution put in the chemical solution tank 23. Accordingly, when the chemical liquid in the chemical liquid tank 23 decreases and the liquid level decreases and the opening 27 is exposed, the chemical liquid is automatically supplied from the chemical liquid supply tank 25 to the chemical liquid tank 23 and the liquid level of the chemical liquid tank 23 rises. become. In the present embodiment, the chemical solution outlet 20 is provided with a valve 28 that is manually opened and closed.

第2の実施の形態に係る除菌・消臭装置1bは、バッチ的に運転することもできるし連続的に運転することもできる。バッチ的に運転する場合は次のようにする。薬液槽23に所定の量の薬液を入れ、ファン11を駆動する。そうすると、吸入口2から吸入された空気は薬剤蒸散室15内で薬液の液面に接触しながら流れ、次亜塩素酸は蒸散する。蒸散した次亜塩素酸を含んだ空気が、送風口3から送風される。所定時間、例えば数時間運転すると薬液中の次亜塩素酸の有効塩素濃度が低下する。そうすると、弁28を開いて薬液を所定量だけ廃液槽14に排出し、弁28を閉じる。薬液槽23の液面が低下するので、薬液が自動的に薬液供給タンク25から供給される。薬液槽23の液面が回復する。薬液槽23の薬液は、次亜塩素酸が所定の有効塩素濃度に上がる。再び次亜塩素酸が空気中に蒸散する。このように実施されるので、薬液供給タンク25から供給される薬液は、薬液槽23内の濃度の薄い薬液で希釈されることになる。従って、薬液供給タンク25に入れる薬液22は、次亜塩素酸の有効塩素濃度を高くするとよい。第2の実施の形態に係る除菌・消臭装置1bを連続的に運転する場合は、次のようにする。薬液供給タンク25をその開口部27が薬液槽23の底面に触れる程度に下げる。そして、薬液槽23の薬液が均一に拡がる程度の低い液位にする。そうすると、薬液槽23の薬液の液量が少ないので、次亜塩素酸の蒸散によって薬液中の有効塩素濃度の減少は早まる。弁28をわずかに開いておく。そうすると、次亜塩素酸が十分に蒸散して有効塩素濃度が十分に低下した薬液が少しずつ廃液槽14に排出されることになる。そうすると薬液供給タンク25から同量宛薬液が供給される。   The sterilization / deodorization apparatus 1b according to the second embodiment can be operated batchwise or continuously. When operating in batch mode, do as follows. A predetermined amount of chemical solution is placed in the chemical solution tank 23 and the fan 11 is driven. Then, the air sucked from the suction port 2 flows while contacting the liquid level of the drug solution in the drug evaporating chamber 15, and hypochlorous acid evaporates. Air containing the evaporated hypochlorous acid is blown from the blower port 3. When operating for a predetermined time, for example, several hours, the effective chlorine concentration of hypochlorous acid in the chemical solution decreases. Then, the valve 28 is opened, a predetermined amount of the chemical solution is discharged to the waste liquid tank 14, and the valve 28 is closed. Since the liquid level in the chemical solution tank 23 is lowered, the chemical solution is automatically supplied from the chemical solution supply tank 25. The liquid level in the chemical tank 23 is recovered. In the chemical solution in the chemical solution tank 23, hypochlorous acid increases to a predetermined effective chlorine concentration. Again, hypochlorous acid evaporates into the air. Thus, the chemical liquid supplied from the chemical liquid supply tank 25 is diluted with a low-concentration chemical liquid in the chemical liquid tank 23. Therefore, the chemical liquid 22 put in the chemical liquid supply tank 25 is preferably made high in the effective chlorine concentration of hypochlorous acid. When the sterilization / deodorization apparatus 1b according to the second embodiment is continuously operated, the following is performed. The chemical solution supply tank 25 is lowered to such an extent that the opening 27 touches the bottom surface of the chemical solution tank 23. Then, the liquid level is set to such a low level that the chemical liquid in the chemical tank 23 spreads uniformly. Then, since the amount of the chemical solution in the chemical solution tank 23 is small, the effective chlorine concentration in the chemical solution is rapidly reduced by the evaporation of hypochlorous acid. Leave valve 28 slightly open. Then, the chemical liquid in which hypochlorous acid is sufficiently evaporated and the effective chlorine concentration is sufficiently lowered is gradually discharged into the waste liquid tank 14. Then, the same amount of chemical solution is supplied from the chemical solution supply tank 25.

図2の(ア)によって、第3の実施の形態に係る除菌・消臭装置1cについて説明する。第1、2の実施の形態に係る除菌・消臭装置1a、1bと同様の構成部品・構成部材については同じ参照番号を付して説明を省略する。第3の実施の形態に係る除菌・消臭装置1cは、筐体5の内部、すなわち薬剤蒸散室15に薬液を所定の径の液滴状にして落下させる液滴発生装置32が設けられている。液滴発生装置32は、薬液を所定量だけ貯めると共に落下する液滴を受ける受液プレート33と、受液プレート33に貯められている薬液と薬液供給層13から供給される薬液をブレンドして所定の薬液管34に圧送するポンプ36と、薬液管34から圧送された薬液を所定の直径の液滴にして水平方向に放出する水平ノズル37、37、…と、水平ノズル37、37、…の後方に垂直に立てられていると共にその下端部が受液プレートに入れられている所定の目の網39、39とから構成されている。そして、受液プレート33は、弁28が設けられている薬液排出口20を介して廃液槽14に接続されている。本実施の形態においては、筐体5内に空気を吸入する吸入口2と、外部に空気を送風する送風口3は、それぞれ筐体5の向かい合う側壁に設けられている。そして、薬剤蒸散室15内の空気が、水平ノズル37、37、…から放出される液滴の方向と反対向きに流れるように構成されている。   A sterilization / deodorizing apparatus 1c according to the third embodiment will be described with reference to FIG. Constituent parts / components similar to those of the sterilization / deodorizing apparatuses 1a, 1b according to the first and second embodiments are denoted by the same reference numerals and description thereof is omitted. The sterilization / deodorization apparatus 1c according to the third embodiment is provided with a droplet generator 32 that drops the chemical liquid into a droplet having a predetermined diameter in the housing 5, that is, in the chemical evaporation chamber 15. ing. The droplet generating device 32 stores a predetermined amount of the chemical solution and receives the liquid drop plate 33 that receives the falling droplet, and blends the chemical solution stored in the liquid receiving plate 33 with the chemical solution supplied from the chemical solution supply layer 13. A pump 36 that pumps the liquid to a predetermined chemical liquid pipe 34, horizontal nozzles 37, 37,... That discharge the chemical liquid pumped from the chemical liquid pipe 34 into liquid droplets of a predetermined diameter in the horizontal direction, and horizontal nozzles 37, 37,. And a lower end portion of the mesh 39 and 39 of a predetermined mesh placed in the liquid receiving plate. The liquid receiving plate 33 is connected to the waste liquid tank 14 through the chemical liquid discharge port 20 in which the valve 28 is provided. In the present embodiment, the suction port 2 that sucks air into the housing 5 and the blower port 3 that blows air to the outside are provided on opposite side walls of the housing 5. And the air in the chemical transpiration chamber 15 is comprised so that it may flow in the direction opposite to the direction of the droplet discharge | released from the horizontal nozzles 37,37, ....

第3の実施の形態に係る除菌・消臭装置1cの作用を説明する。ファン11を駆動して、外部の空気を吸入し薬剤蒸散室15内を矢印Y2に示されているように流す。流量調整弁21を所定量だけ開いて少量ずつ薬液が薬液供給槽13から供給されるようにして、ポンプ36を駆動する。そうすると受液プレート33から供給される薬液と薬液供給槽13から供給される薬液がブレンドされて薬液管34に圧送される。圧送された薬液は水平ノズル37、37、…から直径50μm以上の液滴にされ、空気の流れと反対方向に放出される。液滴にされ表面積が大きくなっているので、空気中に効率よく次亜塩素酸が蒸散する。また、液滴の直径は50μm以上であるので、薬液は液相に維持されており、空気中に完全に拡散することはない。放出された液滴は0.5〜2秒程度で受液プレート33に落下する。このとき液滴の一部が空気中に残存していても、網39によって捕捉されて受液プレート33に集められるので、送風口3から送風される空気には不純物は含まれない。本実施の形態においては、次亜塩素酸の蒸散はとても効率が高いので、水平ノズル37、37、…から放出する薬液は、次亜塩素酸の有効塩素濃度が5mg/Lであってもある程度効果が得られる。このように蒸散の効率が高いので、受液プレート33に貯められる薬液の有効塩素濃度は非常に低くなる。有効塩素濃度が低下した薬液は適宜廃液槽14に排出する。薬液供給層13から供給される薬液は、受液プレート33から供給される薬液とブレンドされて希釈されるので、有効塩素濃度を予め高くしておくとよい。   The operation of the sterilization / deodorization apparatus 1c according to the third embodiment will be described. The fan 11 is driven to suck in external air and flow it through the drug evaporation chamber 15 as indicated by the arrow Y2. The pump 36 is driven so that the flow rate adjusting valve 21 is opened by a predetermined amount so that the chemical solution is supplied from the chemical solution supply tank 13 little by little. Then, the chemical solution supplied from the liquid receiving plate 33 and the chemical solution supplied from the chemical solution supply tank 13 are blended and pumped to the chemical solution pipe 34. The pumped chemical solution is made into droplets having a diameter of 50 μm or more from the horizontal nozzles 37, 37,... And discharged in the direction opposite to the air flow. Since the surface area is increased due to the droplets, hypochlorous acid is efficiently evaporated in the air. Further, since the diameter of the droplet is 50 μm or more, the chemical solution is maintained in a liquid phase and does not completely diffuse into the air. The discharged droplets fall on the liquid receiving plate 33 in about 0.5 to 2 seconds. At this time, even if some of the droplets remain in the air, they are captured by the net 39 and collected on the liquid receiving plate 33, so that the air blown from the air outlet 3 does not contain impurities. In this embodiment, transpiration of hypochlorous acid is very efficient. Therefore, even if the effective chlorine concentration of hypochlorous acid is 5 mg / L, the chemical solution released from the horizontal nozzles 37, 37,. An effect is obtained. Thus, since the efficiency of transpiration is high, the effective chlorine concentration of the chemical | medical solution stored in the liquid receiving plate 33 becomes very low. The chemical solution having a reduced effective chlorine concentration is appropriately discharged to the waste liquid tank 14. Since the chemical solution supplied from the chemical solution supply layer 13 is blended with the chemical solution supplied from the liquid receiving plate 33 and diluted, it is preferable to increase the effective chlorine concentration in advance.

図2の(イ)によって、本発明の第4の実施の形態に係る除菌・消臭装置1dを説明する。第3の実施の形態に係る除菌・消臭装置1cと同様の構成部品・構成部材については同じ参照番号を付して説明はしない。第4の実施の形態に係る除菌・消臭装置1dは、第3の実施の形態に係る除菌・消臭装置1cとノズルだけが異なっている。すなわち、薬液を液滴にするノズルは、薬剤蒸散室15の上部に1個だけ設けられ、下方に液滴を放出する下方噴射ノズル41になっている。このように、液滴は高所から噴射されるので空中を比較的長い距離落下する。従って、液滴の直径は大きくても十分に蒸散の効率は高い。さらに、液滴は下方に噴出されるので、強制的に受液プレートに落下されることになる。そうすると、下方噴射ノズル41から噴射されてから短時間で受液プレートに到達するので、液滴が空気中で消失してしまうことがない。次亜塩素酸以外の不純物が空気中に拡散する可能性が極めて低くなる。   With reference to FIG. 2A, a sterilization / deodorization apparatus 1d according to a fourth embodiment of the present invention will be described. Constituent parts / components similar to those of the sterilization / deodorizing apparatus 1c according to the third embodiment are given the same reference numerals and will not be described. The disinfection / deodorization apparatus 1d according to the fourth embodiment is different from the disinfection / deodorization apparatus 1c according to the third embodiment only in nozzles. That is, only one nozzle is provided in the upper part of the chemical evaporation chamber 15 to make the chemical liquid into droplets, and is a lower injection nozzle 41 that discharges the droplets downward. In this way, since the droplets are ejected from a high place, they drop in the air for a relatively long distance. Therefore, even if the diameter of the droplet is large, the efficiency of transpiration is sufficiently high. Further, since the droplets are ejected downward, they are forcibly dropped onto the liquid receiving plate. In this case, since the liquid reaches the liquid receiving plate in a short time after being ejected from the lower ejection nozzle 41, the liquid droplets are not lost in the air. The possibility that impurities other than hypochlorous acid diffuse into the air is extremely low.

図3によって、本発明の第5の実施の形態に係る除菌・消臭装置1eを説明する。第3の実施の形態に係る除菌・消臭装置1cと同様の構成部品・構成部材については同じ参照番号を付して説明しない。第5の実施の形態に係る除菌・消臭装置1eは、第3の実施の形態に係る除菌・消臭装置1cに設けられていた液滴発生装置32の代わりに、薬液流下装置42が設けられている。薬液流下装置42は、薬液を垂直に流下させる所定の形状の薬液流下体44と、薬液流下体44が入れられて薬液流下体44から流下する薬液を受ける受液プレート33と、受液プレート33に貯められている薬液と薬液供給層13から供給される薬液をブレンドして薬液管34を経由して薬液を薬液流下体44の上部に供給するポンプ36とから構成されている。薬液流下体44は、垂直に立てられた複数本の棒状の芯材45、45、…と、芯材45、45、…に巻き付けられている布、スポンジ等の被覆46、46、…とから構成されている。これらの被覆46、46、…は吸水性を有するので、薬液は薬液流下体44をゆっくりと流下することになる。従って、薬剤蒸散室15内の空気は薬液流下体44を流下する薬液に効率よく接触して、薬液中の次亜塩素酸が蒸散されることになる。受液プレート33に貯められた薬液は、次亜塩素酸の有効塩素濃度が低くなっているので適宜弁28を開いて薬液を廃液槽14に排出する。   A sterilization / deodorization apparatus 1e according to a fifth embodiment of the present invention will be described with reference to FIG. Constituent parts / components similar to those of the sterilization / deodorizing apparatus 1c according to the third embodiment are not described with the same reference numerals. The disinfecting / deodorizing apparatus 1e according to the fifth embodiment is a chemical solution flowing-down apparatus 42 instead of the droplet generator 32 provided in the disinfecting / deodorizing apparatus 1c according to the third embodiment. Is provided. The chemical flow down device 42 has a predetermined shape of a chemical flow down body 44 for flowing down the chemical liquid vertically, a liquid receiving plate 33 in which the chemical liquid flow down body 44 is placed and receives the chemical liquid flowing down from the chemical liquid flow down body 44, and a liquid receiving plate 33. And a pump 36 that blends the chemical liquid stored in the chemical liquid and the chemical liquid supplied from the chemical liquid supply layer 13 and supplies the chemical liquid to the upper part of the chemical flow lowering body 44 via the chemical liquid pipe 34. The chemical solution lowering body 44 is composed of a plurality of vertically-arranged rod-shaped core members 45, 45,... And coverings 46, 46,... Wound around the core members 45, 45,. It is configured. Since these coatings 46, 46,... Have water absorption properties, the chemical solution slowly flows down the chemical solution lowering body 44. Therefore, the air in the chemical evaporation chamber 15 efficiently contacts the chemical solution flowing down the chemical solution lowering body 44, and hypochlorous acid in the chemical solution is evaporated. Since the chemical solution stored in the liquid receiving plate 33 has a low effective chlorine concentration of hypochlorous acid, the valve 28 is appropriately opened to discharge the chemical solution to the waste liquid tank 14.

エチルアルコール水と次亜塩素酸水のそれぞれの除菌効果を調べる以下の実験を行った。
3個の所定の容器A1〜A3のそれぞれにビーカーa1〜a3を入れ、各ビーカーa1〜a3に以下の溶液を入れた。
ビーカーa1:100mLの水道水
ビーカーa2:100mLのエチルアルコール水 濃度100mg/L
ビーカーa3:100mLの次亜塩素酸水 有効塩素濃度50mg/L
所定の排水処理場でカビを含んだ汚泥を採取して、これを希釈し、3枚の顕微鏡用スライドグラスのそれぞれに2滴ずつ垂らして風乾させた。各スライドグラスには曇りガラス状を呈するわずかに茶色の乾燥泥が形成された。この3枚のスライドグラスを、それぞれ各ビーカーa1〜a3の上に置き、容器A1〜A3に蓋をした。2日後、スライドグラスの乾燥泥の変化を調べたところ、表1のようになった。
The following experiment was conducted to examine the sterilization effect of each of ethyl alcohol water and hypochlorous acid water.
Beakers a1 to a3 were placed in each of three predetermined containers A1 to A3, and the following solutions were placed in each of the beakers a1 to a3.
Beaker a1: 100 mL of tap water Beaker a2: 100 mL of ethyl alcohol water Concentration 100 mg / L
Beaker a3: 100 mL of hypochlorous acid water Effective chlorine concentration 50 mg / L
Moldy sludge was collected at a predetermined wastewater treatment plant, diluted, and dropped on each of the three microscope slide glasses and allowed to air dry. Each slide glass formed a slightly brown dry mud with a cloudy glass. The three slide glasses were placed on the respective beakers a1 to a3, and the containers A1 to A3 were covered. Two days later, changes in the dry mud of the slide glass were examined.

Figure 0004588104
Figure 0004588104

この実験によって、次亜塩素酸水から除菌効果を有する物質が蒸散して、乾燥泥が除菌されたことが明らかになった。後の実験でも明らかなように除菌効果を有する物質は次亜塩素酸と考えるべきであり、蒸散した次亜塩素酸によって除菌されることが確認できた。また、エチルアルコール水は、乾燥泥が活性化していたことから、細菌やカビの栄養になっていることが推測された。そこで、引き続き容器A3を18日間放置してスライドグラスを観察したところ、スライドグラス全体にカビが繁殖していた。このことから、エチルアルコール水は細菌やカビの栄養になることが確認でき、除菌用の薬液としては適していないことが判明した。   From this experiment, it became clear that a substance having a sterilizing effect was transpired from hypochlorous acid water and the dry mud was sterilized. As is clear from later experiments, the substance having a sterilizing effect should be considered as hypochlorous acid, and it was confirmed that the substance was sterilized by the evaporated hypochlorous acid. In addition, it was speculated that ethyl alcohol water has become a nutrient for bacteria and fungi because dry mud was activated. Then, when the slide A was observed by leaving the container A3 for 18 days, mold was propagated on the whole slide. From this, it was confirmed that ethyl alcohol water became a nutrient for bacteria and molds, and it was found that it is not suitable as a chemical solution for sterilization.

次亜塩素酸の有効塩素濃度の違いによる除菌効果の違いを調べる以下の実験を行った。
所定量の次亜塩素酸ナトリウム水溶液に所定量の希塩酸を添加して、有効塩素濃度が200mg/LでpH6.5の薬液を調製した。
5個の所定の容器B1〜B5のそれぞれにビーカーb1〜b5を入れ、各ビーカーb1〜b5に以下の溶液を100mLずつ入れた。
ビーカーb1:薬液を有効塩素濃度10mg/Lに希釈した溶液。
ビーカーb2:薬液を有効塩素濃度30mg/Lに希釈した溶液。
ビーカーb3:薬液を有効塩素濃度80mg/Lに希釈した溶液。
ビーカーb4:希釈しない薬液。有効塩素濃度200mg/L。
ビーカーb5:水道水。
所定の排水処理場で採取された汚泥を希釈して、5枚の顕微鏡用スライドグラスのそれぞれに2滴ずつ垂らし、風乾させた。各スライドグラスには曇りガラス状を呈するわずかに茶色の乾燥泥が形成された。この5枚のスライドグラスを、それぞれ各ビーカーb1〜b5の上に置き、容器B1〜B5に蓋をした。3日後、スライドグラスの乾燥泥の変化を調べたところ、表2のようになった。なお、容器B1内のスライドグラスの脱色の割合は、目視によって判断されたおおよその数値である。
The following experiment was conducted to examine the difference in sterilization effect due to the difference in effective chlorine concentration of hypochlorous acid.
A predetermined amount of dilute hydrochloric acid was added to a predetermined amount of aqueous sodium hypochlorite solution to prepare a chemical solution having an effective chlorine concentration of 200 mg / L and a pH of 6.5.
Beakers b1 to b5 were placed in each of five predetermined containers B1 to B5, and 100 mL of the following solutions were placed in each of the beakers b1 to b5.
Beaker b1: A solution obtained by diluting a chemical solution to an effective chlorine concentration of 10 mg / L.
Beaker b2: A solution obtained by diluting a chemical solution to an effective chlorine concentration of 30 mg / L.
Beaker b3: A solution obtained by diluting a chemical solution to an effective chlorine concentration of 80 mg / L.
Beaker b4: Chemical solution not diluted. Effective chlorine concentration 200 mg / L.
Beaker b5: tap water.
The sludge collected at a predetermined wastewater treatment plant was diluted, and two drops were dropped on each of the five microscope slide glasses and allowed to air dry. Each slide glass formed a slightly brown dry mud with a cloudy glass. The five slide glasses were placed on the beakers b1 to b5, respectively, and the containers B1 to B5 were covered. Three days later, when the change in the dry mud of the slide glass was examined, it was as shown in Table 2. In addition, the rate of decoloration of the slide glass in the container B1 is an approximate numerical value determined by visual observation.

Figure 0004588104
Figure 0004588104

有効塩素濃度が30mg/L以上の薬液であれば、確実に次亜塩素酸は空気中に蒸散されて、ほぼ100%除菌できることが確認できた。また有効塩素濃度が10mg/Lであっても、空気中に次亜塩素酸が蒸散されて十分な除菌効果が得られることが確認できた。   When the effective chlorine concentration was 30 mg / L or more, it was confirmed that hypochlorous acid was surely evaporated in the air and could be sterilized almost 100%. Moreover, even if the effective chlorine concentration was 10 mg / L, it was confirmed that hypochlorous acid was evaporated in the air and a sufficient sterilizing effect was obtained.

次亜塩素酸を含む薬液から蒸散された次亜塩素酸について消臭効果を調べる実験を行った。
消臭の対象を腐敗した活性汚泥とした。腐敗した活性汚泥からは腐卵臭を有する硫化水素(HS)が発生する。このような硫化水素を発生する汚泥に次亜塩素酸水を添加すると、次の2式の反応によって腐卵臭が発生しなくなることが知られている。
S → S → SO 2− (2式)
この反応が気相においても起こるか否か、すなわち次亜塩素酸を含む薬液から蒸散した次亜塩素酸が、硫化水素と反応して腐卵臭を消臭できるか否かを実験した。
所定量の次亜塩素酸ナトリウム水溶液に所定量の希塩酸を添加してpH6.5とし、薬液を得た。2個のシャーレc1、c2を用意して、希釈によって所定の有効塩素濃度にされた次の薬液を、それぞれ15mLずつ入れた。
シャーレc1:有効塩素濃度300mg/Lの薬液
シャーレc2:有効塩素濃度3000mg/Lの薬液
これらのシャーレc1、c2に蓋をして、それぞれ20Lの容器C1、C2に入れ、容器C1、C2には内部の空気を攪拌するエアーポンプを入れ、容器C1、C2の上部を蓋で覆って密封した。
容量が1Lの所定の容器CzにSS6760mg/Lの活性汚泥を300mL入れて密封し、5日間放置して容器Cz内に硫化水素を発生させた。
容器C1、C2の蓋を外し、容器Cz内の硫化水素を含んだ気体を所定量だけ容器C1、C2に入れた後、シャーレc1、c2の蓋を取り、容器C1、C2の蓋を閉じた。1分後容器C1、C2の蓋を開けて臭気を確認し蓋を閉じた。2分後にも容器C1、C2の蓋を開けて臭気を確認して蓋を閉じた。以下の結果が得られた。
容器C1:1分後には腐卵臭がわずかに残っていたが、2分後には腐卵臭は全て消えた。
容器C2:1分後に腐卵臭は全て消え、わずかに塩素臭がした。2分後も腐卵臭はしなかった。
この実験により、蒸散した次亜塩素酸によって極めて短時間に硫化水素が分解されることが分かった。また、蒸散した次亜塩素酸に消臭効果があることが分かった。
An experiment was conducted to examine the deodorizing effect of hypochlorous acid evaporated from a chemical containing hypochlorous acid.
The target for deodorization was rotted activated sludge. Hydrogen sulfide (H 2 S) having a rotten odor is generated from the decayed activated sludge. It is known that when hypochlorous acid water is added to such sludge that generates hydrogen sulfide, the odor of egg rot is not generated by the reaction of the following two formulas.
H 2 S → S → SO 4 2− (2 formulas)
An experiment was conducted to determine whether or not this reaction occurs even in the gas phase, that is, whether or not hypochlorous acid evaporated from a chemical solution containing hypochlorous acid can react with hydrogen sulfide to deodorize the scent of eggs.
A predetermined amount of dilute hydrochloric acid was added to a predetermined amount of aqueous sodium hypochlorite solution to adjust the pH to 6.5 to obtain a chemical solution. Two petri dishes c1 and c2 were prepared, and 15 mL each of the following chemicals having a predetermined effective chlorine concentration by dilution was added.
Petri dish c1: Chemical solution with effective chlorine concentration of 300 mg / L Petri dish c2: Chemical solution with effective chlorine concentration of 3000 mg / L Cover these petri dishes c1 and c2 and put them in 20 L containers C1 and C2, respectively. An air pump that stirs the air inside was put in, and the upper portions of the containers C1 and C2 were covered with a lid and sealed.
In a predetermined container Cz having a capacity of 1 L, 300 mL of activated sludge with SS6760 mg / L was placed and sealed, and left for 5 days to generate hydrogen sulfide in the container Cz.
After the lids of the containers C1 and C2 were removed, a predetermined amount of gas containing hydrogen sulfide in the container Cz was put into the containers C1 and C2, the lids of the petri dishes c1 and c2 were removed, and the lids of the containers C1 and C2 were closed . After 1 minute, the lids of the containers C1 and C2 were opened, the odor was confirmed, and the lids were closed. Two minutes later, the lids of the containers C1 and C2 were opened, the odor was confirmed, and the lids were closed. The following results were obtained.
Container C1: A slight odor of the egg scent remained after 1 minute, but after 2 minutes, the odor of the egg slaughtered completely.
Container C2: After 1 minute, all of the odors of egg rot disappeared and there was a slight chlorine odor. Even after 2 minutes, there was no odor of rot.
From this experiment, it was found that hydrogen sulfide was decomposed in a very short time by the evaporated hypochlorous acid. Moreover, it turned out that the hypochlorous acid which transpired has a deodorizing effect.

次亜塩素酸ナトリウム水溶液と希塩酸とから調製された薬液から、次亜塩素酸ナトリウムでなく、次亜塩素酸が蒸散されることを確認する実験を行った。
所定量の次亜塩素酸ナトリウム水溶液に所定量の希塩酸を添加してpH6.5、有効塩素濃度200mg/Lの薬液を得た。2個のビーカーD1、D2のそれぞれに薬液を100mLずつ入れて、ビーカーD2だけを樹脂製シートでラップした。これらのビーカーD1、D2を共にエアコンの風が当たる場所に置き放置した。6日後にビーカーD1、D2内の薬液は以下のようになった。
ビーカーD1:残留塩素濃度2mg/L、pH7.8、減少した液量は21mL
ビーカーD2:残留塩素濃度200mg/L、pH6.5、減少した液量は0mL
この実験により、上部が開放されていないビーカーD2内では次亜塩素酸が他の物質に変化していないことが確認できた。従って、ビーカーD1における残留塩素濃度の減少は、薬液から次亜塩素酸が蒸散することによって生じたものと推測される。液量の減少は水の蒸発によるものと考えられる。
次亜塩素酸ナトリウムと塩酸から以下の3式によって次亜塩素酸が生成される。
NaOCl+HCl=HOCl+NaCl (3式)
ここで、次亜塩素酸水の酸平衡定数は10−7.5であるので、実験に使用された薬液のpHが6.5であることを考えると、薬液中に存在する次亜塩素酸ナトリウム(NaOCl)と次亜塩素酸(HOCl)の割合は次のようになる。
次亜塩素酸(HOCl):91%
次亜塩素酸ナトリウム(NaOCl):9%
もし、空気中に蒸散したのが次亜塩素酸ナトリウムであるとすると、次亜塩素酸ナトリウムの割合が減少するので、3式の反応が右辺から左辺に向かう方向に進行する。そうすると塩酸(HCl)の濃度が高くなるのでpHが低くなる。しかしながら、実験によるとpHはわずかにアルカリ側に変化している。このことから空気中に蒸散したのは次亜塩素酸(HOCl)であって、3式の反応が左辺から右辺に向かう方向に進行していたことが分かる。
以上より、薬液から蒸散したのは次亜塩素酸であることが明らかになった。なお、蒸散した次亜塩素酸は、室内の湿度に応じて空気中では無水次亜塩素酸(ClO)に変化している可能性もある。
An experiment was conducted to confirm that hypochlorous acid was transpired rather than sodium hypochlorite from a chemical prepared from an aqueous sodium hypochlorite solution and dilute hydrochloric acid.
A predetermined amount of dilute hydrochloric acid was added to a predetermined amount of aqueous sodium hypochlorite solution to obtain a chemical solution having a pH of 6.5 and an effective chlorine concentration of 200 mg / L. 100 mL of the chemical solution was put in each of the two beakers D1 and D2, and only the beaker D2 was wrapped with a resin sheet. Both of these beakers D1 and D2 were left in a place where the wind of the air conditioner hit them. After 6 days, the chemicals in the beakers D1 and D2 were as follows.
Beaker D1: residual chlorine concentration 2 mg / L, pH 7.8, reduced liquid volume is 21 mL
Beaker D2: residual chlorine concentration 200 mg / L, pH 6.5, decreased liquid volume is 0 mL
From this experiment, it was confirmed that hypochlorous acid was not changed to another substance in the beaker D2 whose upper part was not opened. Therefore, it is estimated that the decrease in the residual chlorine concentration in the beaker D1 was caused by the evaporation of hypochlorous acid from the chemical solution. The decrease in liquid volume is thought to be due to water evaporation.
Hypochlorous acid is produced from sodium hypochlorite and hydrochloric acid according to the following three formulas.
NaOCl + HCl = HOCl + NaCl (3 formulas)
Here, since the acid equilibrium constant of hypochlorous acid water is 10 −7.5 , considering that the pH of the chemical used in the experiment is 6.5, hypochlorous acid present in the chemical is present. The ratio of sodium (NaOCl) to hypochlorous acid (HOCl) is as follows.
Hypochlorous acid (HOCl): 91%
Sodium hypochlorite (NaOCl): 9%
If it is assumed that sodium hypochlorite has evaporated in the air, the proportion of sodium hypochlorite decreases, so that the reaction of Formula 3 proceeds from the right side to the left side. As a result, the concentration of hydrochloric acid (HCl) increases, so the pH decreases. However, according to experiments, the pH slightly changes to the alkali side. From this, it was found that it was hypochlorous acid (HOCl) that transpired into the air, and the reaction of Formula 3 proceeded in the direction from the left side to the right side.
From the above, it became clear that it was hypochlorous acid that evaporated from the chemical. Note that the evaporated hypochlorous acid may be changed to anhydrous hypochlorous acid (Cl 2 O) in the air according to the humidity in the room.

次亜塩素酸ナトリウム水溶液に希塩酸が添加されて調製された薬液から、塩酸(HCl)が蒸散する可能性について調べるため、単体としての希塩酸から塩酸が蒸散するか否かを実験した。
pH2.0の希塩酸をビーカーに所定量入れて風通しのよい場所に置き、3日間放置した。3日後にpHを測定したところ、pHは2.0であって変化していなかった。
pHが2.0と酸性の強い状態においても、塩酸が蒸散しないことが確認できた。pHが高いと塩酸は蒸散し難くなるので、この実験によりpHが3.0以上であれば塩酸が蒸散する可能性はほとんどないことが分かる。これにより、次亜塩素酸ナトリウム水溶液に希塩酸が添加されてpH3.0〜7.0に調整された薬液からも希塩酸が蒸散する可能性はほとんどないと考えられる。
In order to investigate the possibility of hydrochloric acid (HCl) evaporating from a chemical solution prepared by adding dilute hydrochloric acid to an aqueous sodium hypochlorite solution, an experiment was conducted to determine whether hydrochloric acid evaporates from dilute hydrochloric acid as a simple substance.
A predetermined amount of dilute hydrochloric acid having a pH of 2.0 was placed in a beaker and placed in a well-ventilated place, and left for 3 days. When the pH was measured after 3 days, the pH was 2.0 and did not change.
It was confirmed that hydrochloric acid did not evaporate even in a highly acidic state with a pH of 2.0. Since hydrochloric acid hardly evaporates when the pH is high, it can be seen from this experiment that there is almost no possibility of hydrochloric acid evaporating if the pH is 3.0 or more. Thereby, it is thought that there is almost no possibility that dilute hydrochloric acid evaporates from the chemical solution adjusted to pH 3.0 to 7.0 by adding dilute hydrochloric acid to the sodium hypochlorite aqueous solution.

高濃度の有効塩素濃度の薬液から次亜塩素酸が蒸散されることを確認する実験を行った。この実験においては、薬液から塩素ガス(Cl)あるいはその水和物(Cl・HO)が蒸散する可能性について調べることも目的としている。
所定の次亜塩素酸ナトリウム水溶液に8.5%の塩酸を加えて2種類の薬液f1、f2を調製した。
薬液f1:次亜塩素酸ナトリウムと塩酸が、それぞれ同じモル数になるように薬液を調製した。有効塩素濃度3000mg/L、pH5.22になった。
薬液f2:次亜塩素酸ナトリウムに対して塩酸が2倍のモル数になるように薬液を調製した。有効塩素濃度3000mg/L、pH1.84になった。
薬液f1、f2のそれぞれを100mLずつ採り、それぞれビーカーF1、F2に入れた。ビーカーF1、F2をエアコンの送風口近傍に置き、開口した状態で放置した。2日後、および5日後にpHと残留塩素濃度を調べたところ、表3のようになった。
An experiment was conducted to confirm that hypochlorous acid is transpirated from a chemical solution with a high effective chlorine concentration. The purpose of this experiment is also to investigate the possibility of chlorine gas (Cl 2 ) or its hydrate (Cl 2 · H 2 O) evaporating from the chemical solution.
Two kinds of chemical solutions f1 and f2 were prepared by adding 8.5% hydrochloric acid to a predetermined aqueous sodium hypochlorite solution.
Chemical solution f1: A chemical solution was prepared so that sodium hypochlorite and hydrochloric acid each had the same number of moles. The effective chlorine concentration was 3000 mg / L and the pH was 5.22.
Chemical solution f2: A chemical solution was prepared so that hydrochloric acid was twice the number of moles of sodium hypochlorite. The effective chlorine concentration was 3000 mg / L and pH 1.84.
100 mL of each of the chemical solutions f1 and f2 was taken and placed in beakers F1 and F2, respectively. Beakers F1 and F2 were placed in the vicinity of the air outlet of the air conditioner and left open. When the pH and residual chlorine concentration were examined after 2 days and 5 days, they were as shown in Table 3.

Figure 0004588104
Figure 0004588104

ビーカーF1、F2は共に、2日後に大半の次亜塩素酸が蒸散しており、5日にはほとんど次亜塩素酸が蒸散して、ビーカーF2においては残留塩素濃度な0mg/Lになっていた。次亜塩素酸が高濃度で含まれている薬液であっても、問題なく次亜塩素酸が蒸散されることが確認できた。なお、ビーカーF1においてpHが上昇してアルカリ側に変化したのは、実施例4と同様の理由による現象であると考えられる。この実験からも、次亜塩素酸ナトリウムは蒸散せず、次亜塩素酸が蒸散したことが明らかになった。   In both of the beakers F1 and F2, most of hypochlorous acid is evaporated after two days, and almost all of hypochlorous acid is evaporated on the fifth day, and the residual chlorine concentration in the beaker F2 is 0 mg / L. It was. It was confirmed that hypochlorous acid was transpired without any problems even in a chemical solution containing high concentration of hypochlorous acid. In addition, it is thought that it is a phenomenon for the reason similar to Example 4 that pH rose in the beaker F1 and changed to the alkali side. This experiment also revealed that sodium hypochlorite did not evaporate and hypochlorous acid evaporated.

ビーカーF2の変化の結果から、塩素ガス(Cl)あるいはその水和物(Cl・HO)が蒸散した可能性について検討する。
次亜塩素酸ナトリウム(NaOCl)に対して2倍のモル比の希塩酸(HCl)を添加しているので、4式のような反応式を書くことができる。
NaOCl+2HCl=Cl+HO+NaCl (4式)
これを3式を考慮して書き換えると、5式のように反応式を書くこともできる。
HOCl+HCl=Cl+HO (5式)
これらの4、5式は、左辺から右辺、右辺から左辺のいずれの方向にも反応が進行する可能性があることを示す式である。
ビーカーF2の変化を検討すると、もし塩素ガス、あるいはその水和物が蒸散したと仮定すると、薬液中の塩酸(HCl)は消費されてしまうので、pHは中性に近づくはずである。しかしながら、ビーカーF2のpHは、ほとんど変化せずに酸性の状態に維持されたので、この仮定は誤りであることが分かる。すなわち、薬液から塩素ガス、あるいはその水和物は蒸散しなかったことが明らかになった。
The possibility that chlorine gas (Cl 2 ) or its hydrate (Cl 2 · H 2 O) has evaporated from the result of the change in the beaker F 2 will be examined.
Since dilute hydrochloric acid (HCl) having a molar ratio of 2 times that of sodium hypochlorite (NaOCl) is added, a reaction formula like Formula 4 can be written.
NaOCl + 2HCl = Cl 2 + H 2 O + NaCl (4 formulas)
If this is rewritten in consideration of Equation 3, a reaction equation can also be written as Equation 5.
HOCl + HCl = Cl 2 + H 2 O (Formula 5)
These expressions 4 and 5 are expressions indicating that the reaction may proceed in any direction from the left side to the right side and from the right side to the left side.
Examining the change in the beaker F2, if it is assumed that chlorine gas or its hydrate has evaporated, the hydrochloric acid (HCl) in the chemical solution will be consumed, so the pH should be close to neutral. However, it can be seen that this assumption is incorrect because the pH of the beaker F2 was maintained in an acidic state with little change. That is, it became clear that chlorine gas or its hydrate did not evaporate from the chemical solution.

本実施の第3、4の形態に係る除菌・消臭装置1c、1dにおいては薬液を液滴にして空気中を落下させる。液滴にされた薬液が空気中で蒸発・消失しないで受液プレートに到達できる条件、すなわち薬液が液相に維持された状態で空気に接触できる条件を確認する実験を行った。なお、条件として薬滴の直径のみに着目した。
次亜塩素酸ナトリウム水溶液と希塩酸とから、有効塩素濃度220mg/L、pH6.5の薬液を調製し、市販の手動式霧吹き、すなわちハンドスプレーに入れた。ハンドスプレーによって薬液を液滴にして、20cmの距離だけ離間したスライドグラスに吹き付けた。このスライドグラスは倍率40倍の顕微鏡にセットされている。吹き付けた直後、すなわち0.5秒以内に1回、10秒後に1回、それぞれ40倍に拡大されたスライドグラスの写真を撮った。ハンドスプレーから噴出された液滴の直径は60〜140μmであり、0.5秒以内に撮影した写真から観察された液滴の大きさと個数は表4のようになった。
In the sterilization / deodorization apparatuses 1c and 1d according to the third and fourth embodiments of the present invention, the chemical liquid is used as droplets to drop in the air. An experiment was conducted to confirm the conditions under which the liquid chemical that has been made into liquid droplets can reach the liquid receiving plate without evaporating and disappearing in the air, that is, the conditions under which the liquid chemical can be in contact with air while being maintained in the liquid phase. Note that only the diameter of the drug droplet was focused on as a condition.
A chemical solution having an effective chlorine concentration of 220 mg / L and a pH of 6.5 was prepared from an aqueous sodium hypochlorite solution and dilute hydrochloric acid, and placed in a commercially available manual spray, that is, hand spray. The chemical solution was made into droplets by hand spraying and sprayed onto a slide glass separated by a distance of 20 cm. This slide glass is set in a microscope with a magnification of 40 times. Immediately after spraying, that is, once within 0.5 seconds, once after 10 seconds, a photograph of a slide glass magnified 40 times was taken. The diameter of droplets ejected from the hand spray was 60 to 140 μm, and the size and number of droplets observed from photographs taken within 0.5 seconds were as shown in Table 4.

Figure 0004588104
Figure 0004588104

ここで、スライドグラスに付着している液滴は半球になっていると仮定して、本来の液滴の直径を計算した。10秒後に撮影された写真から観察された液滴は、表4に示されている液滴の直径よりも若干小さくなっていたが個数は変化していなかった。なお、直径25μm前後の液滴も数個観察されたが、10秒後には一部が蒸発・消失していた。本実施の第3、4の形態に係る除菌・消臭装置1c、1dにおいては、液滴は0.5秒〜数秒程度で落下する。従って、空気中で蒸発・消失しないための液滴の直径は50μm以上であると考えられる。   Here, assuming that the droplet attached to the slide glass is a hemisphere, the diameter of the original droplet was calculated. The droplets observed from the photograph taken after 10 seconds were slightly smaller than the diameters of the droplets shown in Table 4, but the number did not change. Several droplets having a diameter of about 25 μm were also observed, but some of them were evaporated / disappeared after 10 seconds. In the sterilization / deodorization apparatuses 1c and 1d according to the third and fourth embodiments of the present embodiment, the liquid droplets drop in about 0.5 seconds to several seconds. Therefore, it is considered that the diameter of the droplets for preventing evaporation / disappearance in the air is 50 μm or more.

本実施の第2の形態に係る除菌・消臭装置1bの、次亜塩素酸を蒸散する能力を推定する実験を行った。
210mm×140mm×75mmの箱型樹脂容器に、外部から空気を吸入する吸入口と、外部に空気を送風する送風口とを明け、吸入口に電力が13Wのファンを取り付けた。次亜塩素酸ナトリウム水溶液と希塩酸とから、有効塩素濃度220mg/L、pH6.5の薬液を調製し、箱型樹脂容器の内部に1.2L入れた。ファンを駆動すると、薬液の液面がわずかに波打つのが確認された。ファンを駆動した状態で、所定時間経過毎に有効塩素濃度の変化を比色法によって測定した。測定結果は図4のグラフに示されている。この実験によって、次亜塩素酸が7時間でほぼ半減していることが分かる。また、24時間経過すると次亜塩素酸の90%が蒸散することが分かる。なお、薬液中の水は24時間で約300mLが蒸発した。
同様の装置を使用して、薬液の量を少なくして実験した。すなわち、同じ有効塩素濃度の薬液を300mLだけ箱型樹脂容器に入れ、ファンを駆動した。薬液中の次亜塩素酸の90%が蒸散するのに要した時間は5時間であった。薬液の液量を少なくして液面を低下させると薬液中の次亜塩素酸の蒸散の速度が速くなることが確認できた。薬液量を少なくして運転すると薬液中の次亜塩素酸の有効塩素濃度は早期に低下してしまうが、これを早期に排出して新しい薬液を供給することもできるので、そうすると蒸散する次亜塩素酸は、常に十分な量を確保することができる。
An experiment was performed to estimate the ability of the sanitizing / deodorizing apparatus 1b according to the second embodiment to evaporate hypochlorous acid.
A 210 mm × 140 mm × 75 mm box-shaped resin container was provided with a suction port for sucking air from the outside and a blower port for blowing air to the outside, and a fan with a power of 13 W was attached to the suction port. A chemical solution having an effective chlorine concentration of 220 mg / L and a pH of 6.5 was prepared from an aqueous sodium hypochlorite solution and dilute hydrochloric acid, and 1.2 L was placed inside the box-shaped resin container. When the fan was driven, it was confirmed that the liquid level of the chemical liquid slightly waved. With the fan driven, the change in effective chlorine concentration was measured by a colorimetric method every time a predetermined time passed. The measurement results are shown in the graph of FIG. This experiment shows that hypochlorous acid is almost halved in 7 hours. It can also be seen that 90% of hypochlorous acid evaporates after 24 hours. In addition, about 300 mL of water in the chemical solution evaporated in 24 hours.
A similar apparatus was used for the experiment with a small amount of chemical solution. That is, 300 mL of a chemical solution having the same effective chlorine concentration was put into a box-shaped resin container, and the fan was driven. The time required for 90% of hypochlorous acid in the chemical solution to evaporate was 5 hours. It was confirmed that when the liquid level was lowered by reducing the amount of the chemical solution, the rate of transpiration of hypochlorous acid in the chemical solution increased. When operating with a small amount of chemical solution, the effective chlorine concentration of hypochlorous acid in the chemical solution decreases early, but it can also be discharged early to supply a new chemical solution. A sufficient amount of chloric acid can always be ensured.

薬液が液滴にされて空気中を落下する場合の、次亜塩素酸の蒸散の効率を調べる実験を行った。
次亜塩素酸ナトリウム水溶液と希塩酸とから薬液h1、h2を調製し、市販の手動霧吹き、すなわちハンドスプレーH1、H2に入れた。薬液h1、h2は以下のようにした。
薬液h1:有効塩素濃度3000mg/L、pH6.5
薬液h2:有効塩素濃度300mg/L、pH6.5
ハンドスプレーH1、H2のそれぞれから、1mの高さから下方に向けて薬液h1、h2を液滴にして落下させた。そして、落下した液滴をそれぞれビーカーHH1、HH2に貯めた。このとき、液滴のほとんどは0.5秒以内で落下することが観察された。ビーカーHH1、HH2にそれぞれ5mL貯まったところで、比色法によって有効塩素濃度を測定した。測定結果を表5に示す。
An experiment was conducted to investigate the efficiency of hypochlorous acid transpiration when the chemical solution was dropped into the air.
Chemical solutions h1 and h2 were prepared from an aqueous solution of sodium hypochlorite and dilute hydrochloric acid, and placed in a commercially available manual spray, that is, hand sprays H1 and H2. The chemicals h1 and h2 were as follows.
Chemical solution h1: Effective chlorine concentration 3000 mg / L, pH 6.5
Chemical solution h2: effective chlorine concentration 300 mg / L, pH 6.5
From each of the hand sprays H1 and H2, the chemicals h1 and h2 were dropped from a height of 1 m downwards as droplets. The dropped droplets were stored in beakers HH1 and HH2, respectively. At this time, most of the droplets were observed to fall within 0.5 seconds. When 5 mL each was stored in beakers HH1 and HH2, the effective chlorine concentration was measured by a colorimetric method. Table 5 shows the measurement results.

Figure 0004588104
Figure 0004588104

実験の結果より、薬液を液滴にして空気中を落下させると、薬液中の次亜塩素酸の約60〜70%が蒸散し、蒸散の効率が高いことが分かる。また、蒸散する次亜塩素酸の割合は薬液の有効塩素濃度によって大きく変化しないことも分かる。このことから、薬液の次亜塩素酸の有効塩素濃度を変えると、時間当たりの蒸散量を容易に調整することができると推測される。すなわち、除菌・消臭装置の能力を調整することができる。   From the experimental results, it can be seen that when the chemical solution is dropped into the air and about 60% to 70% of the hypochlorous acid in the chemical solution is evaporated, the efficiency of the evaporation is high. It can also be seen that the proportion of hypochlorous acid that transpires does not change greatly depending on the effective chlorine concentration of the chemical solution. From this, it is presumed that the amount of transpiration per hour can be easily adjusted by changing the effective chlorine concentration of hypochlorous acid in the chemical solution. That is, the ability of the sterilization / deodorization apparatus can be adjusted.

本実施の形態に係る除菌・消臭装置は色々な変形が可能である。例えば、第1、2の実施の形態においては薬液槽に何も設けられていないが、薬液槽に水車状を呈する攪拌装置を設けることもできる。つまり、回転する複数枚の攪拌羽根が薬液中と空中を交互に出入りしながら薬液と空気を攪拌する、水車状の攪拌装置である。このようにすると、薬液が所定の直径の液滴になると共に、空気が薬液中に強制的に押し込まれるので、空気と薬液が効率よく接触することができ蒸散効率が高くなる。また、エアーポンプを設けて空気を直接薬液中に吹き込むようにしてもよい。そうすると、薬液中で気泡となった空気に、効率よく次亜塩素酸が蒸散することになる。いずれの方法によっても、薬液は液相に維持された状態で空気に接触するので、空気には次亜塩素酸以外の不純物が混入することはない。   The sterilization / deodorization apparatus according to the present embodiment can be variously modified. For example, in the first and second embodiments, nothing is provided in the chemical tank, but a stirring device having a water wheel shape may be provided in the chemical tank. That is, it is a watermill-like stirring device in which a plurality of rotating stirring blades stir the chemical solution and air while alternately entering and exiting the chemical solution and the air. If it does in this way, while a chemical solution will become a droplet of a predetermined diameter and air will be forced into a chemical solution, air and a chemical solution can contact efficiently and transpiration efficiency will become high. Further, an air pump may be provided to blow air directly into the chemical solution. If it does so, hypochlorous acid will transpire efficiently in the air which became the bubble in the chemical | medical solution. In any method, since the chemical solution is in contact with air while being maintained in a liquid phase, impurities other than hypochlorous acid are not mixed in the air.

1a、1b、1c、1d,1e 除菌・消臭装置
2 吸入口 3 送風口
5 筐体 7 第1の薬液槽
8 第2の薬液槽 9 第3の薬液槽
11 ファン 13 薬液供給槽
14 廃液槽 15 薬剤蒸散室
17 第1の仕切壁 18 第2の仕切壁
22 薬液 23 薬液槽
25 薬液供給タンク 32 液滴発生装置
33 受液プレート 36 ポンプ
37 水平ノズル 39 網
41 下方噴射ノズル 42 薬液流下装置
44 薬液流下体
1a, 1b, 1c, 1d, 1e Bacteria-removing / deodorizing device 2 Suction port 3 Blower port 5 Housing 7 First chemical tank 8 Second chemical tank 9 Third chemical tank 11 Fan 13 Chemical supply tank 14 Waste liquid Tank 15 Chemical vaporization chamber 17 First partition wall 18 Second partition wall 22 Chemical liquid 23 Chemical liquid tank 25 Chemical liquid supply tank 32 Liquid droplet generator 33 Liquid receiving plate 36 Pump 37 Horizontal nozzle 39 Net 41 Lower injection nozzle 42 Chemical liquid flow down apparatus 44 Lowering fluid

Claims (6)

所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液に、送風機によって空気を送り込んで前記薬液の液面に接するように平行に流し、前記空気中に次亜塩素酸を蒸散させ、得られた次亜塩素酸を含んだ空気を所定のエリアに送風して該エリアを除菌・消臭するとき、
前記エリアへの送風は、前記送風機によって送り込まれた空気をそのまま流すようにして実施することを特徴とする除菌・消臭方法。
The chemical solution pH is adjusted to 3.0 to 7.0 include hypochlorite predetermined effective chlorine concentration, fed at flow parallel in contact with the liquid surface of the chemical air by a blower, the air When the hypochlorous acid is evaporated to the air and the air containing the obtained hypochlorous acid is blown to a predetermined area to sterilize and deodorize the area ,
The sterilization / deodorization method is characterized in that the air blowing to the area is performed by flowing the air sent by the blower as it is.
請求項1に記載の除菌・消臭方法において、前記薬液は、直列に接続された複数槽の薬液槽を所定時間滞留させながら流下させ、前記空気は前記薬液の流れと反対方向から前記薬液槽の液面に平行に吹き付けるようにして実施することを特徴とする除菌・消臭方法。   2. The sterilization / deodorization method according to claim 1, wherein the chemical liquid flows down while retaining a plurality of chemical liquid tanks connected in series for a predetermined time, and the air flows from the opposite direction to the flow of the chemical liquid. A sterilization / deodorization method which is carried out by spraying in parallel to the liquid level of the tank. 請求項1または2に記載の除菌・消臭方法において、前記薬液を前記空気に接触させて得られた前記次亜塩素酸を含んだ空気を、空調機、加湿器または空気清浄機の送風口に供給して、前記次亜塩素酸を含んだ空気を前記送風口から送風される空気にブレンドして送風することを特徴とする除菌・消臭方法。   The sterilization / deodorization method according to claim 1 or 2, wherein the air containing hypochlorous acid obtained by bringing the chemical solution into contact with the air is blown by an air conditioner, a humidifier, or an air purifier. A sterilization / deodorizing method characterized in that the air containing hypochlorous acid is supplied to the mouth and blended with the air blown from the blower opening for blowing. 外部から空気を取り込む吸入口と外部に空気を送風する送風口が設けられた所定の薬剤蒸散室と、前記薬剤蒸散室内に設けられている薬液槽と、前記吸入口に設けられている送風機とから構成され、
前記薬液槽には、所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液が入れられており、
前記送風機が駆動されると、前記吸入口から吸入された空気は、前記薬液槽の液面に対して平行に流れて前記薬液と接触して、前記送風口から外部に送風されることを特徴とする除菌・消臭装置。
A predetermined chemical evaporation chamber provided with an intake port for taking in air from the outside, an air supply port for blowing air to the outside, a chemical solution tank provided in the chemical evaporation chamber, and a blower provided at the intake port Consisting of
The chemical solution tank contains a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0.
When the blower is driven, the air sucked from the suction port flows parallel to the liquid surface of the chemical solution tank, contacts the chemical solution, and is blown to the outside from the blower port. The sterilization and deodorization equipment.
外部から空気を取り込む吸入口と外部に空気を送風する送風口が設けられた所定の薬剤蒸散室と、前記薬剤蒸散室内に設けられている直列に接続された複数槽の薬液槽と、前記吸入口に設けられている送風機とから構成され、
前記吸入口と前記送風口は、それぞれ前記複数槽の薬液槽の最下流の槽と最上流の槽の近傍に設けられ、
前記送風機が駆動され、そして前記最上流の槽に所定の有効塩素濃度の次亜塩素酸を含みpHが3.0〜7.0に調整された薬液が供給されると、前記薬液は前記複数槽の薬液槽を所定の滞留時間を経て順次下流側に流れ、前記吸入口から吸入された空気は、前記薬液の流れと反対の方向に前記複数槽の薬液槽の液面に対して平行に流れて前記薬液と接触して、前記送風口から外部に送風されることを特徴とする除菌・消臭装置。
A predetermined chemical evaporation chamber provided with an intake port for taking in air from the outside and an air supply port for blowing air to the outside; a plurality of tanks connected in series provided in the chemical evaporation chamber; and the intake It consists of a blower provided in the mouth,
The suction port and the blower port are respectively provided in the vicinity of the most downstream tank and the most upstream tank of the plurality of chemical liquid tanks,
When the blower is driven and a chemical solution containing hypochlorous acid having a predetermined effective chlorine concentration and having a pH adjusted to 3.0 to 7.0 is supplied to the most upstream tank, the chemical solutions are the plurality of chemical solutions. The chemical tank of the tank sequentially flows downstream through a predetermined residence time, and the air sucked from the suction port is parallel to the liquid level of the chemical tank of the plurality of tanks in a direction opposite to the flow of the chemical liquid. A sterilization / deodorizing apparatus that flows and contacts with the chemical solution and is blown to the outside from the blowing port.
請求項4または5に記載の除菌・消臭装置において、前記送風口は、空調機、加湿器または空気清浄機の送風口近傍に設けられていることを特徴とする除菌・消臭装置。   6. The sterilizing / deodorizing apparatus according to claim 4 or 5, wherein the air blowing port is provided in the vicinity of the air blowing port of an air conditioner, a humidifier, or an air purifier. .
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