JP2014230506A - Organism growth material, and method and apparatus of producing organism growth material - Google Patents

Organism growth material, and method and apparatus of producing organism growth material Download PDF

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JP2014230506A
JP2014230506A JP2013112511A JP2013112511A JP2014230506A JP 2014230506 A JP2014230506 A JP 2014230506A JP 2013112511 A JP2013112511 A JP 2013112511A JP 2013112511 A JP2013112511 A JP 2013112511A JP 2014230506 A JP2014230506 A JP 2014230506A
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哲臣 岩本
Tetsuomi Iwamoto
哲臣 岩本
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HAKUSEKIKAN CO Ltd
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    • GPHYSICS
    • G03PHOTOGRAPHY; CINEMATOGRAPHY; ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ELECTROGRAPHY; HOLOGRAPHY
    • G03GELECTROGRAPHY; ELECTROPHOTOGRAPHY; MAGNETOGRAPHY
    • G03G21/00Arrangements not provided for by groups G03G13/00 - G03G19/00, e.g. cleaning, elimination of residual charge
    • G03G21/16Mechanical means for facilitating the maintenance of the apparatus, e.g. modular arrangements
    • G03G21/1604Arrangement or disposition of the entire apparatus
    • G03G21/1623Means to access the interior of the apparatus
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04NPICTORIAL COMMUNICATION, e.g. TELEVISION
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    • H04N1/0035User-machine interface; Control console
    • H04N1/00493Particular location of the interface or console
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04NPICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N1/00Scanning, transmission or reproduction of documents or the like, e.g. facsimile transmission; Details thereof
    • H04N1/0035User-machine interface; Control console
    • H04N1/00496Constructional details of the interface or console not otherwise provided for, e.g. rotating or tilting means
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04NPICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N1/00Scanning, transmission or reproduction of documents or the like, e.g. facsimile transmission; Details thereof
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Abstract

PROBLEM TO BE SOLVED: To provide organism growth material capable of promoting the growth of animals and plants with secure and safety, and a method and an apparatus of producing the organism growth material.SOLUTION: Organism growth material comprises fine bubbles having fine bubble diameter in raw water with the high contents of dissolved oxygen and dissolved hydrogen. For example, the organism growth material is produced by a producing apparatus 1 comprising: a water storage tank 2 for storing the raw water; an electrolyzer 3 for supplying power to an anode 3a and a cathode 3b which are separated and opposed to each other, and electrolyzing the raw water in the water storage tank 2; and a fine bubbles-generating device 4 for generating the fine bubbles having fine bubble diameter, such as nanobubbles, in the raw water in the water storage tank 2. The fine bubbles-generating device 4 is actuated while actuating electrolyzer 3.

Description

本発明は、動植物の成長を促進させる生物育成材及びその生物育成材の製造方法並びにその製造装置に関する。   The present invention relates to a biological growth material that promotes the growth of animals and plants, a method for manufacturing the biological growth material, and an apparatus for manufacturing the biological growth material.

現在、生物たる動植物の成長を促進させるべく、農薬や化学肥料等が多く使われている。   Currently, agrochemicals and chemical fertilizers are often used to promote the growth of living animals and plants.

近年、動植物のミネラル不足が進行しており、そしてそれが人の健康にも悪影響を及ぼしている。そのような動植物のミネラルが不足するに至った一因として、農薬や化学肥料等の多用が疑われている。   In recent years, animal and plant mineral deficiencies have progressed, and it has also adversely affected human health. As a cause of the shortage of minerals in such animals and plants, heavy use of agricultural chemicals and chemical fertilizers is suspected.

本発明は、上記に鑑みなされたもので、その目的は安心且つ安全に動植物の成長を促進させ得る生物育成材及びその生物育成材の製造方法並びにその製造装置を提供することにある。   This invention is made | formed in view of the above, The objective is to provide the biological growth material which can accelerate | stimulate growth of animals and plants safely and safely, the manufacturing method of the biological growth material, and its manufacturing apparatus.

請求項1に記載したように、原水の溶存酸素量と溶存水素量を多くしてその原水に気泡径が微小な微細気泡を含有させた生物育成材を提供する。なお、「原水」には、水道水、井戸水、湧き水、河川の水、池の水等の天然水或は蒸留水が含まれる。
また、請求項2に記載したように、前記原水は、ナノサイズの微細孔を有する濾材で濾過したものである請求項1記載の生物育成材を提供する。
また、請求項3に記載したように、1種又は複数種のミネラル成分を加えた請求項1又は2記載の生物育成材を提供する。
また、請求項4に記載したように、1種又は複数種の液肥を加えた請求項1〜3の何れか1項に記載の生物育成材を提供する。
According to a first aspect of the present invention, there is provided a biological growth material in which the amount of dissolved oxygen and the amount of dissolved hydrogen in raw water are increased to contain fine bubbles having a fine bubble diameter in the raw water. The “raw water” includes tap water, well water, spring water, river water, pond water, and other natural water or distilled water.
Moreover, as described in claim 2, the raw water is provided by the biological growth material according to claim 1, wherein the raw water is filtered through a filter medium having nano-sized fine pores.
Moreover, the biological growth material of Claim 1 or 2 which added the 1 type or multiple types of mineral component as described in Claim 3 is provided.
Moreover, as described in Claim 4, the biological growth material of any one of Claims 1-3 which added the 1 type or multiple types of liquid fertilizer is provided.

また、請求項5に記載したように、請求項1〜4の何れか1項に記載の生物育成材の製造方法であって、
間隔を離して対向配置した陽極と陰極に通電して原水を電気分解しつつその原水の中で気泡径が微小な微細気泡を発生させるようにした生物育成材の製造方法を提供する。
また、請求項6に記載したように、前記原水を予めナノサイズの微細孔を有する濾材で濾過するようにした請求項5に記載の生物育成材の製造方法を提供する。
また、請求項7に記載したように、前記原水の温度を0℃より高く30℃より低く保ちつつ前記電気分解と微細気泡の発生を行わせるようにした請求項5又は6記載の生物育成材の製造方法を提供する。
Moreover, as described in Claim 5, it is a manufacturing method of the biological growth material of any one of Claims 1-4,
Provided is a method for producing a biological growth material in which fine bubbles having a fine bubble diameter are generated in raw water while electrolyzing the raw water by energizing an anode and a cathode arranged opposite to each other at an interval.
Moreover, as described in claim 6, the method for producing a biological growth material according to claim 5, wherein the raw water is previously filtered through a filter medium having nano-sized fine pores.
The biological growth material according to claim 5 or 6, wherein the electrolysis and generation of fine bubbles are performed while maintaining the temperature of the raw water higher than 0 ° C and lower than 30 ° C. A manufacturing method is provided.

また、請求項8に記載したように、請求項1〜4の何れか1項に記載の生物育成材の製造装置であって、
原水を入れる貯水タンクと、
間隔を離して対向配置した陽極と陰極に通電して前記貯水タンク内の原水を電気分解する電気分解装置と、
気泡径が微小な微細気泡を前記貯水タンクに入れた前記原水の中で発生させる微細気泡発生装置と、を有し、
前記電気分解装置を作動させながら前記微細気泡発生装置を作動させるようにした生物育成材の製造装置を提供する。
また、請求項9に記載したように、前記貯水タンクに原水を圧送する導水経路の途中に、ナノサイズの微細孔を有する濾材を備えた濾過装置を設けるようにした請求項8記載の生物育成材の製造装置を提供する。
また、請求項10に記載したように、前記原水の温度を0℃より高く30℃より低く保つための水温調節装置を設けた請求項9記載の生物育成材の製造装置を提供する。
Moreover, as described in Claim 8, it is a manufacturing apparatus of the biological growth material in any one of Claims 1-4,
A water storage tank for raw water,
An electrolyzer that electrolyzes raw water in the water storage tank by energizing an anode and a cathode arranged opposite to each other at an interval;
A fine bubble generating device for generating fine bubbles with a fine bubble diameter in the raw water in the water storage tank,
Provided is a biological growth material manufacturing apparatus in which the microbubble generator is operated while the electrolysis apparatus is operated.
Moreover, as described in claim 9, the biological growth according to claim 8, wherein a filtration device including a filter medium having nano-sized fine holes is provided in the middle of a water conveyance path for pumping raw water to the water storage tank. A material manufacturing apparatus is provided.
In addition, as described in claim 10, the apparatus for producing a biological material according to claim 9, further comprising a water temperature adjusting device for maintaining the temperature of the raw water higher than 0 ° C and lower than 30 ° C.

請求項1に記載の生物育成材は、植物に与えて栽培すると成長が促進され、また、餌に混ぜて魚に与えると元気になって成長が促進される。その理由は定かではないが、次のように推測される。
すなわち、前記生物育成材は、水素と酸素と微細気泡を含んだものであり、水中に長時間浮遊する微細気泡によって、本来短時間で大気に発散される水素と酸素が長時間水中に止まり、さらにこの水素と酸素を微細気泡と一緒に与えることで吸収が飛躍的に高まるものと考えられる。
また、請求項2,6,8のように原水をナノサイズの微細孔を有する濾材で濾過することにより、不純物が除去されて純水化することはもちろん、元々原水に含まれていた気泡が微細孔を通過することで微細化するため、原水中の微細気泡をより豊富にすることができ、全体として酸化還元電位のマイナス電位値を大きくすることができる。
また、請求項3のように1種又は複数種のミネラル成分を加えた場合、それらのミネラル成分が効率良く吸収される。
また、本発明の生物育成材は、請求項5,6に記載の製造方法又は請求項8,9に記載の製造装置によって製造することができる。
また、微細気泡は、水温が0゜以下になると凍って発生し難くなり、一方、水温が30℃以上になると気泡中の空気が暖められて大気中に抜けやすくなるため、請求項7,10のように原水の温度を0℃より高く30℃より低く保つことで効率良く生物育成材を製造することができる。なお、その水温の範囲の中でも特に15℃〜29℃に設定するのが最もよい。
The biological growth material according to claim 1 is promoted to grow when fed to a plant and cultivated, and becomes energetic and promoted when fed to a fish mixed with bait. The reason is not clear, but is presumed as follows.
That is, the biological growth material contains hydrogen, oxygen, and fine bubbles, and by the fine bubbles floating in the water for a long time, hydrogen and oxygen that are naturally emitted to the atmosphere in a short time stay in the water for a long time, Furthermore, it is considered that absorption is drastically increased by supplying hydrogen and oxygen together with fine bubbles.
Further, by filtering raw water with a filter medium having nano-sized fine pores as in claims 2, 6 and 8, impurities are removed and purified, and of course, bubbles originally contained in the raw water Since it refines | miniaturizes by passing through a micropore, the fine bubble in raw | natural water can be made richer, and the negative potential value of an oxidation-reduction potential can be enlarged as a whole.
Moreover, when 1 type or multiple types of mineral components are added like Claim 3, those mineral components are absorbed efficiently.
Moreover, the biological growth material of this invention can be manufactured with the manufacturing method of Claim 5, 6, or the manufacturing apparatus of Claim 8, 9.
In addition, since the fine bubbles are not easily generated by freezing when the water temperature is 0 ° or less, the air in the bubbles is warmed and easily escapes into the atmosphere when the water temperature is 30 ° C. or more. As described above, the raw material can be efficiently produced by keeping the temperature of the raw water higher than 0 ° C. and lower than 30 ° C. In addition, it is best to set it to 15 to 29 degreeC especially in the range of the water temperature.

生物育成材の製造装置の概略を示す斜視図である。It is a perspective view which shows the outline of the manufacturing apparatus of a biological growth material. 陽極と陰極を示す斜視図である。It is a perspective view which shows an anode and a cathode. 栽培実証試験の結果を示すグラフである。It is a graph which shows the result of a cultivation demonstration test. 濾過装置の断面図である。It is sectional drawing of a filtration apparatus.

[実施形態1]
実施形態1の生物育成材の製造装置1は、図1に示したように、水道水や井戸水などの原水を入れる貯水タンク2と、電気分解装置3と、微細気泡発生装置4と、から概略形成される。
貯水タンク2は、所定量の水が貯水可能であれば、材質・形状等は特に限定されない。
電気分解装置3は、間隔を離して対向配置した陽極3aと陰極3bと、その陽極3aと陰極3bに接続する直流電源3cと、から形成される。陽極3aと陰極3bは、例えば、一辺が約300mm程度の四角いステンレス板に多数の孔3d,3d…を穿設したものであり、両電極3a,3bの間に約5〜10mmの間隔を設けて前記貯水タンク2内に対向配置されている。
微細気泡発生装置4は、コンプレッサー4aから吐出部材4bにドライエアを供給して、気泡径がナノメートル〜マイクロメートル(例えば、数nm〜数μm)である微小な微細気泡(一般に「ナノバブル」や「マイクロバブル」という。)を発生させ得るものであり、市販のナノバブル発生装置やマイクロバブル発生装置(例えば、株式会社ナックより、各種装置が販売されている。)をそのまま利用することができる。微細気泡は、好ましくは50nm〜200nm程度のナノバブルがよい。なお、微細気泡は、上記製造会社の製品ガイドに記載された実証試験データによれば、3日間放置した後も水の中に存在している。
[Embodiment 1]
As shown in FIG. 1, the biological growth material manufacturing apparatus 1 according to the first embodiment is roughly composed of a water storage tank 2 into which raw water such as tap water and well water is placed, an electrolysis apparatus 3, and a fine bubble generation apparatus 4. It is formed.
The material and shape of the water storage tank 2 are not particularly limited as long as a predetermined amount of water can be stored.
The electrolyzer 3 is formed of an anode 3a and a cathode 3b that are arranged to face each other at a distance, and a DC power source 3c that is connected to the anode 3a and the cathode 3b. The anode 3a and the cathode 3b are formed by, for example, making a plurality of holes 3d, 3d,... In a rectangular stainless steel plate having a side of about 300 mm, and providing an interval of about 5 to 10 mm between the electrodes 3a, 3b. Are disposed opposite to each other in the water storage tank 2.
The fine bubble generating device 4 supplies dry air from the compressor 4a to the discharge member 4b, and forms fine fine bubbles (generally “nano bubbles” or “nano bubble” or “ Microbubbles can be generated, and commercially available nanobubble generators and microbubble generators (for example, various devices are sold by NAC Co., Ltd.) can be used as they are. The fine bubbles are preferably nanobubbles having a size of about 50 nm to 200 nm. According to the verification test data described in the product guide of the manufacturer, the fine bubbles are still present in the water even after being left for 3 days.

以上のように構成される実施形態1の製造装置1を使って生物育成材を製造する方法について説明すると、まず、貯水タンク2に普通の水道水を原水として所定量(例えば約100リットル)入れる。
次に、微細気泡発生装置4を作動させる。そうすると、微細気泡発生装置4の吐出部材4bから微小な微細気泡が発生し、その微細気泡が水中に分散する。なお、水中に分散した微細気泡は、前記陽極3aと陰極3bの孔3d,3d…を通って両電極3a,3bの隅々にまで行き渡る。
なお、微細気泡は、水温が0゜以下になると凍って発生し難くなり、一方、水温が30℃以上になると気泡中の空気が暖められて大気中に抜けやすくなるため、図1に示したように貯水タンク2に冷温機能を有する水温調節装置10を設けて原水の温度が0℃より高くて30℃よりは低く、より好ましくは15℃〜29℃に保たれるように設定するとよい。
A method for producing a biological growth material using the production apparatus 1 according to the first embodiment configured as described above will be described. First, a predetermined amount (for example, about 100 liters) of raw tap water is put into a water storage tank 2 as raw water. .
Next, the microbubble generator 4 is operated. As a result, minute fine bubbles are generated from the discharge member 4b of the fine bubble generator 4, and the fine bubbles are dispersed in water. The fine bubbles dispersed in water pass through the holes 3d, 3d... Of the anode 3a and the cathode 3b to reach every corner of the electrodes 3a, 3b.
In addition, microbubbles are hardly generated by freezing when the water temperature is 0 ° or lower, while the air in the bubbles is easily heated when the water temperature is 30 ° C or higher. Thus, the water tank 2 may be provided with a water temperature adjusting device 10 having a cooling function so that the temperature of the raw water is higher than 0 ° C. and lower than 30 ° C., more preferably 15 ° C. to 29 ° C.

前記微細気泡の発生とほぼ同時に電気分解装置3の陽極3aと陰極3bに17V〜24V(実施形態では24V)程度の電圧を印加する。このときの電流は、0.5A〜1.0Aである。これにより原水が電気分解装置3で電気分解され、周知のように陽極3aから酸素が、また、陰極3bから水素が放出される。
なお、後述するように原水に液肥やミネラル成分を加えた場合には、電気分解によりそれらの成分が沈殿するおそれがあるため、電気分解装置3を例えば1秒間隔で間欠運転する等して適宜調節するとよい。
上記の状態を30分以上継続させることにより、微細気泡を含有する原水を電気分解してなる動物又は植物育成材、すなわち生物育成材ができる。
A voltage of about 17V to 24V (24V in the embodiment) is applied to the anode 3a and the cathode 3b of the electrolyzer 3 almost simultaneously with the generation of the fine bubbles. The current at this time is 0.5 A to 1.0 A. As a result, the raw water is electrolyzed by the electrolyzer 3, and oxygen is released from the anode 3a and hydrogen is released from the cathode 3b as is well known.
As will be described later, when liquid fertilizer and mineral components are added to the raw water, the components may be precipitated by electrolysis. Therefore, the electrolyzer 3 is operated intermittently at intervals of 1 second, for example. Adjust it.
By continuing the above state for 30 minutes or more, an animal or plant growing material obtained by electrolyzing raw water containing fine bubbles, that is, a biological growing material can be obtained.

岐阜県中津川市蛭川の水道水(酸化還元電位=+440mV)を原水にして製造された実施形態1の生物育成材の酸化還元電位は、−58mVであった。   The redox potential of the biological growth material of Embodiment 1 produced using tap water (redox potential = + 440 mV) in Yodogawa, Nakatsugawa City, Gifu Prefecture, as raw water was −58 mV.

[実証試験]
以上のようにして製造される生物育成材についてその効果を実証すべく、ブロッコリーの栽培実証試験を行った。
栽培実証試験は、128穴トレーにブロッコリーの種を播種し、播種直後に水の代わりに本発明の生物育成材を散布し、その後、7日目と14日目に水の代わりに本発明の生物育成材を散布し、そうして19日目の生育状況を検査する、というものである。また、比較のため、同じ栽培実証試験を水のみで行い、その場合のブロッコリーの生育状況を検査した。
その結果を図3のグラフに示す。なお、図3のグラフは、普通の水道水のみの生育状況を100とした場合の指数で表示されている。
[Verification test]
In order to verify the effect of the biological growth material manufactured as described above, a cultivation verification test of broccoli was conducted.
In the cultivation verification test, broccoli seeds were sown in a 128-well tray, and the biological growth material of the present invention was sprayed instead of water immediately after sowing, and then, on the 7th and 14th days, instead of water, Sprinkle biological growth material, and then check the growth of the 19th day. For comparison, the same cultivation demonstration test was performed with water alone, and the growth status of broccoli in that case was examined.
The result is shown in the graph of FIG. In addition, the graph of FIG. 3 is displayed by the index | exponent when the growth condition only of normal tap water is set to 100. FIG.

図3のグラフから明らかなように、本発明の生物育成材を散布したブロッコリーの生育状況は、地下部分の根長と根重が水道水のみの生育状況より若干下回るが、地上部の草丈、重量、茎径、SPAD値(葉緑素の値を特定の測定器で数値化したもの)は、水道水のみの生育状況より明らかに優れていた。
なお、同時に本発明の生物育成材に液肥(具体的には、窒素、リン、カリウム)を加えて同じ栽培実証試験を行い、その結果を図3のグラフに並べて示した。この組合せによれば、地下部分と地上部の全体の生育状況が水道水のみの場合の生育状況を上回っていた。これより本発明の生物育成材は、単体で使用してももちろんよいが、液肥と組み合わせて使用するとさらに優れた効果を発揮することが確認できた。
As is apparent from the graph of FIG. 3, the growth status of broccoli sprayed with the biological growth material of the present invention is slightly lower than the growth status of tap water only in the root length and root weight of the underground part, The weight, stem diameter, and SPAD value (quantified chlorophyll value with a specific measuring instrument) were clearly superior to the growth of tap water alone.
At the same time, liquid fertilizer (specifically, nitrogen, phosphorus, potassium) was added to the biological growth material of the present invention, and the same cultivation demonstration test was performed. The results are shown in the graph of FIG. According to this combination, the growth situation of the whole underground part and the above-ground part exceeded the growth situation in the case of only tap water. From this, the biological growth material of the present invention may of course be used alone, but it has been confirmed that when used in combination with liquid fertilizer, a further excellent effect is exhibited.

ところで植物を栽培するとき、培土に粒状の炭を混ぜて生育を促進させる方法が従来より存在するが、かかる栽培方法に本発明の生物育成材を組み合わせるべく、木炭にミネラル(海草粉)、黄土粉、鉄粉、黒曜石粉、SiO 、Co、Mn、Cu、Znを混合して形成された粒を培土に混ぜて播種し、これに前記液肥を本発明の生物育成材に加えたものを与えて上記と同じく19日間栽培した結果、水道水のみの栽培に比べて、根重が277%、地上部重が166%、SPAD値が約4ポイント増加した。
また、茎葉を除いた部分のミネラル分を分析したところ、100g中、ナトリウム=25.5mg、リン=128mg、鉄=1.38mg、カルシウム=41.7mg、カリウム=472mg、マグネシウム=29.1mgという結果であった。これらの数値は、ミネラル分が効率的に吸収されたことを裏付けるに十分なものである。
By the way, when cultivating a plant, there is a conventional method for promoting growth by mixing granular charcoal with soil, but in order to combine the biological growth material of the present invention with such a cultivation method, mineral (seaweed powder), ocher are combined with charcoal. A mixture of powder, iron powder, obsidian powder, SiO 2 , Co, Mn, Cu, and Zn mixed with soil and seeded, and the liquid fertilizer added to the biological growth material of the present invention As a result, the root weight was 277%, the ground weight was 166%, and the SPAD value was increased by about 4 points as compared with the cultivation using only tap water.
Moreover, when the mineral content of the part excluding the foliage was analyzed, it was said that sodium = 25.5 mg, phosphorus = 128 mg, iron = 1.38 mg, calcium = 41.7 mg, potassium = 472 mg, magnesium = 29.1 mg in 100 g. It was a result. These numbers are sufficient to support the efficient absorption of minerals.

次に、本発明の生物育成材の育成効果を実証すべく、金魚の飼育を行った。
具体的には、別々の水槽に体長約1cmの金魚を入れ、一方の金魚に本発明の生物育成材をしみ込ませた餌を投与した。
その結果、本発明の生物育成材をしみ込ませた餌を与えた金魚の体長が、約8ヶ月の飼育で他方の金魚のほぼ2倍に成長した。
なお、本発明の生物育成材を餌に混ぜて犬や猫などの動物に与えることで排泄物の臭いを低減させることも可能である。
Next, in order to demonstrate the growth effect of the biological growth material of the present invention, a goldfish was raised.
Specifically, a goldfish having a body length of about 1 cm was placed in a separate aquarium, and one goldfish was administered with a bait soaked with the biological growth material of the present invention.
As a result, the body length of the goldfish fed with the food soaked with the biological growth material of the present invention grew almost twice as much as that of the other goldfish after breeding for about 8 months.
In addition, it is also possible to reduce the smell of excrement by mixing the biological growth material of the present invention with food and giving it to animals such as dogs and cats.

[実施形態2]
実施形態2の生物育成材の製造装置1は、図4に示したように、前記貯水タンク2に原水を圧送する導水経路の途中に微細孔を有する濾材5a,5b,5cを備えた濾過装置6を介在させるようにしたものである。
[Embodiment 2]
As shown in FIG. 4, the biological growth material manufacturing apparatus 1 according to the second embodiment is a filtration apparatus including filter media 5 a, 5 b, and 5 c having fine holes in the middle of a water conveyance path for pumping raw water to the water storage tank 2. 6 is interposed.

前記濾過装置6は、図4に示したように、導水経路を構成する複数本に分割された導水管7a〜7dと、第1の導水管7aの始端に接続されて水道水又は井戸水を原水として圧送するポンプ8と、導水管7a,7bの間、導水管7b,7cの間、導水管7c,7dの間にそれぞれ介装された複数(実施形態2では3つ)の濾過容器9a,9b,9cと、その濾過容器9a,9b,9cの内部に設けられた濾材5a,5b,5cと、から概略構成される。   As shown in FIG. 4, the filtration device 6 is connected to a plurality of water guide pipes 7 a to 7 d constituting a water guide path and the start end of the first water guide pipe 7 a to supply tap water or well water as raw water. A plurality of (three in the second embodiment) filtration containers 9a interposed between the water pumps 7a and 7b, between the water pipes 7b and 7c, and between the water pipes 7c and 7d, respectively. 9b, 9c and filter media 5a, 5b, 5c provided inside the filtration containers 9a, 9b, 9c.

前記第1の導水管7aは、前記のように始端側がポンプ8に接続され、終端側が第1の濾過容器9aの上部を貫いて濾材5aの上部に接続されている。
また、第2の導水管7bは、始端側が第1の濾過容器9aの底部に接続され、終端側が第2の濾過容器9bの底部を貫いて濾材5bの下部に接続されている。
また、第3の導水管7cは、始端側が第2の濾過容器9bの上部に接続され、終端側が第3の濾過容器9cの上部を貫いて濾材5cの上部に接続されている。
また、第4の導水管7dは、始端側が第3の濾過容器9cの底部に接続され、終端側が前記貯水タンク2内に開放されている。
As described above, the first water conduit 7a is connected to the pump 8 at the start end, and is connected to the top of the filter medium 5a through the upper end of the first filtration container 9a.
The second water conduit 7b has a start end connected to the bottom of the first filtration container 9a and a terminal end penetrating through the bottom of the second filtration container 9b to the lower part of the filter medium 5b.
The third water conduit 7c has a start end connected to the upper part of the second filtration container 9b and a terminal end passing through the upper part of the third filtration container 9c and connected to the upper part of the filter medium 5c.
The fourth water conduit 7 d has a start end connected to the bottom of the third filtration container 9 c and a terminal end opened to the water storage tank 2.

濾過装置6の濾材5a,5b,5cは、化学繊維又は不織布を筒状に丸めて一端を塞いだものであって導水経路の下流に配置されるものほど微細孔が小さくなるように設定されており、少なくとも最下流に位置する濾材5cの微細孔はナノサイズ(例えば10nm〜100nm)になっている。   The filter media 5a, 5b and 5c of the filtration device 6 are set so that one end is closed by rounding a chemical fiber or a non-woven fabric into a cylindrical shape, and the fine pores become smaller as the one disposed downstream of the water conduit. In addition, at least the fine pores of the filter medium 5c located on the most downstream side are nano-sized (for example, 10 nm to 100 nm).

実施形態2の濾過装置6は、以上のように構成されているため、ポンプ8を作動させると、水道水や井戸水などの原水が導水管7aから濾材5aに圧送され、その圧力で濾材5aの微細孔を通り抜けて濾過容器9aに充満する。次に、濾過容器9aに充満した原水は、導水管7bを通って濾過容器9bの濾材5bに圧送され、その圧力で濾材5bの微細孔を通り抜けて濾過容器9bに充満する。そしてさらに、濾過容器9bに充満した原水は、導水管7cを通って濾過容器9cの濾材5cに圧送され、その圧力で濾材5cの微細孔を通って濾過容器9cに抜け、そこから導水管7dを通って貯水タンク2に注がれる。
なお、それ以降は、実施形態1と同じであるため説明を省略する。
Since the filtration device 6 of the second embodiment is configured as described above, when the pump 8 is operated, raw water such as tap water or well water is pumped from the water conduit 7a to the filter medium 5a, and the pressure of the filter medium 5a is increased. It passes through the fine holes and fills the filtration container 9a. Next, the raw water filled in the filtration container 9a is pumped to the filter medium 5b of the filter container 9b through the water conduit 7b, and passes through the fine holes of the filter medium 5b with the pressure to fill the filter container 9b. Further, the raw water filled in the filtration container 9b is pumped to the filter medium 5c of the filter container 9c through the water conduit 7c, and is discharged to the filter container 9c through the fine holes of the filter medium 5c by the pressure, and from there to the water conduit 7d. It is poured into the water storage tank 2 through.
In addition, since it is the same as that of Embodiment 1, it abbreviate | omits description after that.

このように原水を段階的に濾材5a,5bで濾過すると共に最終的にナノサイズの微細孔を有する濾材5cで濾過することにより、不純物が除去されて純水化することはもちろん、元々導水過程で原水に含まれていた気泡がナノサイズの微細孔を通過することで微細化するため、原水中の微細気泡をより豊富にすることができる。   In this way, the raw water is filtered step by step through the filter media 5a and 5b and finally filtered through the filter media 5c having nano-sized fine pores, so that impurities are removed and the water is purified. Since the bubbles contained in the raw water are refined by passing through the nano-sized fine pores, the fine bubbles in the raw water can be enriched.

岐阜県中津川市蛭川の水道水(酸化還元電位=+440mV)を原水にして製造された実施形態2の生物育成材の酸化還元電位は、−152mVであり、酸化還元電位が−58mVである実施形態1の生物育成材よりさらに動物又は植物の育成に適した水質になっていることが確認された。   An embodiment in which the redox potential of the biological growth material of Embodiment 2 manufactured using tap water (Oxidation reduction potential = + 440 mV) in Yodogawa, Nakatsugawa City, Gifu Prefecture is −152 mV and the oxidation reduction potential is −58 mV It was confirmed that the water quality was more suitable for the growth of animals or plants than the one of the biological growth materials.

この実施形態2の製造装置1で製造した生物育成材を複数の者が飲用したところ、殆どの者が飲用翌日に体力の回復を実感し、また、加齢により長期間途絶えていた夜間陰茎勃起(いわゆる「朝立ち」)現象の復活事例もあった。その理由は定かでないが、次のように推測される。
すなわち、現在、水中の酸素濃度が高い酸素水と、水素濃度が高い水素水が市販されている。
一般に、酸素水には、これを飲用することにより、糖尿病の改善作用、運動能力向上作用、ヘモグロビン増加作用、抗高血圧作用、コレステロールの低下作用、抗酸化作用、腰痛の緩和作用、活性酸素除去作用、臭いの軽減作用、等の効果があると言われ、現在も研究が進められている。
また、水素水には、これを飲用することにより、活性酸素の除去作用、精力減退を含む老化の防止作用、等の効果があると言われている。この水素水についても大学等で研究が進められており、研究論文も発表されている。
しかして本発明の生物育成材は、水素と酸素と微細気泡を含んだものであり、水中に長時間浮遊する微細気泡によって、本来短時間で大気に発散される水素と酸素が長時間水中に止まり、さらにこの水素と酸素を微細気泡と一緒に体内に取り込むことで吸収が高まるものと考えられる。
したがって、本発明の生物育成材を飲用することによって、糖尿病の改善作用、運動能力向上作用、ヘモグロビン増加作用、抗高血圧作用、コレステロールの低下作用、抗酸化作用、腰痛の緩和作用、活性酸素除去作用、臭いの軽減作用、精力減退を含む老化の防止作用等の健康増進・体力回復効果が期待できる。
よって本発明の生物育成材の「生物」には、人間も含まれる。
なお、上記のように生物育成材を飲用の用途に使用する場合は、直接飲料水として摂取する他、食品に添加したり、酒類、ジュース類に添加して摂取するようにしてもよい。
When a plurality of people drank the biological growth material produced by the production apparatus 1 of Embodiment 2, most people felt that physical strength was restored on the next day of drinking, and nighttime penile erection had been interrupted for a long time due to aging There was also a resurgence of the phenomenon (the so-called “morning”). The reason is not clear, but is presumed as follows.
That is, at present, oxygen water having a high oxygen concentration in water and hydrogen water having a high hydrogen concentration are commercially available.
In general, oxygen water can be used to improve diabetes, improve exercise capacity, increase hemoglobin, increase antihypertensive activity, lower cholesterol, antioxidant activity, relieve back pain, and remove active oxygen. It is said that there are effects such as odor mitigation, and research is ongoing.
In addition, it is said that hydrogen water has effects such as an action of removing active oxygen and an action of preventing aging including a decrease in energy by drinking it. Research on this hydrogen water is also being carried out at universities, etc., and research papers have been published.
Thus, the biological growth material of the present invention contains hydrogen, oxygen, and fine bubbles, and the hydrogen and oxygen that are naturally released to the atmosphere in a short time due to the fine bubbles floating in the water for a long time. It is thought that absorption increases by taking this hydrogen and oxygen into the body together with fine bubbles.
Therefore, by drinking the biological growth material of the present invention, diabetes improvement action, exercise capacity improvement action, hemoglobin increase action, antihypertensive action, cholesterol lowering action, antioxidant action, low back pain relief action, active oxygen removal action It can be expected to promote health and restore physical strength, such as odor mitigation and aging prevention, including reduced energy.
Therefore, the “living body” of the biological growth material of the present invention includes humans.
In addition, when using a biological growth material for the drinkable use as mentioned above, in addition to ingesting directly as drinking water, you may make it add to food, or may be ingested by adding to alcoholic beverages and juices.

以上、本発明を実施形態1,2について説明したが、もちろん本発明は上記実施形態に限定されるものではない。例えば、実施形態では原水を電気分解することによって溶存酸素量と溶存水素量を多くしてその原水に微細気泡を含有させるようにしたが、既存の方法で原水の溶存酸素量を多くしたいわゆる酸素水と、同じく既存の方法で原水の溶存水素量を多くしたいわゆる水素水とを混合してその原水に微細気泡を含有させるようにしてもよい。
また、実施形態では原水として水道水を使用したが、それ以外にも井戸水はもちろん、湧き水、河川の水、池の水等の天然水或は蒸留水でもよい。さらに原水に、亜鉛、カリウム、カルシウム、窒素、珪素、硫黄、塩素、アルミニウム、クロム、セレン、鉄、銅、ナトリウム、マグネシウム、マンガン、モリブデン、ヨウ素、リン等のミネラル成分を1種又は複数種加えるようにしてもよい。さらにまた、アルカリイオン水やトレハロースを加えるようにしてもよい。
また、実施形態2では、濾過装置6として濾材5a,5b,5cを数珠つなぎに連結して段階的に微細孔を細かくするようにしたが、ナノサイズの微細孔を有する濾材5cを単体で使用するようにしてもよい。
As mentioned above, although this invention was demonstrated about Embodiment 1, 2, of course, this invention is not limited to the said embodiment. For example, in the embodiment, the raw water is electrolyzed to increase the amount of dissolved oxygen and the amount of dissolved hydrogen so that the raw water contains fine bubbles, but the so-called oxygen in which the amount of dissolved oxygen in the raw water is increased by existing methods. Water and so-called hydrogen water in which the amount of dissolved hydrogen in the raw water is increased by an existing method may be mixed so that fine bubbles are contained in the raw water.
In the embodiment, tap water is used as the raw water, but natural water such as spring water, river water, pond water, or distilled water may be used as well as well water. Furthermore, one or more mineral components such as zinc, potassium, calcium, nitrogen, silicon, sulfur, chlorine, aluminum, chromium, selenium, iron, copper, sodium, magnesium, manganese, molybdenum, iodine, and phosphorus are added to the raw water. You may do it. Furthermore, alkaline ionized water or trehalose may be added.
In the second embodiment, the filtering media 5a, 5b and 5c are connected as a filtration device 6 in a daisy chain so as to make the fine pores finer step by step. However, the filtering media 5c having nano-sized fine pores are used alone. You may make it do.

1 …製造装置
2 …貯水タンク
3 …電気分解装置
3a…陽極
3b…陰極
4 …微細気泡発生装置
5 …濾材
6 …濾過装置
7a〜7d …導水管(導水経路)
8 …ポンプ
10 …水温調節装置
DESCRIPTION OF SYMBOLS 1 ... Manufacturing apparatus 2 ... Water storage tank 3 ... Electrolysis apparatus 3a ... Anode 3b ... Cathode 4 ... Fine bubble generator 5 ... Filter medium 6 ... Filtration apparatus 7a-7d ... Water guide pipe (water guide path)
8 ... Pump 10 ... Water temperature control device

Claims (10)

原水の溶存酸素量と溶存水素量を多くしてその原水に気泡径が微小な微細気泡を含有させたことを特徴とする生物育成材。   A biological growth material characterized in that the amount of dissolved oxygen and dissolved hydrogen in raw water is increased so that the raw water contains fine bubbles having a fine bubble diameter. 前記原水は、ナノサイズの微細孔を有する濾材で濾過したものであることを特徴とする請求項1記載の生物育成材。   The biological raw material according to claim 1, wherein the raw water is filtered through a filter medium having nano-sized fine pores. 1種又は複数種のミネラル成分を加えたことを特徴とする請求項1又は2記載の生物育成材。   The biological growth material according to claim 1 or 2, wherein one or more mineral components are added. 1種又は複数種の液肥を加えたことを特徴とする請求項1〜3の何れか1項に記載の生物育成材。   The biological growth material according to any one of claims 1 to 3, wherein one or more types of liquid fertilizer are added. 請求項1〜4の何れか1項に記載の生物育成材の製造方法であって、
間隔を離して対向配置した陽極と陰極に通電して原水を電気分解しつつその原水の中で気泡径が微小な微細気泡を発生させるようにしたことを特徴とする生物育成材の製造方法。
It is the manufacturing method of the biological growth material of any one of Claims 1-4,
A method for producing a bio-growing material, characterized in that an anode and a cathode arranged opposite to each other at an interval are energized to electrolyze raw water to generate fine bubbles having a fine bubble diameter in the raw water.
前記原水を予めナノサイズの微細孔を有する濾材で濾過するようにしたことを特徴とする請求項5に記載の生物育成材の製造方法。   6. The method for producing a biological growth material according to claim 5, wherein the raw water is filtered in advance with a filter medium having nano-sized fine pores. 前記原水の温度を0℃より高く30℃より低く保ちつつ前記電気分解と微細気泡の発生を行わせるようにしたことを特徴とする請求項5又は6記載の生物育成材の製造方法。   The method for producing a biological growth material according to claim 5 or 6, wherein the electrolysis and generation of fine bubbles are performed while keeping the temperature of the raw water higher than 0 ° C and lower than 30 ° C. 請求項1〜4の何れか1項に記載の生物育成材の製造装置であって、
原水を入れる貯水タンクと、
間隔を離して対向配置した陽極と陰極に通電して前記貯水タンク内の原水を電気分解する電気分解装置と、
気泡径が微小な微細気泡を前記貯水タンクに入れた前記原水の中で発生させる微細気泡発生装置と、を有し、
前記電気分解装置を作動させながら前記微細気泡発生装置を作動させるようにしたことを特徴とする生物育成材の製造装置。
A biological growth material manufacturing apparatus according to any one of claims 1 to 4,
A water storage tank for raw water,
An electrolyzer that electrolyzes raw water in the water storage tank by energizing an anode and a cathode arranged opposite to each other at an interval;
A fine bubble generating device for generating fine bubbles with a fine bubble diameter in the raw water in the water storage tank,
An apparatus for producing a biological growth material, wherein the microbubble generator is operated while operating the electrolyzer.
前記貯水タンクに原水を圧送する導水経路の途中に、ナノサイズの微細孔を有する濾材を備えた濾過装置を設けるようにしたことを特徴とする請求項8記載の生物育成材の製造装置。   The biological growth material manufacturing apparatus according to claim 8, wherein a filtering device including a filtering material having nano-sized fine holes is provided in the middle of a water conveyance path for pumping raw water to the water storage tank. 前記原水の温度を0℃より高く30℃より低く保つための水温調節装置を設けたことを特徴とする請求項9記載の生物育成材の製造装置。   The biological growth material manufacturing apparatus according to claim 9, further comprising a water temperature adjusting device for keeping the temperature of the raw water higher than 0 ° C. and lower than 30 ° C.
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JP2019024398A (en) * 2017-07-28 2019-02-21 株式会社 太陽 Nutritious liquid filter
WO2019087718A1 (en) * 2017-10-31 2019-05-09 株式会社フジキン Hydroponic cultivation method and potted bonsai plant container
CN110114315A (en) * 2017-06-08 2019-08-09 日本多宁股份有限公司 Electrolytic water generating device

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2018171021A (en) * 2017-03-31 2018-11-08 株式会社フジタ Plant cultivation device, cultivation panel, and plant cultivation method
CN110114315A (en) * 2017-06-08 2019-08-09 日本多宁股份有限公司 Electrolytic water generating device
JP2019024398A (en) * 2017-07-28 2019-02-21 株式会社 太陽 Nutritious liquid filter
WO2019087718A1 (en) * 2017-10-31 2019-05-09 株式会社フジキン Hydroponic cultivation method and potted bonsai plant container
JPWO2019087718A1 (en) * 2017-10-31 2021-01-21 有限会社清香園 Hydroponics method and storage body with plants for bonsai

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