JP4873214B2 - Plant growing method - Google Patents

Plant growing method Download PDF

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JP4873214B2
JP4873214B2 JP2004338147A JP2004338147A JP4873214B2 JP 4873214 B2 JP4873214 B2 JP 4873214B2 JP 2004338147 A JP2004338147 A JP 2004338147A JP 2004338147 A JP2004338147 A JP 2004338147A JP 4873214 B2 JP4873214 B2 JP 4873214B2
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water
powder
plant
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cylindrical body
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JP2006122026A5 (en
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義孝 本間
信之 赤原
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株式会社エヌ・オー・エス
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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Description

本発明は、果実、野菜、穀類、稲類、人体に有用な菌類などの植物に酸化金属または陶磁器の粉体や魚類の粉体や植物質の粉体の中から選択した少なくとも2つを粘土に混練し所定の形状に成型した後に焼成することで得られる複合セラミックス体を水に接触させ、遠赤外線放射作用、触媒作用、前記複合作用によって改変させた水の提供による植物育成方法に関する。The present invention relates to a plant such as fruit, vegetables, cereals, rice, fungi useful for the human body, clay, and at least two selected from metal oxide, ceramic powder, fish powder, and vegetable powder. The present invention relates to a plant growing method by bringing a composite ceramic body obtained by kneading and forming into a predetermined shape and then firing into contact with water, providing far-infrared radiation, catalytic action, and water modified by the composite action.

近年、世界中で果実、野菜、穀類、稲類、人体に有用な菌類などの農作物の安全性に対する不安感が高まってきている。そこで、少しでも農薬や肥料の使用を減少させる目的で、これら農作物への水分補給手段の一つとして、たとえば灌漑用水、地下水、水耕栽培用水、水道水に各種無機成分を溶解したものや、水質改良装置の使用が成されるようになってきた。例えば、野菜等の農作物の水耕栽培に於いては、活性化処理した水を使用することにより、農作物の成長が通常の水を使用する場合に比較して大幅に促進されることが公知になっている。
水の活性化手段に関しては、水が外部からエネルギーを吸収し、水分子の振動が活発になっている状態であることが一般的に知られれており、例えば、遠赤外線を水に照射すると、水分子の固有振動数に近い約3〜14μm程度の波長が、水分子に効率よく吸収され、水が活性化されることになる。
また、遠赤外線で水が活性化されると、物理的に水分子が水素イオンHと水酸イオンOHに解離したり、外部から酸素や窒素等の気体分子を取り込む力が増加したり(例えば溶存酸素の増加)、或いは弱アルカリ性になる(Ph8〜9程度)等の物性の変化が表れ、その結果水が植物の根に吸収され易くなり、これによって植物の成長が促進されることが、一般的に知られるようになった。
ところが、従来の水の活性化手段に関しては、大形であったり、装置が使いずらかったりして、農業用としては普及しにくい点が指摘されていた。
In recent years, anxiety about the safety of agricultural products such as fruits, vegetables, cereals, rice, and fungi useful for the human body has increased. Therefore, for the purpose of reducing the use of agricultural chemicals and fertilizers as much as possible, as a means of hydrating these crops, for example, irrigation water, ground water, hydroponic water, tap water, The use of water quality improvement equipment has come to be made. For example, in hydroponic cultivation of agricultural products such as vegetables, it is known that the use of activated water greatly promotes the growth of agricultural products compared to the case of using normal water. It has become.
Regarding the means for activating water, it is generally known that water absorbs energy from the outside and the vibration of water molecules is active. For example, when far infrared rays are irradiated to water, A wavelength of about 3 to 14 μm, which is close to the natural frequency of water molecules, is efficiently absorbed by water molecules, and water is activated.
In addition, when water is activated by far-infrared rays, water molecules are physically dissociated into hydrogen ions H + and hydroxide ions OH , and the ability to take in gas molecules such as oxygen and nitrogen from the outside increases. Changes in physical properties such as increase in dissolved oxygen or weak alkalinity (about Ph8-9) appear, and as a result, water is easily absorbed by plant roots, thereby promoting plant growth. However, it has become generally known.
However, it has been pointed out that the conventional means for activating water is not widely used for agriculture due to its large size and the difficulty of using the device.

そこで、近年では、農作物育成のための水の活性化手段に関しての開発案件が増加するようになった。
例えば、温度管理や水分管理などを向上させた果実や野菜類の栽培装置の提供を課題とし、そのための解決手段として、果実、野菜類の栽培用土壌たる人工土壌に、水パイプ、肥料(栄養素)パイプ及び遠赤外線放射体を設け、栽培用容器の底側に通気性の仕切り体を設けるとともに、この仕切り体上に人工土壌を収容し、底と仕切り体との空間に空間温度調整手段たる水パイプ並びに空気パイプを設け、遠赤外線放射体により遠赤外線を放射し、水パイプにより水分、肥料(栄養素)、温度までも総合的に管理することができる果実や野菜類の栽培装置の開発案件が知られている。(特開2003−70360号公報を参照する)
Therefore, in recent years, the number of development projects related to water activation means for growing crops has increased.
For example, the challenge is to provide fruit and vegetable cultivation equipment with improved temperature management and moisture management. As a means for solving this problem, water pipes, fertilizers (nutrients) ) A pipe and a far-infrared radiator are provided, a breathable partition is provided on the bottom side of the cultivation container, artificial soil is accommodated on the partition, and space temperature adjusting means is provided in the space between the bottom and the partition A development project for fruit and vegetable cultivation equipment that has a water pipe and an air pipe, emits far-infrared rays with a far-infrared radiator, and can comprehensively manage moisture, fertilizer (nutrient), and temperature with the water pipe. It has been known. (Refer to JP2003-70360A)

また、例えば、海水または河川水、地下水、などの原水の実用的機能を変改させ、農業用水、洗滌用水、野菜その他の農産物保存用水として有用な改良された水を製することを目的とする装置の提供を目的とし、そのための構成が、容器の中にセラミックス製のボールとステンレス製のボールを充填しこれと原水を接触させることを可能とした構成の装置の開発案件が知られている。(特開平6−226267号公報を参照する)  In addition, the purpose is to change the practical functions of raw water such as seawater, river water, groundwater, etc., and to produce improved water useful as agricultural water, washing water, vegetables and other agricultural product preservation water There is a known development project for an apparatus with the purpose of providing an apparatus, and the structure for that purpose is to fill a container with a ceramic ball and a stainless steel ball and allow the raw water to come into contact with the container. . (Refer to JP-A-6-226267)

また、例えば、太陽電池を用いて活性水供給装置の運転制御を行い、農作物へその生育に必要な有用成分を含んだ活性水を自動的に且つ安価に供給することを目的とし、その構成としては、太陽電池からの電力により給水ポンプ又は制御弁を作動させ、水をセラミック型活性水生成装置へ送ると共に、活性水生成装置からの活性水を圃場に設けた活性水供給管へ送り、当該供給管に設けた小孔から農作物の根元へ活性水を定期的に一定時間供給する、農作物への灌水方法が知られている。(特開平5−15266号公報を参照する)  In addition, for example, the operation of the active water supply device is controlled using a solar cell, and the active water containing useful components necessary for its growth is automatically and inexpensively supplied to the crop. Activates the water supply pump or control valve with electric power from the solar cell, sends water to the ceramic type active water generator, and sends the active water from the active water generator to the active water supply pipe provided in the field. An irrigation method for crops is known, in which active water is periodically supplied from the small holes provided in the supply pipe to the roots of the crops for a certain period of time. (Refer to JP-A-5-15266)

ところが、特開2003−70360号公報の果実や野菜類の栽培装置の開発案件に関しては、果実、野菜類の栽培用土壌たる人工土壌に、水パイプ、肥料パイプ及び遠赤外線放射体を設け、遠赤外線放射体により遠赤外線を放射し、水パイプにより水分、肥料、温度までも総合的に管理することを特徴とするが、構造が複雑であったり、水の改質に時間を要したり、改質手段が一種類なので水質改良の種類や幅が少なかったり、改質された水の有効時間が短かったり、改質された水の機能性が少ないという問題点を指摘されている。  However, with regard to the development project of the fruit and vegetable cultivation apparatus disclosed in JP-A-2003-70360, a water pipe, a fertilizer pipe and a far-infrared radiator are provided on the artificial soil that is the soil for growing fruits and vegetables. It is characterized by radiating far infrared rays with an infrared radiator and comprehensively managing moisture, fertilizer, and temperature with a water pipe, but the structure is complicated and it takes time to reform water, It has been pointed out that there are few types and widths of water quality improvement because there is only one reforming means, the effective time of the reformed water is short, and the functionality of the reformed water is low.

また、例えば、特開平6−226267号公報の改良された水を製する装置の開発案件に関しては、容器の中にセラミックス製のボールとステンレス製のボールを充填しこれと原水を接触させることをことを特徴とするが、改質手段が一種類なので水質改良の種類や幅が少なかったり、改質された水の有効時間が短かったり、改質された水の機能性が少ないという問題点を指摘されている。  In addition, for example, regarding the development of an apparatus for producing improved water as disclosed in JP-A-6-226267, a container is filled with ceramic balls and stainless steel balls, and this is brought into contact with raw water. However, since there is only one type of reforming means, there are few types and widths of water quality improvement, the effective time of the reformed water is short, and the functionality of the reformed water is low. It has been pointed out.

また、例えば、特開平5−15266号公報の農作物への灌水方法の開発案件に関しては、太陽電池からの電力により給水ポンプ又は制御弁を作動させ、水をセラミック型活性水生成装置へ送ると共に、活性水生成装置からの活性水を圃場に設けた活性水供給管へ送り、当該供給管に設けた小孔から農作物の根元へ活性水を定期的に一定時間供給することを特徴とするが、構造が複雑であったり、水の改質に時間を要したり、改質手段が一種類なので水質改良の種類や幅が少なかったり、改質された水の有効時間が短かったり、改質された水の機能性が少ないという問題点を指摘されている。  In addition, for example, regarding the development project of the method of irrigating crops in JP-A-5-15266, the water supply pump or the control valve is operated by the electric power from the solar cell, and the water is sent to the ceramic type active water generating device. The active water from the active water generator is sent to the active water supply pipe provided in the field, and the active water is periodically supplied from the small hole provided in the supply pipe to the root of the crop, The structure is complex, it takes time to reform water, there is only one type of reforming means, there are few types and widths of water quality improvement, the effective time of reformed water is short, It has been pointed out that there is little functionality of water.

本発明は、上述した問題を解決するために成されたものであり、灌漑用水、地下水、水道水などの水を、複雑な装置を必要とすることなく、構造が簡単でありながら、水に接触させるだけで確実に水分子や水分子集合体を改変させた水を植物の育成のために提供することを目的とする。The present invention has been made to solve the above-described problems, and water such as irrigation water, ground water, tap water, etc., can be converted into water without requiring a complicated device and with a simple structure. The object is to provide water in which water molecules or water molecule aggregates are reliably modified by simply bringing them into contact for plant growth .

課題を解決するための第1の手段は、果実、野菜、穀類、稲類、人体に有用な菌類などの植物の育成方法であり、所定量の酸化金属または陶磁器の粉体、所定量の魚類の粉体、所定量の植物質の粉体の中から選択した少なくとも2つを所定量の粘土に混練し所定の形状に成型した後に800℃〜1400℃の範囲で焼成することで得られる複合セラミックス体を水に接触させ、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、植物育成方法を提供することである。The first means for solving the problem is a method of growing plants such as fruits, vegetables, grains, rice, fungi useful for the human body, a predetermined amount of metal oxide or ceramic powder, a predetermined amount of fish. A composite obtained by kneading at least two selected from a predetermined amount of vegetable powder and a predetermined amount of vegetable powder into a predetermined amount of clay, molding it into a predetermined shape, and then firing it in the range of 800 ° C. to 1400 ° C. A plant growth method characterized in that a ceramic body is brought into contact with water, and the plant is provided with water in which water molecules or water molecule aggregates are modified by far-infrared radiation action, catalytic action, and combined action. Is to provide.

前記所定量の酸化金属の粉体に関しては、SiO、SiO、AL、Fe、MgO、CaO、TiO、KO、MnO、ZnO、AgO、GeO、GeO、SnO、SnO、Fe、FeO、CuO、などから少なくとも一種を選択して用いるが、または、成分が、SiO、SiO、AL、Fe、MgO、CaO、TiO、KO、MnO、ZnO、AgO、GeO、GeO、SnO、SnO、Fe、FeO、CuO、などから一種以上含まれた陶磁器の粉砕体を粉体にしたものも使用できる。前記酸化金属粉体と前記陶磁器粉体に関しては、夫々単独で用いてもよいし組合わせて用いてもよいが夫々の配合比率に関しては特に制限は設けない。また、前記酸化金属粉体または/および前記陶磁器粉体の粒度に関しては、平均粒径0.1μmから1mmの粉末を用いるのが好ましい。
本発明では、上記各成分の配合割合において、SiOやSiOが90%より多くなると、製品の磁器化温度が高くなり過ぎるので、好ましくなく、また50%より少なくなると、水中への遠赤外線放射量が少なくなり好ましくなく、さらに、SiOまたはSiOが90%より多くなるとクリストバライトの生成による異常膨張があって、磁器に欠陥を生じさせるので好ましくなく、逆にSiOまたはSiOが50%より少なくなると磁器化温度幅が極端に狭くなり好ましくない。
また、ALが30%より多くなると、製品の磁気化温度範囲が狭くなり、好ましくなく、また5%より少なくなると、水中への遠赤外線放射量が少なくなり好ましくない。また、Feが10%より多くなると、製品の磁器化温度が高くなり過ぎるので、好ましくなく、また1%より少なくなると、水中への遠赤外線放射量が少なくなり好ましくない。また、CaOの含有量が、5%より多くなると焼成過程において溶融するので好ましくなく、逆に1%より少なくなると水中におけるカルシウム成分の溶出量が適当でなくなる。また、MgOの含有量が、5%より多くなると焼成過程において溶融するので好ましくなく、逆に1%より少なくなると水中におけるマグネシウム成分の溶出量が適当でなくなる。
The For a given amount metal oxide of the powder, SiO 2, SiO 3, AL 2 O 3, Fe 2 O 3, MgO, CaO, TiO 2, K 2 O, MnO, ZnO, Ag 2 O, GeO, GeO 2 , SnO, SnO 2 , Fe 3 O 4 , FeO, CuO, and the like are used by selecting at least one kind, or the components are SiO 2 , SiO 3 , AL 2 O 3 , Fe 2 O 3 , MgO, Powdered ceramic pulverized body containing at least one of CaO, TiO 2 , K 2 O, MnO, ZnO, Ag 2 O, GeO, GeO 2 , SnO, SnO 2 , Fe 3 O 4 , FeO, CuO, etc. You can also use it. The metal oxide powder and the ceramic powder may be used singly or in combination, but there are no particular restrictions on the mixing ratio. As for the particle size of the metal oxide powder and / or the ceramic powder, it is preferable to use a powder having an average particle size of 0.1 μm to 1 mm.
In the present invention, when SiO 2 or SiO 3 is more than 90% in the blending ratio of the above components, the porcelainization temperature of the product becomes excessively high, which is not preferable, and when it is less than 50% , far infrared rays into water not preferred amount of radiation is reduced, further, SiO 2 or SiO 3 is an abnormality expansion due to the generation of cristobalite becomes more than 90%, it is not preferable because cause defects in porcelain, the SiO 2 or SiO 3 Conversely 50 If it is less than%, the porcelainization temperature range becomes extremely narrow, which is not preferable.
Further, if AL 2 O 3 is more than 30%, the magnetizing temperature range of the product is narrowed, which is not preferable, and if it is less than 5%, the amount of far-infrared radiation into water is reduced, which is not preferable . Further, if Fe 2 O 3 is more than 10%, the porcelain temperature of the product becomes too high, which is not preferable . If it is less than 1%, the amount of far-infrared radiation into water is not preferable . On the other hand, if the CaO content is more than 5%, it is not preferable because it melts in the firing process. Conversely, if the CaO content is less than 1%, the elution amount of the calcium component in water becomes inappropriate. On the other hand, if the MgO content exceeds 5%, it is not preferable because it melts in the firing process. Conversely, if it is less than 1%, the elution amount of the magnesium component in water becomes inappropriate.

前記魚類に関しては、脊椎動物魚類上綱に属する動物の総称をいい、多くは卵生であり、海水・淡水にすみ、種類はきわめて多く、脊椎動物魚類上綱に属する動物の総称をいい、海水・淡水にすみ、種類はきわめて多く、世界で約二万数千種、日本周辺で約三千数百種が知られ、無顎類・軟骨魚類・硬骨魚類に分けられるものをいい、この中から選択して用いればよい。
ただし、前記魚類の成分中には、アルギニン、リジン、ヒスチジン、フェニルアラニン、チロシン、ロイシン、イソロイシン、メチオニン、バリン、アラニン、グリシン、プロリン、グルタミン酸、セリン、トリプトファン、スレオニン、アスパラギン酸、グルタミン、アスパラギン、システイン、等の遊離アミノ酸の中から少なくとも1種が夫々0.1〜10%含有される前記魚類粉体の使用が好ましい。また、前記アミノ酸の中の少なくとも一部が遠赤外線放射体であることが知られていて、本発明ではこれらの作用を組合わせて活用する。
なお、前記魚類粉体に関しては、前記魚類を公知の手段で乾燥した後に、前記乾燥物を公知の手段の粉体化手段によって粉体化すればよく、前記魚類粉体の所定の粒度に関しては、平均粒径0.1μmから1mmの粉末を用いるのが好ましい。また前記魚類粉体に関しては、魚類の中から選ばれた少なくとも1種を、十分に乾燥させた後に所定の粒度の粉末にしたものであることを特徴とする。
As for the fish, it refers to the generic name of the animals belonging to the vertebrate fish upper class, most of them are ovarian, live in seawater and freshwater, and there are very many types, and the generic name of the animals belonging to the vertebrate fish upper class. It is freshwater and has a great variety of species. About 2,000,000 species are known around the world and around 3,000 are known around Japan, and they are classified into jawless, cartilaginous and teleost. Select and use.
However, the components of the fish include arginine, lysine, histidine, phenylalanine, tyrosine, leucine, isoleucine, methionine, valine, alanine, glycine, proline, glutamic acid, serine, tryptophan, threonine, aspartic acid, glutamine, asparagine, cysteine. It is preferable to use the fish powder containing 0.1 to 10% of at least one of free amino acids such as. In addition, it is known that at least a part of the amino acids is a far-infrared emitter , and the present invention utilizes these actions in combination.
Regarding the fish powder , after drying the fish by a known means, the dried product may be pulverized by a pulverizing means of a known means. Regarding the predetermined particle size of the fish powder , It is preferable to use a powder having an average particle size of 0.1 μm to 1 mm. In addition, the fish powder is characterized in that at least one selected from fish is sufficiently dried and made into a powder of a predetermined particle size.

前記所定量の植物質粉体に関しては、シダ植物、種子植物、被子植物、裸子植物、の中から選ばれた少なくとも1種を、十分に乾燥させた後に所定の粒度の粉末にしたものであることを特徴とする。前記シダ植物に関しては、植物界の一門であり、コケ植物と種子植物の間に位置し、無性世代は大形で茎・葉・根に分化するものが多く、減数分裂によって胞子をつくり、世界に約一万種あり、マツバラン・ヒカゲノカズラ・トクサ・シダの四綱に大別でき、これらの中から選択して用いればよい。前記種子植物に関しては、植物界の一門であり、花が咲き、種子を生じる一群を言い、裸子植物と被子植物とに分ける。前記被子植物に関しては、種子植物のうち胚珠が子房に包まれている一群であり、木部は主に導管からなり、最も進化した一群で、高等植物の大部分を占め、双子葉類と単子葉類とに分ける。前記裸子植物に関しては、種子植物中で胚珠が心皮に包まれないで裸出する一群をいい、木部は主に仮導管からなり、一例として、マツ・イチョウ・ソテツなどが知られていて、これらの中から選択して用いればよい。前記双子葉類に関しては、双子葉植物ともいい、前記被子植物のうち、子葉が2個ある植物群のことであり、一例として、ブナ科、タデ科、キク科、ニクズク科、クワ科、モクレン科、シキミ科、クスノキ科、などが知られていて、これらの中から選択して用いればよい。前記単子葉類に関しては、単子葉植物ともいい、前記被子植物のうち、子葉が一枚の場合が多く、茎は髄をもち、不斉中心柱で、通常形成層を欠き、花の各部分は三の倍数からなり、葉は普通細長く平行脈をもち、一例として、ユリ・ラン・イネ・カヤツリグサ・サトイモ・ヤシなどが知られていて、これらの中から選択して用いればよい。
ただし、前記植物質粉体の成分中には、ナトリウム、カリウム、カルシウム、リン、鉄、銅、亜鉛、β−カロテン、ビタミンA群、ビタミンB群、ビタミンC群、ビタミンD群、ビタミンE群、ビタミンH群、ビタミンM群、ビタミンL群、ビタミンK群、ビタミンP群、複合ビタミン、等の成分の中から少なくとも1種が夫々0.1〜10%含有されるものの使用が好ましい。また、前記ミネラル成分の中の少なくとも一部が遠赤外線放射体であることが知られていて、本発明ではこれらの作用を組合わせて活用する。
With respect to the predetermined amount of plant powder, at least one selected from fern plants, seed plants, angiosperms, gymnosperms is sufficiently dried and made into a powder of a predetermined particle size. It is characterized by that. For the fern plant, is a sept of the plant kingdom, located between the moss plants and seed plants, asexual generation are often those that differentiate into stem, leaves, roots in the large, Ri get the spores by meiosis , there is about a million species in the world, can be roughly divided into four rope of Psilotum nudum, Lycopodium, horsetails, ferns, may be used to select from among these. Regarding the seed plant, it is a family of plant kingdoms, and refers to a group of flowers that bloom to produce seeds, which are divided into gymnosperms and angiosperms. The angiosperms are a group of seed plants in which ovules are encased in ovary, and the xylem is mainly composed of ducts, and is the most evolved group, accounting for the majority of higher plants, Divide into monocots. As for the gymnosperm, it refers to a group of ovules that are naked in the seed plant without being wrapped in the heart skin, and the xylem mainly consists of temporary conduits, for example, pine, ginkgo, cycad, etc. are known. These may be selected and used. Regarding the dicotyledon, it is also called a dicotyledonous plant, and is a plant group having two cotyledons among the angiosperms. For example, beechaceae, tadaceae, asteraceae, asteraceae, mulberry, magnolia Family, shikimidae, camphoraceae, etc. are known, and these may be selected and used. As for the monocotyledonous, it is also referred to as a monocotyledonous plant. Of the angiosperms, the cotyledon is often a single cotyledon, the stem has a pith, an asymmetric central pillar, and usually lacks a formation layer, Is composed of multiples of three, and the leaves are usually elongated and have parallel veins. For example, lily, orchid, rice, cyper, taro, and palm are known and can be selected and used.
However, the components of the vegetable powder include sodium, potassium, calcium, phosphorus, iron, copper, zinc, β-carotene, vitamin A group, vitamin B group, vitamin C group, vitamin D group, vitamin E group. It is preferable to use those containing 0.1 to 10% of at least one of components such as vitamin H group, vitamin M group, vitamin L group, vitamin K group, vitamin P group, and complex vitamin. In addition, it is known that at least a part of the mineral component is a far-infrared radiator , and in the present invention, these actions are used in combination.

前記所定量の粘土に関して、例えば粘土は、粘土鉱物とも呼ばれており、岩石・鉱物が風化分解、あるいは変成作用によってできた、きわめて微細な粒子の集合体であり、一般的には平均粒径5μm未満のものをいうが、成分が、SiO、SiO、AL、Fe、MgO、CaO、TiO、KO、MnO、ZnO、AgO、GeO、GeO、SnO、SnO、Fe、FeO、CuO、などから一種以上含まれたタイプであれば何を用いても構わないが、例えば成分及び構成比が、SiOまたは/およびSiO50〜90%、AL5〜30%、Fe1〜10%、MgO1〜5%、CaO1〜5%であるタイプを用いるのが好ましいが、一般的に市販されている粘土を使用してもよい。また、使用する粘土の所定量に関しては、50〜90%の範囲で使用可能である。Regarding the predetermined amount of clay, for example, clay is also called a clay mineral, and is an aggregate of extremely fine particles formed by weathering decomposition or metamorphism of rocks and minerals. The component is less than 5 μm, and the components are SiO 2 , SiO 3 , AL 2 O 3 , Fe 2 O 3 , MgO, CaO, TiO 2 , K 2 O, MnO, ZnO, Ag 2 O, GeO, GeO 2. Any type may be used as long as it contains at least one of Sn, SnO 2 , SnO 2 , Fe 3 O 4 , FeO, CuO, and the like. For example, the component and the composition ratio may be SiO 2 or / and SiO 3 50. ~90%, AL 2 O 3 5~30 %, Fe 2 O 3 1~10%, MgO1~5%, it is preferred to use a type which is CaO1~5%, generally commercially available clay It may be use. Moreover, about the predetermined amount of the clay to be used, it can be used in 50 to 90% of range.

前記所定量の粉体を所定量の粘土に混練する手段に関しては、一般的に用いられている粘土用のミキサーまたは高粘性物質対応の混練装置を用いればよい。
また、本発明の複合セラミックス体を構成する、酸化金属粉体、動物質粉体、植物質粉体、粘土、の構成比としては、夫々1〜30%:0〜20%:0〜20%:50〜80%での使用が好ましい。また、前記酸化金属粉体の比率が、1%以下では本発明の効果は期待できず、30%以上では製品の磁器化温度が高くなり過ぎるので、好ましくない。また、前記動物質粉体の比率が、20%以上では磁器に欠陥を生じさせ易いので好ましくない。また、前記植物質粉体の比率が、20%以上では磁器に欠陥を生じさせ易いので好ましくない。さらに、前記粘土の比率が、50%以下では磁器化温度幅が極端に狭くなり好ましくなく、80%以上では本発明の効果は期待できず好ましくない。
As a means for kneading the predetermined amount of powder into the predetermined amount of clay, a commonly used mixer for clay or a kneading apparatus for high viscosity substances may be used.
Moreover, as composition ratios of the metal oxide powder, the dynamic substance powder, the vegetable powder and the clay constituting the composite ceramic body of the present invention, 1-30%: 0-20%: 0-20%, respectively. : Use at 50 to 80% is preferable. Further, if the ratio of the metal oxide powder is 1% or less, the effect of the present invention cannot be expected, and if it is 30% or more, the porcelain temperature of the product becomes too high, which is not preferable. Further, if the ratio of the moving substance powder is 20% or more, it is not preferable because defects are easily generated in the porcelain. Further, if the ratio of the vegetable powder is 20% or more, it is not preferable because defects are easily generated in the porcelain. Furthermore, when the ratio of the clay is 50% or less, the porcelainization temperature range becomes extremely narrow, which is not preferable. When the ratio is 80% or more, the effect of the present invention cannot be expected, which is not preferable.

前記混練物を所定の形状に成型することに関しては、まず、前記所定の形状に関しては、球体、円柱体、方体、筒状体、ペレット状、ブロック状、タブレット状、ドーナッツ状、円板状、角板状、輪型等いずれの形状で成型すればよい。
また、前記成型物を焼成することに関しては、800℃〜1400℃の範囲で加熱できれば一般的に知られた加熱手段を用いればよい。本発明の複合セラミックス体は、上述した手段で得ることができる。さらに、本発明の複合セラミックス体は、1100℃〜1400℃の範囲で焼成することが好ましい。
Regarding molding the kneaded product into a predetermined shape, first, regarding the predetermined shape, a sphere, a cylinder, a cuboid, a cylinder, a pellet, a block, a tablet, a donut, a disk The shape may be any shape such as a square plate shape or a ring shape.
Regarding the firing of the molded product, a generally known heating means may be used as long as it can be heated in the range of 800 ° C to 1400 ° C. The composite ceramic body of the present invention can be obtained by the means described above. Furthermore, the composite ceramic body of the present invention is preferably fired in the range of 1100 ° C to 1400 ° C.

前記遠赤外線放射作用に関しては、赤外線は波長0.75〜4.0μmの近赤外線と、波長4.0〜14.0μmの遠赤外線とに、波長により区分される。遠赤外線は、近赤外線に比べ光子エネルギーは小さいが浸透力が強く、生体内部にまで到達し加温する。物体は外部から種々の形でエネルギーを受け、これをまた種々の形で外部に放射しているが、このうち遠赤外線を多く放射するものが遠赤外線放射体であり、植物や人体などの生命体に有益な作用があることが一般的に知られている。なお、前記酸化金属の粉体の中の少なくとも一部、前記陶磁器の粉体の中の少なくとも一部、前記粘土の中の少なくとも一部、前記魚類の粉体の中の少なくとも一部、前記植物質の粉体の中の少なくとも一部が遠赤外線放射体であることが知られていて、本発明ではこれらの中の作用を組合わせて活用することが好ましいRegarding far-infrared radiation action, infrared rays are classified into near infrared rays having a wavelength of 0.75 to 4.0 μm and far infrared rays having a wavelength of 4.0 to 14.0 μm. Far-infrared rays have smaller penetrating power than near-infrared rays, but have strong penetrating power and reach the inside of a living body to be heated. Objects receive energy in various forms from the outside, and radiate them to the outside in various forms. Of these, those that radiate far-infrared rays are far-infrared radiators, such as plants and human bodies. It is generally known that there are beneficial effects on the body. At least a part of the metal oxide powder, at least a part of the ceramic powder, at least a part of the clay, at least a part of the fish powder, the plant It is known that at least a part of the quality powder is a far-infrared radiator, and in the present invention, it is preferable to use a combination of these actions.

前記触媒作用に関しては、本発明で用いる酸化金属の多くが触媒作用を持つことが公知であり、本発明の複合セラミックス体はこの触媒作用が強化されることが実験室内で示され、その間接的証明は、水分子の集合体は小さいほど水を改変させることが知られており、本発明の複合セラミックス体に接触した水に電離作用が生じ、この電離作用によって、水素結合による水分子の集合体はより小さな水分子の集合体に変化する。Regarding the catalytic action, it is known that many of the metal oxides used in the present invention have a catalytic action, and the composite ceramic body of the present invention has been shown in the laboratory to enhance this catalytic action. It is known that the smaller the aggregate of water molecules, the more the water is modified, and the ionization action occurs in the water in contact with the composite ceramic body of the present invention. The body turns into a collection of smaller water molecules.

前記複合作用に関しては、本発明が前記遠赤外線放射作用や前記触媒作用が水や水分や水分子に同時に作用することが発明者によって見出された。
上述された、水分子または水分子集合体に改変を生じさせた水に関しては、自然界に置いては水分子が液体中では単独で存在する事は稀であり、水分子同士が水素結合によりグループまたは塊のような状態になって存在していることが一般的に知られていて、さらにこのような水分子集合体の機能性は水分子集合体の大きさによることが一般的に知られるようになってきて水分子集合体の大きさを変化させるためには、水分子同士の結合手段である水素結合を切断または分離させたりする必要があり、そのための化学的または物理的エネルギーが必要になる。そこで、本発明では、前記遠赤外線放射作用や前記触媒作用などの物理的作用や化学的作用を複合化させた前記複合作用によって水分子同士の水素結合を切断または分離させることで、水分子の集合 体が小さくなることを見出したことで、本発明は成された。
With regard to the combined action, the inventors have found that the far-infrared radiation action and the catalytic action of the present invention simultaneously act on water, moisture and water molecules.
With regard to the above-described water in which water molecules or water molecule aggregates have been modified , water molecules rarely exist alone in a liquid in nature, and water molecules are grouped by hydrogen bonding. It is generally known that it exists in the form of a lump, and it is generally known that the functionality of such a water molecule assembly depends on the size of the water molecule assembly. In order to change the size of water molecule aggregates, it is necessary to break or separate hydrogen bonds, which are the means for bonding water molecules, and the chemical or physical energy for that purpose must be reduced. I need it. Therefore, in the present invention, water bonds between water molecules are cleaved or separated by the combined action in which the physical action and chemical action such as the far infrared radiation action and the catalytic action are combined. The present invention has been made by finding that the aggregate becomes small .

上述したような水分子の集合体が小さくなった水が、果実、野菜、穀類、稲類、人体に有用な菌類などの植物の細胞への浸透性や栄養分の溶解性や殺菌性が向上することを本願発明者は見出し、上述した手段で得られた水を前記植物の水分として提供することと、前記植物の環境を改善することの手段(例えば、人体に有害な農薬や土壌を疲弊させる化学肥料を減少させる)として用いることで、前記植物の育成方法として最良であることを見出したのである。 The water aggregates of water molecules as described above becomes small, fruits, vegetables, cereals, rice acids, soluble and bactericidal permeability and nutrients into plant cells such useful fungi in a human body to improve The inventor of the present application has found that the water obtained by the above-mentioned means is provided as the moisture of the plant , and means for improving the environment of the plant (for example, exhausting agricultural chemicals and soil harmful to the human body) It was found that it is the best method for growing the plant by using it as a chemical fertilizer.

課題を解決するための第2の手段は、前記複合セラミックス体を圃場や植物育成用建造物に配設したパイプまたはチューブの形状に合わせて形成させ内部の壁面が立体形状になるように形成した容器体または筒状体に充填し、前記容器体または筒状体を前記パイプまたはチューブの所定の位置に着脱可能な手段で接続することを特徴とする、課題を解決するための第1の手段に記載の植物育成方法を提供することである。The second means for solving the problem is that the composite ceramic body is formed in accordance with the shape of a pipe or tube disposed in a field or a plant growing structure, and the inner wall surface is formed in a three-dimensional shape. A first means for solving the problem, characterized in that a container body or a cylindrical body is filled, and the container body or the cylindrical body is connected to a predetermined position of the pipe or tube by a detachable means. It is providing the plant cultivation method as described in.

前記複合セラミックス体に関しては、本明細書で記述した手段で作製すればよく、形状に関しては、本明細書で記述した手段の中から選択すればよい。
前記容器体または筒状体に関しては、金属性でもプラスチック製でもセラミック製でもよくこれらの中から選択して用いればよい。また、前記容器体または筒状体の内部の形状に関しては任意で構わない。また、圃場や植物育成用建造物に配設したパイプまたはチューブの形状や位置に合わせて形成させるほうが好ましい場合もある。
The composite ceramic body may be produced by the means described in this specification, and the shape may be selected from the means described in this specification.
The container body or the cylindrical body may be metallic, plastic, or ceramic, and may be selected from these. Further, the inner shape of the container body or cylindrical body may be arbitrary. In some cases, it may be preferable to form the pipe or tube according to the shape or position of the field or the plant growing structure.

課題を解決するための第3の手段は、前記複合セラミックス体を粉体手段により粉体化し、前記粉体を粘土に混練し内部が任意の形状の容器体または筒状体に成型した後に800℃〜1400℃の範囲で焼成したり、前記粉体を合成樹脂に混練し内部が任意の形状の容器体または筒状体に成型し、前記容器体または筒状体の内部に水を接触させることで、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、課題を解決するための第1の手段または課題を解決するための第2の手段に記載の植物育成方法を提供することである。A third means for solving the problem is that the composite ceramic body is pulverized by powder means, the powder is kneaded with clay, and the inside is molded into a container body or cylindrical body having an arbitrary shape. Baked at a temperature in the range of 1 ° C to 1400 ° C, or the powder is kneaded with a synthetic resin and molded into a container body or cylindrical body having an arbitrary shape, and water is brought into contact with the interior of the container body or cylindrical body. In order to solve the problems, the present invention provides the plant with water in which water molecules or water molecule aggregates are modified by far-infrared radiation, catalysis, and combined action. The object is to provide a plant growing method according to the second means for solving the problem.

前記粉体を粘土に混練し内部が任意の形状の容器体または筒状体に成型することに関しては、例えば前記粉体を粘土の中に混練させ所定の形状に成形した後に焼成したり、例えば前記粉体に所定量の無機系または有機系バインダーを混入し混練させ所定の形状に成形した後に焼成したり、また例えば前記粉体を合成樹脂モノマーに混練させ所定の形状になるような型に入れ重合または硬化させる手段や、例えば前記粉体を熱可塑性樹脂チップや粉体に混入し所定の形状になるよう設けた型を用いて、押出し成型やバルーン成型や真空成型などの手段の中から選択して用いればよい。
前記容器体または筒状体の内部の形状に関しては任意で構わない。もしくは、圃場や植物育成用建造物に配設したパイプまたはチューブの形状や位置に合わせて形成させるほうが好ましい場合もある。
前記内部が任意の形状の容器体または筒状体に成型することに関しては、前記容器体または筒状体内部の壁面が平面でも立体形状でも構わない。
With regard to kneading the powder into clay and molding the inside into a container or cylindrical body having an arbitrary shape , for example, the powder is kneaded into clay and shaped into a predetermined shape and fired, The powder is mixed with a predetermined amount of an inorganic or organic binder, kneaded and molded into a predetermined shape, and then fired, or, for example, the powder is kneaded with a synthetic resin monomer into a predetermined shape From means such as extrusion molding, balloon molding, vacuum molding, etc., using means for placing and polymerizing or curing, for example, using a mold in which the powder is mixed with a thermoplastic resin chip or powder to form a predetermined shape Select and use.
The inner shape of the container body or cylindrical body may be arbitrary. Alternatively, it may be preferable to form it according to the shape or position of a pipe or tube disposed in a farm field or a plant growing structure.
With respect to the interior molded into a container body or the cylindrical body of arbitrary shape, the container body or the tubular body inside the wall surface may be a three-dimensional shape in a plane.

課題を解決するための第4の手段は、所定量の酸化金属または陶磁器の粉体、所定量の魚類の粉体、所定量の植物質の粉体の中から選択した少なくとも2つを所定量の粘土に混練し、前記混練物を内部が任意の形状の容器体または筒状体に成型した後に800℃〜1400℃の範囲で焼成し、前記容器体または筒状体の内部に水を接触させることで、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、課題を解決するための第1の手段から課題を解決するための第3の手段のいずれかに記載の植物育成方法を提供することである。A fourth means for solving the problem is that a predetermined amount of at least two selected from a predetermined amount of metal oxide or ceramic powder, a predetermined amount of fish powder, and a predetermined amount of vegetable powder. Kneaded into clay, and after the kneaded product is molded into a container or cylindrical body having an arbitrary shape, it is baked in the range of 800 ° C. to 1400 ° C., and water is brought into contact with the inside of the container body or cylindrical body First, to solve the problem, characterized in that the plant is provided with water in which water molecules or water molecule aggregates have been modified by far-infrared radiation action, catalytic action, and combined action. It is to provide the plant growing method according to any one of the third means for solving the problem from the means.

前記容器体または筒状体の形状に関しては任意で構わない。もしくは、圃場や植物育成用建造物に配設したパイプまたはチューブの形状や位置に合わせて形成させるほうが好ましい場合もある。
前記容器体または筒状体の内部の形状に関しては、前記内部の壁面が平面でも立体形状でも構わない。
The shape of the container body or cylindrical body may be arbitrary. Alternatively, it may be preferable to form it according to the shape or position of a pipe or tube disposed in a farm field or a plant growing structure.
Regarding the internal shape of the container body or cylindrical body, the inner wall surface may be flat or three-dimensional.

本発明の植物育成方法を用いることにより、以下に述べる効果を有する。By using the plant growing method of the present invention, the following effects are obtained.

本発明によって、前記植物への水分提供手段の途中に容易に脱着可能に装着できるにも係らず濯漑用水、地下水、水道水などに短時間接触させるだけで、触媒効果による電離効果により水分子の集合体が小さくなることで水分子の活性度が向上することで、殺菌性の高い水や有機物を分解する能力を向上させた水に成すことを可能になり、このような水を前記植物に提供することにより、前記植物に必要な水分や栄養分の溶解度が向上した水や水分子が前記植物の細胞への浸透が速やかに行なわれることで、前記植物の育成に貢献するを提供できる。According to the present invention, water molecules can be obtained by the ionization effect due to the catalytic effect just by making contact with irrigation water, ground water, tap water, etc. for a short time, although it can be easily detachably installed in the middle of the means for providing moisture to the plant . by assembly of improved water molecules in activity by smaller, allowing it to form the water to improve the ability to resolve bactericidal highly water and organic matter, said plant such water It can be provided by providing, by the water or water molecules with improved solubility of water and nutrients necessary for plant penetration into cells of said plant is quickly done, the water that contribute to growth of the plants .

また、本発明による水前記植物またはその周辺に散布することにより、表1および表3に示すとおりの殺菌性を発揮することで前記植物への病害虫の障害を低減させることが可能になり、その上で上述した発明のとの相乗効果によって前記植物の育成に貢献するばかりでなく、従来の前記植物への病害虫の障害を低減させる手段が人間環境へ与えていた弊害を低減させることも可能になる。In addition, by spraying the water according to the present invention on the plant or its periphery, it becomes possible to reduce the damage of the pests to the plant by exhibiting bactericidal properties as shown in Table 1 and Table 3, In addition to contributing to the growth of the plant by a synergistic effect with the above-described invention, it is also possible to reduce the harmful effects of the conventional means for reducing pest damage to the plant on the human environment. become.

また、上述した発明の効果に加えて、本発明によって前記植物への水分提供手段の途中に容易に脱着可能に装着できるにも係らず灌漑用水、地下水、水道水などに短時間接触させるだけで、図2のグラフに示すとおり、6.0〜14.0μmの波長が多く出ていることが明白であり、特に遠赤外線の中でも、4.0〜14.0μmの波長は「育成光線」と呼ばれており、水を浄化したり、細胞を活性化させ成長させる効果があることが一般的に知られていることから、このような水を前記植物に提供することにより、前記植物の細胞への水分子の浸透が速やかに行なわれることと相まって、前記作物の育成に貢献できる。Moreover, in addition to the effects of the invention described above, the present invention can be easily detachably mounted in the middle of the means for providing moisture to the plant , but it can be simply brought into contact with irrigation water, groundwater, tap water, etc. for a short time. As shown in the graph of FIG. 2, it is clear that many wavelengths of 6.0 to 14.0 μm are emitted, and the wavelength of 4.0 to 14.0 μm is particularly “farming light” among far infrared rays. and called by, or purifying water, since it is effective in the cell with activated growth are generally known, by providing such water to the plant, cells of said plant Combined with the rapid penetration of water molecules into the plant, it can contribute to the cultivation of the crop.

さらに、9.5μm前後の波長は、雑菌の繁殖を抑制させる効果があることも一般的に知られているが、図2のグラフより、本発明の前記複合セラミックス体は9.5μm前後の波長が比較的多く出ていることから、本発明による水を前記植物またはその周辺に散布することにより、前記植物への病害虫の障害を低減させることが可能になり前記植物の育成に貢献するばかりでなく、従来の前記植物への病害虫の障害を低減させる手段が人間環境に弊害を与えていたことに関しても弊害を低減させることが可能になる。Furthermore, although it is generally known that a wavelength of around 9.5 μm has an effect of suppressing the propagation of various germs, from the graph of FIG. 2, the composite ceramic body of the present invention has a wavelength of around 9.5 μm. Therefore, by spraying water according to the present invention on or around the plant, it is possible to reduce pest damage to the plant and contribute to the growth of the plant. In addition, it is possible to reduce the harmful effects of the conventional means for reducing the damage of the pests on the plant that are harmful to the human environment.

また、上述した発明の効果に加えて、本発明によって、前記植物への水分補給手段であり圃場や植物育成用建造物に配設したパイプまたはチューブの中を通過する水中の導電率・塩化イオン・金属イオン・硬度等の値を下げることができると共に、錆の溶出(遊行)を止める(不動態処理)ことができ、スケール・腐食・スライムを溶解や剥離が可能になることで、前記パイプまたはチューブなどの配管のトラブルが減少することで、圃場や植物育成用建造物の運営効率を高めることができると共に、前記パイプまたはチューブなどの配管の寿命が延びることで、経済的に有利な手段を提供できる。Further, in addition to the effect of the invention described above, the present invention allows hydration means a is the water that passes through the pipe or tube which is disposed in the field and for cultivating plant buildings conductivity-chloride ions into said plant・ The value of metal ions, hardness, etc. can be lowered, leaching (traveling) of rust can be stopped (passivation treatment), and scale, corrosion, slime can be dissolved and peeled off. Or, by reducing troubles in piping such as tubes, it is possible to increase the operational efficiency of fields and plant growing structures, and to extend the life of piping such as pipes or tubes, which is an economically advantageous means. Can provide.

また、上述した発明の効果に加えて前記触媒効果による電離効果により水分子の集合体が小さくなることで水分子の活性度が向上することで、殺菌性の高い水や有機物を分解する能力を向上させた水に成すことを可能になり、このような水に前記植物の種子を浸漬すると、前記種子に必要な水分や栄養分の溶解度が向上した水や水分子が前記種子の細胞への浸透が速やかに行なわれることで、前記水または水道水中での浸漬よりも発芽率を向上させることができる。Further, in addition to the effects of the invention described above, the ability of decomposing water and organic matter with high bactericidal properties is improved by increasing the activity of water molecules by reducing the aggregate of water molecules due to the ionization effect due to the catalytic effect. When the seeds of the plant are immersed in such water, water and water molecules with improved solubility of water and nutrients necessary for the seeds are introduced into the cells of the seeds. When the infiltration is performed quickly, the germination rate can be improved as compared with the immersion in the water or tap water.

また、上述した発明の効果に加えて本発明によって得られた水に前記植物を浸漬したり、本発明によって得られた水を前記植物に噴霧すると前記植物、例えば、切花、野菜、果物などの新鮮度を長期間にわたり、維持することが可能になる。In addition to the effects of the invention described above, when the plant is immersed in the water obtained by the present invention or when the water obtained by the present invention is sprayed on the plant , the plant , for example, cut flowers, vegetables, fruits, etc. Can be maintained for a long time.

また、本発明によって得られた水から放射される遠赤外線によって、青果物の水分子が活性化して成長を促進することができると共に糖度を上昇させることが可能になる。In addition, the far-infrared rays emitted from the water obtained according to the present invention can activate water molecules of fruits and vegetables to promote growth and increase sugar content.

また、本発明によって得られた水から放射される遠赤外線によって、青果物の鮮度が上げることができるばかりか、青果物の品質及び味覚の向上を図ることができる。Further, the far-infrared rays radiated from the water obtained by the present invention can not only improve the freshness of fruits and vegetables, but also improve the quality and taste of fruits and vegetables.

また、本発明によって得られた水を、前記植物またはその周辺に散布することにより、前記植物の周辺の耕土にも供給されることになり、耕土内の有用な微生物の活動等が活発になると共に、前記植物の根へ酸素を十分に供給することが可能になることで、前記作物が活性化される。Moreover, by spraying the water obtained by the present invention on the plant or its surroundings, the water is also supplied to the cultivated soil around the plant , and the activity of useful microorganisms in the cultivated soil becomes active. At the same time, the crop can be activated by sufficiently supplying oxygen to the roots of the plant .

また、本発明によって得られた水のpHは、原水のpHと比較しても若干中性に近づく程度で、酸またはアルカリに変化させた水ではないので、前記植物への影響や前記植物への配水手段または配水施設に対して酸化や腐食による寿命の低下や破壊性が低く、配水手段または配水施設の変更作業が最小限に抑えられることで、本発明の利用者の経済的メリットは大きい。Further, pH of the water obtained by the present invention, a degree approaching slightly neutral as compared with the pH of the raw water, there is no water was changed to acid or alkali, to the plants impact on and the plant The water supply means or water distribution facilities of the present invention are less likely to have a reduced life or damage due to oxidation or corrosion, and the change work of the water distribution means or water supply facilities is minimized, so that the economic advantage of the user of the present invention is great. .

また、本発明は電源が不要であり、前記植物の育成のための施設内の配管の所定の部位を切断して本発明を接続するか前記配管の任意の部位に挿入し通水させるだけで、本発明の効果を発揮することが可能になるので、使用現場を限定せず設置場所を選ばないという点によって本発明の利用性が大幅に向上する。In addition, the present invention does not require a power source, and it is possible to connect the present invention by cutting a predetermined part of the piping in the plant for growing the plant or to insert the water into any part of the piping and allow water to pass therethrough. Since the effect of the present invention can be exhibited, the usability of the present invention is greatly improved by the fact that the place of use is not limited and the installation location is not selected.

また、本発明を用いて育成した、野菜や果物の販売の現場で、取扱い業者から種々の報告を受けている。例えば、野菜や果物や菌類の卸業者である、株式会社松崎屋(新潟市上所)の代表者山田氏からは、野菜や果物の日持ちが長くなった、果物類の糖度が向上したり酸味とのバランスが向上した、菌類の旨味が向上したことによって、近年では本発明の水で育成した前記作物がブランド化し始めるようになり、従来に比べて高価格で販売できるようになった、という報告を受けている。  In addition, various reports have been received from dealers at the sales site of vegetables and fruits grown using the present invention. For example, Mr. Yamada, representative of Matsuzakiya Co., Ltd., Niigata City, which is a wholesaler of vegetables, fruits and fungi, has improved the sugar content of fruits and sourness. In recent years, the crops grown with the water of the present invention have begun to be branded, and can now be sold at a higher price than before. I have received a report.

また、本発明を導入した、野菜やタバコや果物の育成農家である中村岩一郎氏(新潟県中条町築地新)より、例えば、トマトに関しては、食味が向上、糖度が向上、酸味とのバランスが向上し、タバコに関しては、病気が発生しにくくなった、塩害の被害が減少した、アスパラの食味が向上したりしなやかな感じになったり、葡萄に関しては、ベトやウドンコ病の被害が減少し、食味や糖度が向上したという報告を受けた。  In addition, from Mr. Ichiro Nakamura (Nakagata Town, Tsukiji Shin), a farmer of vegetables, tobacco and fruits that introduced the present invention, for example, with regard to tomatoes, the taste is improved, the sugar content is improved, and the acidity The balance is improved, with regard to tobacco, diseases are less likely to occur, damage from salt damage has been reduced, the taste of asparagus has been improved and it has a supple feel, and damage to beet and powdery mildew has been reduced with respect to strawberries. And received reports that the taste and sugar content had improved.

また、本発明を導入した新潟県内の各種キノコ類の栽培農家からも報告がきており、従来、雑菌やバクテリア対策に莫大なコストが生じていたが、キノコ栽培における加湿水や培地のミキサー工程で本発明を用いることで、シュードモナス属やクラドボトリウムなどに起因する感染症を減少させる効果がある。
また、本発明の効果が顕著であることで、農協主催による本発明の納入先への見学会も行なわれている産地もあるという報告も受けている。
In addition, a variety of mushroom cultivation farmers in Niigata Prefecture that introduced the present invention have been reported, and heretofore, enormous costs have been incurred in combating bacteria and bacteria, but in the mixing process of humidified water and medium in mushroom cultivation By using the present invention, there is an effect of reducing infectious diseases caused by Pseudomonas sp.
In addition, due to the remarkable effect of the present invention, it has been reported that there are production areas where tours to the delivery destination of the present invention sponsored by agricultural cooperatives are also being held.

以下に、本発明の植物育成方法を、図面に基づいて詳細に説明する。尚、図2は、本発明による遠赤外線の測定結果を示すグラフであり、図3は、本発明による遠赤外線の測定結果を示すグラフである。 Below, the plant cultivation method of this invention is demonstrated in detail based on drawing. FIG. 2 is a graph showing the far-infrared measurement results according to the present invention, and FIG. 3 is a graph showing the far-infrared measurement results according to the present invention.

本発明の複合セラミックス体は、水道水をこの複合セラミックス体に接触させるだけで、水分子または水分子集合体に遠赤外線を放射したり水分子集合体の大きさや形状を改変させる作用を有していることを見出され、本発明に至った。The composite ceramic body of the present invention has an action of emitting far-infrared rays to a water molecule or a water molecule aggregate or modifying the size and shape of the water molecule aggregate simply by bringing tap water into contact with the composite ceramic body. As a result, the present invention has been achieved.

成分及び構成比が、SiOが60%、ALが10%、Feが1%、MgOが1%、CaOが1%である、酸化金属粉体200gと、カニの乾燥体を粉末にしたものを50gと、杉の葉の乾燥体を粉末にしたものを50gを、粉体用のミキサーで約5分くらい混合し、この混合粉体と一般的に市販されている陶芸用の粘土600gと水100gを粘土用のミキサーで約30分くらい混練した後に、この混練物を任意の形状の成型体やペレット状(例えば、直径10mm、高さ10mmの円筒状)に成型し24時間自然乾燥させた後に、約1,000℃で12時間焼成し、自然冷却させ製品とする。この複合セラミック体を水道水を通過できるようにした金属筒状体(直径50mm、長さ2,000mmのステンレス製パイプ体)の内部に装着することで、水道水をこの複合セラミック体に接触させるような構造にするが、前記複合セラミック体を筒状体に設置する手段や筒状体の形状や水道水の水圧や水量は限定しない。以上の組成と構造を踏まえた上で、さらに本発明の複合セラミックス体の実施例及びその実験について説明を行う。200 g of metal oxide powder having components and composition ratios of SiO 3 of 60%, AL 2 O 3 of 10%, Fe 2 O 3 of 1%, MgO of 1% and CaO of 1%, and drying of crabs 50 g of powdered body and 50 g of dried cedar leaf powder are mixed for about 5 minutes with a powder mixer, and this mixed powder is generally commercially available. After kneading 600 g of clay for ceramics and 100 g of water with a clay mixer for about 30 minutes, this kneaded product is molded into a molded body or pellet of any shape (for example, a cylinder with a diameter of 10 mm and a height of 10 mm). After 24 hours of natural drying, the product is baked at about 1,000 ° C. for 12 hours and naturally cooled to obtain a product. By mounting this composite ceramic body inside a metal cylindrical body (a stainless steel pipe body having a diameter of 50 mm and a length of 2,000 mm) that allows passage of tap water, tap water is brought into contact with the composite ceramic body. However, the means for installing the composite ceramic body on the cylindrical body, the shape of the cylindrical body, the water pressure and the amount of tap water are not limited. Based on the above composition and structure, examples and experiments of the composite ceramic body of the present invention will be described.

前記複合セラミック体を水道水を通過できるようにした金属筒状体に充填し、この金属筒状体を農地に配設した給水パイプの所定の位置に着脱可能な手段で接続し農作物の育成用水として用いる。  The composite ceramic body is filled in a metal cylinder that allows passage of tap water, and the metal cylinder is connected to a predetermined position of a water supply pipe disposed on the farmland by means of detachable means, and water for growing crops Used as

実験1Experiment 1

実施例1の筒状体に、水道水を1,000ml/5secの流量で接触させた処理水1,000mlの保存試験を行なった。その結果を表1に示す。
測定機関:株式会社江東微生物研究所(東京都江戸川区)
検査所 :福島県郡山市
検査方法:細菌学的検査(食品衛生検査指針準拠)

Figure 0004873214
本発明に従った複合セラミック体は、水と接触させることにより、水を容易に「まろやかな美味しい味」に変化させるだけでなく、一定期間安全な状態を保つことができた。なお、これらの処理水は、いずれも、水質基準に関する省令(昭和53年厚生省令第56号)に従った水質検査により、水質基準に適合することがわかっている。A preservation test of 1,000 ml of treated water in which tap water was brought into contact with the cylindrical body of Example 1 at a flow rate of 1,000 ml / 5 sec was performed. The results are shown in Table 1.
Measuring organization: Koto Institute for Microbiology (Edogawa-ku, Tokyo)
Inspection laboratory: Koriyama City, Fukushima Inspection method: Bacteriological inspection (Food hygiene inspection guidelines)
Figure 0004873214
The composite ceramic body according to the present invention not only easily changed the water to a “mellow and delicious taste” by contacting with water, but also maintained a safe state for a certain period of time. In addition, all of these treated waters are known to meet the water quality standards by water quality inspections according to the ministerial ordinance on water quality standards (Ministry of Health and Welfare Ordinance No. 56 of 1978).

実験2Experiment 2

また、本発明の複合セラミックス体は、遠赤外線セラミックスと言うことができるもので、前記酸化金属粉体を成型して焼成させたものや、前記陶磁器粉体を成型して焼成させたものや、前記粘土を成型して焼成させたものや、これらを任意に組合わせたものに関しては、遠赤外線セラミックスと言うことができ、その特性として、光波放射能力(その波長は約4〜14μmの遠赤外線)を有するほか、非常に強い電磁波(エネルギー量が約0.056〜0.2ev,周波数60MHzで即ち一秒間に64万の振動数)を有し、前記筒状体の複合セラミック体に水道水が通過する時に、複合セラミックス体が水の分子と共振共鳴効果を発生して水分子を活性化させるものとする。  Further, the composite ceramic body of the present invention can be called far-infrared ceramics, and the metal oxide powder is molded and fired, the ceramic powder is molded and fired, The clay molded and baked, or any combination of these, can be called far infrared ceramics, and its characteristics include light wave radiation ability (having a wavelength of about 4 to 14 μm far infrared rays). ) And a very strong electromagnetic wave (energy amount is about 0.056 to 0.2 ev, frequency is 60 MHz, that is, frequency of 640,000 per second), and the cylindrical composite ceramic body has tap water. It is assumed that the composite ceramic body activates the water molecule by generating a resonance resonance effect with the water molecule when passing through.

実験3Experiment 3

実施例1の複合セラミックス体が、遠赤外線セラミックスまたは遠赤外線放射体であるかどうかを測定する。
測定機関:遠赤外線応用研究所(大阪氏中央区)
測定資料:本発明の円柱セラミックス
測定機種:JIR−E500(AMPGAIN:×32)
測定温度:試料表面の温度25℃(TEMP:25℃)
測定条件:分解能1/16cm、積算回数200回(SCANS:200)、検知器MCT(S.SPEED:MCT)。
測定方法:フーリエ変換型赤外線分光光度計(FTIR)で測定する。遠赤外線放射体の測定モデルとしての黒体と試料としての実施例1の複合セラミックス体を同一温度に保ち、波長4.0〜14.0μの両者の放射スペクトルを測定し、試料の放射度と黒体の放射度の比の放射率を記録し、図2と図3のグラフにする。
It is measured whether the composite ceramic body of Example 1 is a far-infrared ceramic or a far-infrared radiator.
Measuring organization: Far-Infrared Applied Research Laboratory (Osaka, Chuo-ku)
Measurement data: cylindrical ceramics of the present invention Measurement model: JIR-E500 (AMPGAIN: x32)
Measurement temperature: sample surface temperature 25 ° C. (TEMP: 25 ° C.)
Measurement conditions: 1/16 cm resolution, 200 integrations (SCANS: 200), detector MCT (S. SPEED: MCT).
Measuring method: Measured with a Fourier transform infrared spectrophotometer (FTIR). The black body as the measurement model of the far-infrared radiator and the composite ceramic body of Example 1 as the sample are kept at the same temperature, and both emission spectra at wavelengths of 4.0 to 14.0 μ are measured. Record the emissivity of the blackbody emissivity ratio, and plot it in the graphs of FIGS.

図2のグラフについて、G1は黒体の遠赤外線の放射強度の状態を示す曲線であり、G2は前記試料の遠赤外線の放射強度の状態を示す曲線であり、横軸目盛は測定波長数(単位:μ:ミクロン)で、24μmまでの範囲を示している。
縦軸目盛は放射エネルギーの強さで、1平方cm当たりのW数で示している。
なお、「黒体」とは、入射する光を100%吸収し、エネルギー放射能力が最大の物体のことであり、理論的には黒体よりも大きい放射能力を示すものはない。
即ち、2本の曲線のうち、黒体の曲線はG1であり、「試料」の曲線G2は試料の放射強度を示すグラフで、黒体の曲線に近接しているほど放射能力が高いことを示している。
In the graph of FIG. 2, G1 is a curve showing the state of the far-infrared radiation intensity of the black body, G2 is a curve showing the state of the far-infrared radiation intensity of the sample, and the horizontal axis scale is the number of measured wavelengths ( (Unit: μ: micron), and the range up to 24 μm is shown.
The vertical axis scale is the intensity of radiant energy, and is indicated by the number of watts per square centimeter.
The “black body” means an object that absorbs 100% of incident light and has the maximum energy radiation ability. Theoretically, none has a radiation ability larger than that of a black body.
That is, of the two curves, the black body curve is G1, and the “sample” curve G2 is a graph showing the radiation intensity of the sample. The closer the black body curve is, the higher the radiation ability is. Show.

図3のグラフについて、図3は前記黒体の放射強度を100とした場合の前記試料の放射強度の比率(放射率)を示す曲線で、横軸は図2と同じく測定波長数(単位:μ:ミクロン)を示す。縦軸目盛は放射率を示し、%表示であり、種々の試料の放射率を比較する場合、放射強度よりも、黒体を100とした放射率で比較する方が、試料の種類に関係なく比較できるので、一般的には、この放射率を用いて判断している場合が多い。  As for the graph of FIG. 3, FIG. 3 is a curve showing the ratio (emissivity) of the radiant intensity of the sample when the radiant intensity of the black body is 100, and the horizontal axis is the number of measured wavelengths (unit: same as FIG. 2). μ: micron). The vertical scale shows the emissivity and is expressed in%. When comparing the emissivities of various samples, it is better to compare the emissivity with a black body as 100 than the emissivity regardless of the type of sample. In general, this emissivity is often used for judgment because it can be compared.

実験4Experiment 4

また、実施例1の複合セラミックス体を通過させた水を家庭用循環式浴槽(24時間風呂)で1日あたり2人が入浴する環境で8日間連続循環させた後に、レジオネラ菌の検査を行なった。
また、上記と同じ家庭用循環式浴槽(24時間風呂)を用いて、お湯(普通の水道水)を1ヶ月半循環させ、1日あたり2人が入浴する環境で1週間に2回の割合で60%の塩素を1.5g投入(循環式浴槽の通常の殺菌方法)した後に、レジオネラ菌の検査を行なった。
これらの検査結果を表3に示す。

Figure 0004873214
※CFU=菌の集団(コロニー)数の単位。
※検査機関は、(株)環境分析研究所(福島市)
※保健所では、人が直接エアロゾルを吸引する可能性が少ない環境の場合で、100CFU/100ml以上のレジオネラ菌が検出された場合、直ちに清掃消毒等の対策を講じるように指導している。
上記の検査結果より、現在一般的に行なわれている塩素による殺菌と比較しても、本発明の複合セラミックス体を使用した水は菌の繁殖を抑える効果が優れていると判断できる。In addition, the water that has passed through the composite ceramic body of Example 1 was continuously circulated for 8 days in an environment where two people bathed per day in a household circulation bath (24-hour bath), and then Legionella was tested. It was.
Also, using the same household circulation tub (24 hours bath) as above, hot water (ordinary tap water) is circulated for one and a half months, twice a week in an environment where two people take a bath every day. After injecting 1.5 g of 60% chlorine (a normal sterilization method for a circulating bath), Legionella was examined.
These test results are shown in Table 3.
Figure 0004873214
* CFU = unit of the number of bacterial colonies.
* Inspection organization is Environmental Analysis Laboratory Co., Ltd. (Fukushima City)
* Health centers are instructed to take measures such as cleaning and disinfecting immediately when Legionella of 100 CFU / 100 ml or more is detected in an environment where there is little possibility of a person directly inhaling aerosol.
From the above test results, it can be determined that the water using the composite ceramic body of the present invention has an excellent effect of suppressing the growth of bacteria even when compared with sterilization by chlorine which is generally performed at present.

本発明を導入した新潟県内の複数の農家によって、イチゴの新潟産品種である「越後姫」の育成テスト、糖度テスト、鮮度テスト、食味テストを行なった。

Figure 0004873214
Figure 0004873214
The growth test, sugar content test, freshness test, and taste test of “Echigohime”, a strawberry cultivar produced in Niigata, were conducted by a plurality of farmers in Niigata Prefecture that introduced the present invention.
Figure 0004873214
Figure 0004873214

本発明による遠赤外線の測定結果を示すグラフである。It is a graph which shows the measurement result of the far infrared rays by this invention. 本発明による遠赤外線の測定結果を示すグラフである。It is a graph which shows the measurement result of the far infrared rays by this invention.

符号の説明Explanation of symbols

G1 黒体の遠赤外線の放射強度の状態を示す曲線
G2 試料の遠赤外線の放射強度の状態を示す曲線
G3 試料の放射強度の比率(放射率)を示す曲線
G1 Curve showing the state of the far-infrared radiation intensity of a black body G2 Curve showing the state of the far-infrared radiation intensity of the sample G3 Curve showing the ratio (emissivity) of the radiation intensity of the sample

Claims (4)

果実、野菜、穀類、稲類、人体に有用な菌類などの植物の育成方法であり、所定量の酸化金属または陶磁器の粉体、所定量の魚類の粉体、所定量の植物質の粉体の中から選択した少なくとも2つを所定量の粘土に混練し所定の形状に成型した後に800℃〜1400℃の範囲で焼成することで得られる複合セラミックス体を水に接触させ、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、植物育成方法。It is a method of growing plants such as fruits, vegetables, cereals, rice, fungi useful for human body, predetermined amount of metal oxide or ceramic powder, predetermined amount of fish powder, predetermined amount of vegetable powder The composite ceramic body obtained by kneading at least two selected from the above into a predetermined amount of clay and forming it into a predetermined shape and then firing it in the range of 800 ° C. to 1400 ° C. is brought into contact with water, and far infrared radiation action A method for growing a plant , comprising providing the plant with water in which a water molecule or a water molecule aggregate is modified by a catalytic action and the combined action. 前記複合セラミックス体を圃場や植物育成用建造物に配設したパイプまたはチューブの形状に合わせて形成させ内部の壁面が立体形状になるように形成した容器体または筒状体に充填し、前記容器体または筒状体を前記パイプまたはチューブの所定の位置に着脱可能な手段で接続することを特徴とする、請求項1に記載の植物育成方法。 The composite ceramic body is formed in accordance with the shape of a pipe or tube disposed in a field or a plant growing structure, and filled into a container body or a cylindrical body formed so that the inner wall surface has a three-dimensional shape. The plant growing method according to claim 1, wherein the body or the cylindrical body is connected to a predetermined position of the pipe or tube by a detachable means. 前記複合セラミックス体を粉体手段により粉体化し、前記粉体を粘土に混練し内部が任意の形状の容器体または筒状体に成型した後に800℃〜1400℃の範囲で焼成したり、前記粉体を合成樹脂に混練し内部が任意の形状の容器体または筒状体に成型し、前記容器体または筒状体の内部に水を接触させることで、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、請求項1または請求項2に記載の植物育成方法。 The composite ceramic body is pulverized by powder means, the powder is kneaded into clay, and the inside is molded into a container body or cylindrical body having an arbitrary shape, and then fired in the range of 800 ° C. to 1400 ° C., The powder is kneaded into a synthetic resin, the inside is molded into a container body or a cylindrical body having an arbitrary shape, and water is brought into contact with the inside of the container body or the cylindrical body, thereby far infrared radiation action, catalytic action, The plant growing method according to claim 1 or 2, wherein water in which water molecules or water molecule aggregates are modified by a combined action is provided to the plant. 所定量の酸化金属または陶磁器の粉体、所定量の魚類の粉体、所定量の植物質の粉体の中から選択した少なくとも2つを所定量の粘土に混練し、前記混練物を内部が任意の形状の容器体または筒状体に成型した後に800℃〜1400℃の範囲で焼成し、前記容器体または筒状体の内部に水を接触させることで、遠赤外線放射作用、触媒作用、前記複合作用によって水分子または水分子集合体に改変を生じさせた水を前記植物に提供することを特徴とする、請求項1から請求項3のいずれかに記載の植物育成 方法A predetermined amount of metal oxide or ceramic powder, a predetermined amount of fish powder, at least two selected from among a powder of a given amount of vegetable matter by kneading a predetermined amount of clay, the kneaded product inside After being molded into a container body or a cylindrical body of an arbitrary shape, firing in a range of 800 ° C. to 1400 ° C., and bringing water into contact with the inside of the container body or the cylindrical body , far infrared radiation action, catalytic action, characterized in that said providing water that caused the modified water molecules or water molecules aggregate to the plant by the combined action, plant growing method according to any one of claims 1 to 3.
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