JPS6360905A - Growth promoting adjuvant water for cultivating plant such as field crop or the like - Google Patents

Growth promoting adjuvant water for cultivating plant such as field crop or the like

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Publication number
JPS6360905A
JPS6360905A JP61203473A JP20347386A JPS6360905A JP S6360905 A JPS6360905 A JP S6360905A JP 61203473 A JP61203473 A JP 61203473A JP 20347386 A JP20347386 A JP 20347386A JP S6360905 A JPS6360905 A JP S6360905A
Authority
JP
Japan
Prior art keywords
water
soil
growth
ion
useful
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP61203473A
Other languages
Japanese (ja)
Other versions
JPH0645523B2 (en
Inventor
Yoshiaki Matsuo
至明 松尾
Jinichi Ito
仁一 伊藤
Katsue Ooshima
大嶋 勝衛
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP61203473A priority Critical patent/JPH0645523B2/en
Priority to EP87305270A priority patent/EP0254413A3/en
Priority to BR8703003A priority patent/BR8703003A/en
Priority to KR870009489A priority patent/KR880002754A/en
Publication of JPS6360905A publication Critical patent/JPS6360905A/en
Publication of JPH0645523B2 publication Critical patent/JPH0645523B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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Classifications

    • Y02P60/216

Landscapes

  • Agricultural Chemicals And Associated Chemicals (AREA)
  • Fertilizers (AREA)
  • Cultivation Of Plants (AREA)
  • Hydroponics (AREA)

Abstract

PURPOSE:To obtain the titled adjuvant water, consisting of Ag ion water at a specific pH or above and AgO<->, Ag(OH)2<-> and Ag2(OH)<+> ion concentrations within specific ranges and having effects, e.g. improvement of soil, control of pathogenic germs, etc., growth promotion of leaves and stems, photosynthesis promotion under a low quantity of light, etc. CONSTITUTION:Growth promoting adjuvant water, consisting of Ag ion water having >=8pH and 30-2,000ppb AgO<->, Ag(OH)2<-> and Ag2(OH)<+> ion concentrations and useful for cultivating plants, e.g. field crops, etc., particularly growth adjuvant water, consisting of Ag ion water having 250-450muV/cm<3> electric conductivity and useful for cultivating plants, e.g. field crops, etc. Acid soil can be neutralized by using the above-mentioned adjuvant water and bal anced soil colloid condition rich in nutriments, e.g. inorganic components, etc., can be formed. Blights can be effectively prevented without adversely affecting the human body and propagation of useful germs, e.g. symbiotic germs, etc., in soil can be promoted to create excellent symbiotic environment.

Description

【発明の詳細な説明】 「技術分野」 本発明は、土壌の改良、病害菌等の制御、茎葉の成長促
進、低光量下の光合成促進などの効果を有するAgイオ
ン水か、うなる農作物等植物栽培用生育促進補助水(以
下「生育促進補助水」と言う)に関する。
Detailed Description of the Invention "Technical Field" The present invention is directed to the use of Ag ion water, which has effects such as improving soil, controlling pathogens, etc., promoting the growth of stems and leaves, and promoting photosynthesis under low light levels. It relates to growth promotion supplementary water for cultivation (hereinafter referred to as "growth promotion supplementary water").

「従来技術およびその問題点」 農作物等の露地栽培に際して、各種の土壌改良剤、!1
薬、成長促進剤か使用されていることは周知の事実であ
る。
``Prior art and its problems'' When cultivating crops etc. in open field, various soil conditioners,! 1
It is a well-known fact that drugs and growth promoters are used.

年間を通じて降雨量の多い我が国の気候下では、土壌中
の塩基が溶解して下方に浸透する、いわゆる溶脱現象か
起こり、土壌が酸性化する傾向がある。土壌が酸性化す
ると、植物に必要な無機成分が欠乏し、AIイオンなど
の有害なイオンか増え、リン酸がアルミニウムや鉄と結
合して吸収不能となり、ざらに土壌中の有用な微生物の
活動が弱められるなどの種々の問題が生しる。このため
、土壌のM牲化に対して、石灰を散布したり、有機肥料
やリン酸肥料を施すなどの手段がよくとられていた。
In Japan's climate, where there is a lot of rainfall throughout the year, a so-called leaching phenomenon occurs in which bases in the soil dissolve and permeate downward, causing the soil to become acidic. When soil becomes acidic, inorganic components necessary for plants are depleted, harmful ions such as AI ions increase, phosphoric acid combines with aluminum and iron and becomes unable to be absorbed, and the activity of useful microorganisms in the soil is reduced. Various problems arise, such as weakening of the power. For this reason, measures such as scattering lime or applying organic fertilizers or phosphoric acid fertilizers have often been taken to make the soil M-sacrificial.

しかしながら、石灰を散布したり、有機肥料やリン酸肥
料を施すことは、地力そのものの老化につながり、労力
的にもコスト的にも負担が大きく、その割には顕著な効
果が得られないのが実状であった。また、土壌中の病害
菌等を抑制して有用な微生物の活動を高め、病害を予防
することに対しては殆ど積極的な効果はなかった。
However, spraying lime or applying organic fertilizers or phosphoric acid fertilizers leads to aging of the soil itself, is labor intensive and costly, and does not produce significant effects. was the actual situation. Furthermore, there has been little positive effect on suppressing pathogenic bacteria in the soil, increasing the activity of useful microorganisms, and preventing diseases.

また、近年においては、土から離れたハウスによる養液
栽培も盛んに行なわれるようになってきた。II液栽培
は、ミスト法、水耕法、固形培地耕法などに大別され、
いずれも培養液組成等を人工的に調整できるので、作物
により適した条件下での栽培が可能となる利点があり、
農業の工場主産化を図るものである。
In recent years, hydroponic cultivation using greenhouses that are separate from soil has also become popular. II Hydroponic cultivation is broadly divided into mist method, hydroponic method, solid medium cultivation method, etc.
In both cases, the composition of the culture medium can be adjusted artificially, so the advantage is that crops can be cultivated under more suitable conditions.
This aims to make agriculture a factory-based industry.

しかしながら、ハウスによる養液栽培においでは、温度
と湿度が高くなる傾向があり、培養液中に有害菌や有害
なカビなと微生物が発生しゃすくなつ、−旦汚染される
と農作物等の収穫が壊滅的な打!!2を受ける危険性を
有している。このため、病害の防止が最大の課題となっ
ているが、従来は農薬を多用することしか解決手段が見
出されていなかった。しかし、S薬を多用することは幾
多の事例が示しでいるとおり、入門の健康に著しい害を
与える危険性をはらんでいる。ざらに、!!薬を多年使
用すると、それに対する耐性菌が発生しできかなくなる
傾向が強い。
However, in greenhouse-based hydroponic cultivation, the temperature and humidity tend to be high, which can lead to the growth of harmful bacteria, harmful molds, and other microorganisms in the culture solution. A devastating blow! ! There is a risk of receiving 2. For this reason, disease prevention has become the biggest challenge, but the only solution to this problem so far has been the heavy use of pesticides. However, as numerous cases have shown, heavy use of S drugs carries the risk of causing significant harm to the health of beginners. Zarani! ! When drugs are used for many years, there is a strong tendency for bacteria to develop resistance to them.

ざらに、農作物等の栽培においては、光量が重要な要素
となっており、光量が不足する場合は、光合成か不活発
となるので、成長率が大幅に低下する。このことは、特
に季節にかかわらないハウス栽培にとって宿命に近いこ
とであり、いかなる成長促進剤をもってしても解決でき
ない問題であると考えられていた。
In general, the amount of light is an important factor in the cultivation of agricultural products, and when the amount of light is insufficient, photosynthesis becomes inactive, resulting in a significant drop in growth rate. This was considered to be the fate of greenhouse cultivation, especially regardless of the season, and was thought to be a problem that could not be solved by any growth promoter.

ところで、従来、Agイオン水を健康飲料水としで、あ
るいはプールの殺菌剤としで利用する試みはなされてい
る。しかし、これらはいずれもAgイオン殺菌効果にの
み着目したものであり、Agイオン水を農業の分野で有
効に利用しようとする試みは全くなされていなかった。
Incidentally, attempts have been made to utilize Ag ion water as health drinking water or as a disinfectant for swimming pools. However, all of these methods focus only on the Ag ion bactericidal effect, and no attempt has been made to effectively utilize Ag ion water in the agricultural field.

「発明の目的」 本発明の目的は、土壌の酸性化および老化などの問題を
解決し、農薬の継続的投与による化学薬物の農作物等植
物内蓄積などから招来される人体への悪影Wなどを心配
することなしに農作物等の病害を防止できるようにし、
また農作物等の茎葉を成長促進させる作用をも有し、ざ
らに農作物等の光合成能力を増進させる作用をも有する
画期的な生育促進補助水ヲ提供することにある。
"Purpose of the Invention" The purpose of the present invention is to solve problems such as acidification and aging of soil, and to solve problems such as negative effects on the human body caused by accumulation of chemical drugs in plants such as agricultural products due to continuous administration of pesticides. To prevent diseases such as crops, etc., without worrying about
Another object of the present invention is to provide an epoch-making growth-promoting auxiliary water that has the effect of promoting the growth of the stems and leaves of agricultural crops, etc., and also has the effect of increasing the photosynthetic ability of agricultural crops, etc.

「発明の構成」 本発明の生育促進補助水は、PH8以上、Ag0−5A
C+(OH)2−1八9□(叶)+イオン濃度30〜2
000ppb電気伝導/1250−450 u Ll/
cm3のAgイオン水からなることを特徴とする。
"Structure of the Invention" The growth promoting supplementary water of the present invention has a pH of 8 or more, Ag0-5A
C+(OH)2-189□(Kane)+Ion concentration 30-2
000ppb electrical conductivity/1250-450 u Ll/
It is characterized by consisting of Ag ion water of cm3.

本発明の生育促進補助水を酸性土壌に散水すると、その
アルカリ′注により酸性土壌を中和すると共に、土壌中
に含まれる金属などの無機成分が電気化学的ポテンシャ
ルを付加されて活性化し、土壌コロイドに付着している
水素イオンと強制百換しで、農作物の生育に必要な無機
成分を豊富に含有するバランスのとれた正常な土壌コロ
イドを形成させることができる。
When the growth-promoting supplementary water of the present invention is sprinkled on acidic soil, its alkali content neutralizes the acidic soil, and inorganic components such as metals contained in the soil are activated by adding electrochemical potential to the soil. Through forced exchange with hydrogen ions attached to colloids, it is possible to form normal, well-balanced soil colloids that are rich in inorganic components necessary for the growth of agricultural crops.

土壌栽培では有機肥料も併用して施肥されてることか多
く、土中の有機物を分解して病害菌や厚膜胞子、卵胞子
の形をとった微生物が多数存在し、強力な!!粟も効果
のないような状態となることが多い。
In soil cultivation, organic fertilizers are often used in conjunction with fertilization, and there are many microorganisms that decompose organic matter in the soil and take the form of disease-causing bacteria, chlamydospores, and oospores, which are very powerful! ! Millet is often ineffective as well.

本発明の生育促進補助水を土壌に敗布浸水せしめると、
土中に含まれるタンパク質とAgイオンとの錯体結合も
なく、そのままの状態で病原菌や微生物に接触し、それ
らの細胞膜から電気化学ポテンシャルの勾配に従い細胞
内に流入し、Agイオンのもつ触媒作用により細胞膜の
不飽和脂肪酸のエチレン化現象を引き起こさしめること
により、その11!能を失活しぬ、病害菌に微生物を激
減させることができる。
When the soil is soaked with the growth promoting supplementary water of the present invention,
There is no complex bond between the proteins contained in soil and Ag ions, so they come into contact with pathogenic bacteria and microorganisms as they are, flow into the cells from their cell membranes according to the gradient of electrochemical potential, and are stimulated by the catalytic action of Ag ions. By causing the ethylenic phenomenon of unsaturated fatty acids in cell membranes, Part 11! It is possible to drastically reduce the number of pathogenic microorganisms without losing their ability.

当然、植物共生有益菌も同様に激減するが、その後植物
の根が活発に主長をはしめて有機物を分泌しはしめると
、共主有益菌のみが大繁殖して植物の健全な共生環境が
つくられる。これは有害微生物が安定した共生間係を破
壊して増殖してくるまでの時間差をも利用するのである
Naturally, the number of symbiotic beneficial bacteria in the plant also decreases dramatically, but after that, as the plant roots actively increase their length and secrete organic matter, only the symbiotic beneficial bacteria proliferate, creating a healthy symbiotic environment for the plant. able to make. This also takes advantage of the time lag between harmful microorganisms destroying stable symbiotic relationships and multiplying.

なお、これは養液栽培の場合にあいでに養液中に本発明
の生育促進補助水を混入することにより、有機肥料や根
のタンパク質に付着する菌またはかびの細胞膜への作用
とそれを失活させる効果は、全く同しである。
In addition, in the case of hydroponic cultivation, by mixing the growth-promoting supplementary water of the present invention into the nutrient solution, it is possible to prevent the effects of bacteria or fungi that adhere to organic fertilizers and root proteins on the cell membranes. The deactivation effect is exactly the same.

また、本発明の生育促進補助水を植物の茎葉に散布する
と、茎葉部の病害菌等に対する静菌効果も全く同様に著
しい。
Furthermore, when the growth-promoting supplementary water of the present invention is sprayed on the foliage of a plant, the bacteriostatic effect against disease-causing bacteria on the foliage is also quite remarkable.

本発明のAgイオン水は、人体に対して安全であり、!
I薬のような危険性はない。ざらにAgイオンの有する
静菌効果に対しては、耐性菌が発生することがない点も
有利である。
The Ag ion water of the present invention is safe for the human body!
It is not as dangerous as I drugs. Another advantage of the bacteriostatic effect of Ag ions is that resistant bacteria do not occur.

また本発明の生育促進補助水は、植物の茎葉とくに野菜
類の伸長促進効果が顕著で、短時間での収穫、増収の効
果がある。
Furthermore, the growth-promoting supplementary water of the present invention has a remarkable effect of promoting the elongation of plant stems and leaves, especially vegetables, and is effective in harvesting in a short time and increasing yield.

植物生体内におけるホルモンが植物の成長に深くかかわ
っていることは、多くの実験により証明されている。化
学合成されたホルモン物質によって栽培促進をするケー
スもかなり見受けられる。
It has been proven through many experiments that hormones in plants are deeply involved in plant growth. There are many cases where cultivation is promoted using chemically synthesized hormones.

植物生体内生成ホルモンで代表的なものには、オーキシ
ン、ジベレリン、サイトカイニン、エチレ等があるが、
これらの複雑な相互間連作用による育成抑制効果のうち
、ジベレリンは茎葉成長促進にかかわるホルモンとして
知られでいる。
Typical plant hormones include auxin, gibberellin, cytokinin, etile, etc.
Among the growth-suppressing effects due to these complex interactions, gibberellin is known as a hormone involved in promoting shoot and leaf growth.

植物の茎葉成長のメカニズムを解析すると、細胞分裂に
よる細胞数の増加と細胞の大きざの増大という二つのパ
ターンによって起こる。茎葉の最先端部や根の先では細
胞分裂により成長するが、先端部から数ミリ戻った部位
では細胞の大きざの増大が急速におこる。その機序は主
に細胞分裂が初めに起こり、その分裂が、止ったのち細
胞の大きさが盛んに増大する時期がくる。
Analyzing the mechanism of plant stem and leaf growth, it occurs through two patterns: an increase in the number of cells due to cell division and an increase in the size of the cells. Growth occurs through cell division at the leading edge of leaves and roots, but cells rapidly increase in size a few millimeters back from the tip. The mechanism is mainly that cell division occurs first, and after that division has stopped, there comes a period when the cell size actively increases.

このような細胞体積の増大による成長は植物独特のもの
であり、この大部分は、細胞の液胞化、つまり吸水によ
るものであり、その結果細胞質は硬い細胞壁に押し付け
られ薄い境界層のようになることもある。したがって1
、吸水が起こるためには、浸透ポテンシャルと壁圧のい
ずれか、あるいは両方とも変化していることは明らかで
ある。成長が一定期間続くと細胞液は著しく稀薄になる
から浸透ポテンシャルを一定の値に保つためにも相当量
の糖、塩基、有機酸などの浸透性のある活性な物質が液
胞内に輸送されなければならない。
This growth by increasing cell volume is unique to plants, and is largely due to cell vacuolization, or water absorption, resulting in the cytoplasm being pressed against the rigid cell wall and forming a thin boundary layer. Sometimes. Therefore 1
It is clear that for water absorption to occur, either the osmotic potential or the wall pressure, or both, must change. When growth continues for a certain period of time, the cell fluid becomes extremely diluted, so in order to maintain the osmotic potential at a constant value, a considerable amount of osmotic active substances such as sugars, bases, and organic acids are transported into the vacuole. There must be.

ざらに液胞化による細胞容積増大の間、細胞壁には非可
逆的な可塑的伸展が起こり、細胞の液胞化は細胞壁軟化
が前提となるものと考えられる。
During the increase in cell volume due to vacuolization, irreversible plastic elongation occurs in the cell wall, and it is thought that cell wall softening is a prerequisite for cell vacuolization.

これは細胞壁軟化によってプラトブラスト(細胞壁を取
り除いた植物細胞)への水の取込みが始まるという現象
の機序がこれを証明している。植物ホルモンが細胞壁と
細胞とにどのような形式において関与しているか明確に
されない分野が多いが、実証テストによるオーキシンが
細胞壁の軟化に開与し、壁膜の透過性と可逆的伸長牲を
高め、ジベレリンが細胞液の浸透圧ポテンシャルを増加
させることにより細胞の成長を促進するという現象が認
められている。
This is evidenced by the phenomenon in which water uptake into the platoblast (a plant cell with its cell wall removed) begins due to cell wall softening. Although it is not clear in many fields how plant hormones are involved in cell walls and cells, empirical tests have shown that auxin softens cell walls and increases permeability and reversible elongation of wall membranes. It has been observed that gibberellins promote cell growth by increasing the osmotic potential of cell fluid.

ざらに、ジベレリンは分子構造的にはジベレリン基本炭
素骨格をもつ適当な雪換体A環の飽和程度と水酸基(−
叶)の数と位置によって活性化するということが知られ
ている。
In general, gibberellin has a basic carbon skeleton of gibberellin, the degree of saturation of the A ring of the appropriate snowmelt, and the hydroxyl group (-
It is known that the activation depends on the number and position of leaves).

この現象の上にたって、Agイオンを触媒として関与せ
しめることにより、オーキシンの植物組繊内での貯蔵形
態であるインドール酢酸エチルのC2H5’:C2H4
叶として分離して、エチレン効果を抑制しつつ、かつ、
オーキシンを活性化させ、細胞壁の軟化を進めると共に
、ジベレリン炭素骨格をもつ基本構造に、Agイオンと
弱結合の水酸基を大量に供給することにより、ジベレリ
ンの活性化を促進せしめ、細胞液の浸透ポテンシャルを
高め、大量のイオン化された水の吸収作用によって、茎
葉の急激な成長が可能になるのではないか、ざらに根部
域においてはオーキシンとサイカニンとの\相対的濃度
が定IIこ達し、根の伸長がみられ吸収率が高まるので
はないかと想定した。
Based on this phenomenon, by involving Ag ions as a catalyst, C2H5':C2H4 of indole ethyl acetate, which is the storage form of auxin in plant fibers, is
Separated as leaves, suppressing the ethylene effect, and
In addition to activating auxin and promoting cell wall softening, gibberellin activation is promoted by supplying a large amount of Ag ions and weakly bonded hydroxyl groups to the basic structure with gibberellin carbon skeleton, which increases the osmotic potential of cell fluid. This may be due to the absorption of large amounts of ionized water, which may enable the rapid growth of shoots and leaves.Roughly speaking, the relative concentration of auxin and cykanin reaches a constant level in the root region, and the roots grow. It was assumed that the absorption rate would increase as a result of the elongation.

そこで、^9O−1Ag(OH)2−1^92(OH)
+イオン濃度3O−2000ppb 、電気伝導度25
0−450 u U/cm3のAgイオン水を与えたと
ころ、酸性土壌は中和され土壌コロイドも正常化し、土
壌中の浸透圧が根の浸透圧より低下することによって水
の吸収ポテンシャルが高められる共に、Agの触媒作用
により植物生体内オーキシンを活性化させ、OH−イオ
ンの供給によりジベレリンを活性化せしめることができ
た。その結果、実施例3のとおり、根の部域は大いに伸
長し、茎の部域では短期間に通常の20〜30%の驚異
的な伸長をみることに成功した。
Therefore, ^9O-1Ag(OH)2-1^92(OH)
+Ion concentration 3O-2000ppb, electrical conductivity 25
When 0-450 uU/cm3 of Ag ion water was applied, the acidic soil was neutralized and soil colloids were normalized, and the osmotic pressure in the soil was lower than that of the roots, increasing the water absorption potential. In both cases, auxin in plants could be activated by the catalytic action of Ag, and gibberellin could be activated by the supply of OH- ions. As a result, as in Example 3, the root region significantly elongated, and the stem region succeeded in achieving an astonishing 20 to 30% elongation of normal growth in a short period of time.

ざらに、本発明の生育促進補助水によつ、低光量におけ
る農作物の茎葉の成長が可能となった。
In general, the growth-promoting auxiliary water of the present invention made it possible to grow the stems and leaves of agricultural crops in low light levels.

この発明の理由は次のように考えられる。The reason for this invention is considered to be as follows.

植物のクロロプラスト(葉緑素)は、光のエネルギー(
hr)!利用し、還元剤として水の水素を利用しで、C
O□を固定還元して炭水化物を転化させるが、その過程
においてATPが合成され、NADPが還元される明反
応(2H20+2NADP→xADP”XP光→2NA
DPH2”XATP”02)とATPとNADPH2テ
GO2% K水化物に固定するいわゆるカルビンーヘン
ソン回路と呼ばれる暗反応(CO2”2NADPH2”
XATP →CH2O”H2O”2NAPD◆XADP
◆XP)と二つであるが、この過程にあいで、クロロプ
ラストに光を当てるとH+イオンがクロロプラストに取
込まれチラコイド膜内部のPHが下がる現象と、光分解
によって生じるH+イオン、OH−イオンとe (電子
)がNADPH2の形成とATPの合成にかかわってい
る現象から、もし光のエネルギーがH+の電気化学的ポ
テンシャルの差に変換され、これがATPの合成に、つ
かわれるならば、人為的にH+の電気化学的ポテンシャ
ル差をクロロプラスト膜の内外に与えることにより、光
も電子伝達もなしにATPの合成か行なわれるはすであ
る。ざらに、Agイオンと叶−イオンを送り込むことに
より、前述のとうつ成長ホルモンの一種であるオーキシ
ンとヘレリンを活性化せしめ、低光量下においでも充分
茎葉を成長ざすことか可能であると考えた。
Plant chloroplasts (chlorophyll) absorb light energy (
hr)! By using hydrogen in water as a reducing agent, C
Carbohydrates are converted by fixed reduction of O□, but in the process ATP is synthesized and NADP is reduced in the light reaction (2H20+2NADP→xADP"XPlight→2NA
DPH2"XATP"02) and ATP and NADPH2TE GO2% K hydrate is fixed in the so-called Calvin-Henson cycle dark reaction (CO2"2NADPH2"
XATP →CH2O"H2O"2NAPD◆XADP
◆ From the phenomenon that -ions and e (electrons) are involved in the formation of NADPH2 and the synthesis of ATP, if the energy of light is converted into a difference in the electrochemical potential of H+, and this is used for the synthesis of ATP, then By artificially providing an H+ electrochemical potential difference between the inside and outside of the chloroplast membrane, ATP synthesis can be carried out without light or electron transfer. By delivering Ag ions and leaf ions, we thought it would be possible to activate auxin and hererin, which are types of growth hormones mentioned above, and to achieve sufficient growth of leaves even under low light levels. .

そこで、クロロプラストの酸塩基処理によるATPの生
成の可能外について実験を行なった。
Therefore, experiments were conducted to determine whether ATP could be produced by acid-base treatment of chloroplasts.

葉緑体の内部にH+を入れるためにPH4の反応液に、
1分間浸した電子伝達系の関与していないことを示すた
めに電子伝達の粗害剤DCMUを加えておき、光のエネ
ルギーでないことを示すために@宵において行なった。
In order to introduce H+ into the chloroplast, add PH4 to the reaction solution.
In order to show that the electron transport system was not involved after soaking for 1 minute, DCMU, an electron transport coarsening agent, was added, and the test was carried out in the evening to show that it was not light energy.

そこでATPの合成に必要なADPと32P、ざらにM
921を加えた反応液をつくつ、これをアルカリ゛iと
するためにトリスNa0Hi加えて、先のPH4の反応
液に浸したクロロプラストを入れた。こうしてタト液は
アルカリ性であるがワロロブラスト体内は酸性のままで
、いわゆる酸塩基処理が完成した。この結果主した膜内
外のH+の電気化学的ポテンシャルの差にしたがってA
TPがつくられることを実証した。そこで、後述するA
gイオン製造装ゴにより、PH8以上、Ag0−1Ag
(OH)−、Ag゜(叶)“イオン濃度30〜2000
ppb、  電気伝導度250−450 u U/cm
3のAg9イオン水ツくり、土壌に散布または養液栽培
用水の中に混入して植物ネRより吸収させたところ、通
常では植物の成長か望めないような低光量においでも、
実験の結果(実施例4に示すごとく)立派に茎葉を成長
せしめることに成功した。
Therefore, ADP and 32P necessary for the synthesis of ATP, Zarani M
921 was added, Tris-Na0Hi was added to make this alkali, and the chloroplast soaked in the PH4 reaction solution was added. In this way, although the Tato solution is alkaline, the inside of the Waroroblast remains acidic, completing the so-called acid-base treatment. As a result, A
We demonstrated that TP can be created. Therefore, A
PH8 or higher, Ag0-1Ag due to g-ion manufacturing equipment
(OH)-, Ag゜(Kano) “ion concentration 30-2000
ppb, electrical conductivity 250-450 uU/cm
When Ag9 ion water was collected, sprayed on soil, or mixed into water for hydroponic cultivation and absorbed by plants, even in low light levels where plant growth could not normally be expected,
As a result of the experiment (as shown in Example 4), we were able to successfully grow stems and leaves.

本発明の生育促進補助水を構成するAgイオン水は、P
H8以上、Ag0−1Ag(OH)2−1Ag□(OH
)+イオンJ度30〜2000ppbとされている。
The Ag ion water constituting the growth promotion supplementary water of the present invention is P
H8 or higher, Ag0-1Ag(OH)2-1Ag□(OH
) + ion J degree is said to be 30 to 2000 ppb.

PH8以上とした理由は、微量元素の種類にかかわらず
、それらとタンパク賃との結合に「H+」プロトンの存
在が大きく関与し、PH8以下、PH5以上の中性条件
下では、Agイオンが土壌中あるいは養液水中のタンパ
ク雲などの何機物と錯体を形成して吸着されやすくなり
、Agイオンの有する静菌効果や王理活′注効果が発揮
されなくなるがらである。Ag0ミAg(OH)2−1
Ag2(OH戸イオン濃a 30−2000ppbとし
た理由は、30ppb未満では土壌や養液中にあける静
菌効果を充分に得ることができず、2000ppbを超
えると共主菌などの有用な菌の生育まで阻止しでしまう
からである。
The reason for setting the pH above 8 is that regardless of the type of trace elements, the presence of "H+" protons is greatly involved in the bonding between them and proteins, and under neutral conditions of below PH 8 and above 5, Ag ions are Ag ions tend to form complexes with other substances such as protein clouds in the water or in the nutrient solution and are easily adsorbed, and the bacteriostatic effect and activating effect of Ag ions are no longer exhibited. Ag0miAg(OH)2-1
The reason why Ag2 (OH door ion concentration a) was set at 30-2000 ppb is that if it is less than 30 ppb, it will not be possible to obtain a sufficient bacteriostatic effect in the soil or nutrient solution, and if it exceeds 2000 ppb, it will inhibit useful bacteria such as co-dominant bacteria. This is because it will even prevent it from growing.

本発明の好ましい態様においては、上記Agイオン水は
、電気伝導度250−450 u lJr′cm3とさ
れる。このように、電気伝導度を250u jJ/cm
3以上として、電気化学的ポテンシャルを高めることに
よつ、Agイオンが細菌等細胞膜を透過しやすくし、ざ
らに、土壌コロイドと結合しでいる水素イオンを金属イ
オンと強制的に3換させることができる。電気伝導度が
250 u U /cm3未満では上記の効果が乏しく
なり、電気伝導度が450 u IJ/cm3を超える
場合はその製造が困難となる。
In a preferred embodiment of the present invention, the Ag ion water has an electrical conductivity of 250-450 ulJr'cm3. In this way, the electrical conductivity is set to 250u jJ/cm
3 or above, by increasing the electrochemical potential, Ag ions can easily permeate cell membranes of bacteria, etc., and hydrogen ions bound to soil colloids can be forcibly exchanged with metal ions by 3. Can be done. If the electrical conductivity is less than 250 u IJ/cm3, the above effects will be poor, and if the electrical conductivity is more than 450 u IJ/cm3, it will be difficult to manufacture.

本発明の生育促進補助水の製造方法は、特に限定されな
いか、例えば陽極と陰極とを有し、陽極に銀か設けられ
た第1電解互と、陽極と陰極とを有し、両電極の間に隅
膜が形成′2!れ、陽栂室と陰極室とに区画された第2
電解室とを備え、3水を前記第1電解呈から前記M2電
解至の陰極室を通して流出きせる流路と、原水を前記第
1電解室から前記第2電解室のFJA極室を通して流出
させる流路とを備えた装置によって製造することができ
る。すなわづ、この装置を用い、電圧を印加しつつ原水
を第1電解室に通してAgイオンを溶出させ、これを第
2電解室の陰極室に通して取出すことにより、PH8以
上のアルカリ性の49イオン水を得ることができる。こ
の場合、原水の流量、印加する電圧等を調整することに
より、所望のPHおよびAg0−1Ag(OH)2−1
Ag2(OH)÷イオン濃度とすることができる。
The method for producing growth promoting auxiliary water of the present invention is not particularly limited; A corneal membrane is formed between '2! The second chamber is divided into a positive chamber and a cathode chamber.
an electrolytic chamber, a flow path for allowing water to flow out from the first electrolytic chamber through the cathode chamber of the M2 electrolytic chamber, and a flow path for flowing raw water from the first electrolytic chamber through the FJA electrode chamber of the second electrolytic chamber; It can be manufactured by an apparatus equipped with a. In other words, using this device, raw water is passed through the first electrolytic chamber while applying a voltage to elute Ag ions, which are then passed through the cathode chamber of the second electrolytic chamber and taken out, thereby producing alkaline water with a pH of 8 or higher. 49 ion water can be obtained. In this case, the desired pH and Ag0-1Ag(OH)2-1 can be achieved by adjusting the flow rate of raw water, applied voltage, etc.
It can be calculated as Ag2(OH)÷ion concentration.

なあ、Agイオン水の製造方法および装置については、
本発明者らが先に行なった特許出願(特願昭61−12
3133号)(こざらに詳細に記載されている。
By the way, regarding the production method and equipment for Ag ion water,
Patent application filed earlier by the inventors (Japanese Patent Application No. 61-12
No. 3133) (described in detail in Kozara).

「発明の実施例」 (実施例1) 条件  露地及びハウスの土をそれぞれ1009ずつ用
意し、原水(水道水、電気伝導度187LllJ/cm
3)と、この原水で生成した本発明の生育促進補助水(
PHIO2電気伝導度304 LI U/cm3)の二
種類の水10C1cc @それぞれの土に散布混合した
後、濾過した水の変化を調べた。
"Example of the invention" (Example 1) Conditions: 1009 soils each were prepared in the open field and in a greenhouse, and raw water (tap water, electrical conductivity 187LllJ/cm) was prepared.
3) and the growth promotion supplementary water of the present invention produced from this raw water (
After spraying and mixing 10 C1 cc of two types of water with a PHIO2 electrical conductivity of 304 LI U/cm3 on each soil, changes in the filtered water were investigated.

(1)電気伝導度   水道水>PHIO本発明の生育
促進補助水の電気伝導度が低くなっているのは、土壌コ
ロイドのH÷が生育促進補助水の叶−と結合して水和し
、中性となることを意味しでいる。
(1) Electrical conductivity Tap water > PHIO The reason why the electrical conductivity of the growth-promoting supplementary water of the present invention is low is that H÷ of soil colloids combines with the leaf of the growth-promoting supplementary water and hydrates. It means to be neutral.

(以下、余白) (2)PH変化 本発明の生育促進補助水は、上記のようにPHが高いの
で、酸さ土壌の中和効果が期待できる。
(Hereinafter, blank spaces) (2) PH change Since the growth promotion supplementary water of the present invention has a high PH as described above, it can be expected to have a neutralizing effect on acidic soil.

(3)CaイオンPPm   水道水>PHIO本発明
の生育促進補助水は、Caイオン濃度が低くなっている
が、これは土壌コロイドに付着したH+イオンをCaイ
オンと言換させ、Caイオンが土壌コロイドに吸Mされ
た結果と考えられる。
(3) Ca ion PPm Tap water > PHIO The growth promotion auxiliary water of the present invention has a low Ca ion concentration, but this is because H+ ions attached to soil colloid are replaced with Ca ions, and Ca ions This is thought to be the result of M being absorbed by the colloid.

(以下、余白) (4)NaイオンPPm   PHIO>水道水本発明
の生育促進補助水は、Naイオン濃度が低くなっている
が、これは過剰のNaイオンが溶脱された結果と考えら
れる。
(Hereinafter, blank spaces) (4) Na ion PPm PHIO > Tap water The growth promotion supplementary water of the present invention has a low Na ion concentration, which is thought to be the result of excessive Na ions being leached out.

(実施例2) 殺菌テスト ウィルスは一般的にPH4,5以下及びPHIO,5以
上で不活化すると言われている。また、253.7nm
の紫外線でも不活化するといわれでいる。そこで、PH
8,5のAgイオン木、PHIo、5のAgイオン水、
および紫外線照射による効果を比較してテストした。
(Example 2) Sterilization test Viruses are generally said to be inactivated at PH 4.5 or lower and PHIO 5 or higher. Also, 253.7nm
It is said that even ultraviolet rays can inactivate it. Therefore, P.H.
8.5 Ag ion wood, PHIo, 5 Ag ion water,
The effects of UV irradiation and ultraviolet irradiation were compared and tested.

条件 1)菌体   タバコモザイクウィルス2)接種方法 
酸化アルミナの粉体にタバコモザイクウイルスを加へで
加水し、混合して散布後、軽く葉面を摩擦して植込んだ
Conditions 1) Bacterial cells Tobacco mosaic virus 2) Inoculation method
Tobacco mosaic virus was added to the alumina oxide powder, mixed and sprayed, and then implanted by lightly rubbing the leaf surface.

3)育苗室温 25°C 4)Agイオン水散布 接種24時間後に上記各Agイ
オン本を散布する。また、紫外線源!tを行なう。
3) Seedling raising room temperature 25°C 4) Spraying of Ag ion water Spray each of the above Ag ion water 24 hours after inoculation. Also a UV source! Do t.

5)測定   接種後10日目に病斑数を測定し、1株
中に含まれる平均をとった。
5) Measurement The number of lesions was measured 10 days after inoculation, and the average number of lesions per plant was calculated.

この測定の結果を第1図および第2図に示す。The results of this measurement are shown in FIGS. 1 and 2.

第1図中、aはPH8,5のAgイオン水@lppm散
布した結果、bはPH8,5のAgイオン本を2ppm
散布した結果、CはPHIo、5のAgイオン水を散布
した結果を示す、また、笥2図は紫りト線を照射した結
果を示し、この場合の紫外線は、波長253.7mm 
、線量7000 erc+/mm2/minである。
In Figure 1, a is the result of spraying Ag ion water @ lppm with pH 8.5, and b is the result of spraying 2 ppm of Ag ion water with pH 8.5.
As a result of spraying, C shows the result of spraying Ag ion water of PHIo, 5, and Figure 2 shows the result of irradiating with purple rays.
, the dose is 7000 erc+/mm2/min.

(実施例3) 通常の露地土壌でミツバを5株毎、以下の3区画に分け
て栽培した。
(Example 3) Five Mitsuba plants were divided into the following three plots and cultivated in normal open soil.

■Agイオイオ処理区:培養液として、有機肥料「バイ
オアクアJ (商品名、株式会社サンライク製)を、P
H8,5、AqO−1八9(OH)2−1Ag2(OH
)チイオン濃度2000ppb 、電気伝導1350 
u Ll/cm3の生育促進補助水にて、2000倍に
稀釈したものを使用した。
■Ag ioio treatment area: Organic fertilizer ``Bio Aqua J (trade name, manufactured by Sunlike Co., Ltd.) was used as a culture solution.
H8,5, AqO-189(OH)2-1Ag2(OH
) Thiion concentration 2000ppb, electrical conductivity 1350
The solution was diluted 2000 times with u Ll/cm3 of growth promotion supplementary water.

■イオン水処理区、培養液として、有機肥料「バイオア
クアJ  [5品名、株式会社サンライク製)を、一般
上木道本を電気分解してPH8,5としたイオン水にで
、2000倍に希釈したものを使用した。
■Ionized water treatment zone, as a culture solution, organic fertilizer "Bio Aqua J [5 product names, manufactured by Sunlike Co., Ltd.] was added to ionized water with a pH of 8.5 by electrolyzing regular wood grains, and the amount was increased 2000 times. A diluted version was used.

■無処理区、培養液として、有機肥料[バイオアクアj
 (商品名、株式会社サンライク製)P8、精製水にで
、2000倍に希釈したものを使用した。
■In the untreated area, use organic fertilizer [Bio Aqua J] as a culture solution.
(Product name, manufactured by Sunlike Co., Ltd.) P8, which was diluted 2000 times with purified water, was used.

これらの培養液を、毎日8時に20分間シャワーで供給
し、それぞれの成長度合を測定した。この結果を篤1表
に示す。
These culture solutions were supplied with a shower for 20 minutes at 8 o'clock every day, and the growth degree of each was measured. The results are shown in Table 1.

第1表から、本発明の生育促進補助水を用いた場合は、
茎および葉の成長が明らかに促進されることがわかる。
From Table 1, when using the growth promotion supplementary water of the present invention,
It can be seen that the growth of stems and leaves is clearly promoted.

第1表 (なお、数値は5株の平均を示しでいる。)実施例4 次のような条件でカイワレダイコンを栽培し、それらの
発芽率、収穫量、根ぐされの状態を調査した。
Table 1 (The values are the average of 5 plants.) Example 4 Daikon radish was cultivated under the following conditions, and its germination rate, yield, and rooting condition were investigated.

栽培室:幅50cmx長ざ2m50cmx高ざ1mの木
製の培室を3室用意した。
Cultivation room: Three wooden cultivation rooms with a width of 50 cm, a length of 2 m, and a height of 1 m were prepared.

光 源; 40W x l00V(7)電球1本を用い
、1100ルツクスで照射した。
Light source: One 40W x 100V (7) light bulb was used and irradiated at 1100 lux.

培 地:ウレタン綿 給 水、以下のA、B、Cの培養液を用い、培養液B、
Cについては浸漬方式を採用 し、培養液Aについでは浸漬方式と シャワ一方式の21M類を採用した。なお、浸漬方式は
培地を培養液中に浸漬 しで栽培する方法であり、シャワ一方 式は2時間30分毎に培養液をシャワーで給水しで栽培
する方法″C:f)る。
Culture medium: Urethane cotton water supply, using the following culture solutions A, B, and C, culture solution B,
For C, the immersion method was adopted, and for culture solution A, Type 21M, which had a immersion method and one shower method, was adopted. The immersion method is a method of cultivating by immersing the culture medium in a culture solution, and the shower method is a method of cultivating by supplying culture solution with a shower every 2 hours and 30 minutes.

培養液+ (A) PH8,5、Ag0 、 Ag(叶
)2−1Ag□(OH)+イオン7農度2000ppb
 、電気伝導度3りOu IJ/cm3の主育促進補助
水 (8)一般上水通水を電気分解してなるPH8,5、電
気伝導度250 utJ/cm3のイオン水 (C)−股上水道水 この実験の結果を第2表に示す。
Culture solution + (A) PH8.5, Ag0, Ag (Kano) 2-1Ag□ (OH) + Ion 7 Agricultural degree 2000ppb
, Supplementary water for promoting main growth with an electrical conductivity of 3 Out IJ/cm3 (8) Ionized water with a pH of 8.5 and an electrical conductivity of 250 utJ/cm3 obtained by electrolyzing general tap water (C) - Rise water supply Water The results of this experiment are shown in Table 2.

第2表より、本発明の生育促進補助水を用いた場合には
、発芽率が高く、収穫量も多く、根ぐされも防止される
ことがわかる。
From Table 2, it can be seen that when the growth promotion supplementary water of the present invention is used, the germination rate is high, the yield is large, and rooting is also prevented.

(以下、余白) 第2表 「発明の効果」 以上説明したように、本発明によれば、PH8以上、A
s2−1Ag(OH)2−1Ag□(OH)◆イオン濃
度30〜2000ppbのAgイオン水+a作物等の栽
培に用いることにより、酸性土壌を中和して無機成分な
どの養分に冨んだバランスのとれた土壌コロイド状態を
形成することができ、また、人体に悪影11!そ及(よ
さずに病害を効果的に防止することができ、土壌中の共
生菌等の有用な菌の繁殖を促進して良好な共生環境を作
ることができる。
(Hereinafter, blank space) Table 2 "Effects of the Invention" As explained above, according to the present invention, the pH is 8 or higher, the A
s2-1Ag(OH)2-1Ag□(OH)◆Ag ion water with an ion concentration of 30 to 2000 ppb+A By using it for cultivation of crops, etc., it neutralizes acidic soil and creates a balance rich in nutrients such as inorganic components. It can form a loose soil colloid state, and it also has negative effects on the human body! Diseases can be effectively prevented without causing damage, and a good symbiotic environment can be created by promoting the proliferation of useful bacteria such as symbiotic bacteria in the soil.

ざらに、Agイオン水の及ぼす生理活性作用により、農
作物等の茎葉の成長を促進させることができ、かつ光合
成の能力が高まることにより、光量が不足する環境下で
も高い収8c量を上げることが可能となる。
In general, the physiologically active effect of Ag ion water can promote the growth of the leaves and stems of agricultural crops, and by increasing the photosynthetic ability, it is possible to increase the yield even in environments with insufficient light. It becomes possible.

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

第1図はタバコモザイクウィルスに対する本発明の生育
促進補助水の殺菌作用を示す図表、第2図はタバコモザ
イクウィルスに対する紫外線照射による殺菌作用を示す
図表である。 鈷″jpりn4@藺(句 第1図 ワ’E h 処イlz (妙ン 第2図
FIG. 1 is a chart showing the bactericidal effect of the growth promotion supplement water of the present invention on tobacco mosaic virus, and FIG. 2 is a chart showing the bactericidal effect of ultraviolet irradiation on tobacco mosaic virus.鈷"jpri n4@藺 (phrase 1st figure wa'E h processi lz (myeon 2nd figure)

Claims (2)

【特許請求の範囲】[Claims] (1)PH8以上、AgO^−、Ag(OH)_2^−
、Ag_2(OH)^+イオン濃度30〜2000pp
bのAgイオン水からなることを特徴とする農作物等植
物栽培用生育促進補助水。
(1) PH8 or higher, AgO^-, Ag(OH)_2^-
, Ag_2(OH)^+ ion concentration 30-2000pp
A growth-promoting supplementary water for cultivating plants such as agricultural products, characterized by comprising the Ag ion water of b.
(2)特許請求の範囲第1項において、電気伝導度25
0〜450uU/cm^3のAgイオン水からなる農作
物等植物栽培用生育促進補助水。
(2) In claim 1, the electrical conductivity is 25
Growth promotion supplementary water for cultivating crops and other plants, consisting of Ag ion water of 0 to 450 uU/cm^3.
JP61203473A 1986-06-13 1986-08-29 Growth promotion supplementary water for plant cultivation of agricultural products Expired - Lifetime JPH0645523B2 (en)

Priority Applications (4)

Application Number Priority Date Filing Date Title
JP61203473A JPH0645523B2 (en) 1986-08-29 1986-08-29 Growth promotion supplementary water for plant cultivation of agricultural products
EP87305270A EP0254413A3 (en) 1986-06-13 1987-06-12 Silver-ionic water and its uses
BR8703003A BR8703003A (en) 1986-06-13 1987-06-12 IONIC SILVER WATER AND BACTERIOSTATIC TREATMENT PROCESS
KR870009489A KR880002754A (en) 1986-08-29 1987-08-29 Hot water and its uses

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP61203473A JPH0645523B2 (en) 1986-08-29 1986-08-29 Growth promotion supplementary water for plant cultivation of agricultural products

Publications (2)

Publication Number Publication Date
JPS6360905A true JPS6360905A (en) 1988-03-17
JPH0645523B2 JPH0645523B2 (en) 1994-06-15

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Family Applications (1)

Application Number Title Priority Date Filing Date
JP61203473A Expired - Lifetime JPH0645523B2 (en) 1986-06-13 1986-08-29 Growth promotion supplementary water for plant cultivation of agricultural products

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Country Link
JP (1) JPH0645523B2 (en)

Cited By (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH02163006A (en) * 1988-12-14 1990-06-22 P N C Kogyo Kk Growth of mycorrhiza
NL9002723A (en) * 1989-12-12 1991-07-01 Toshiba Kk SYSTEM FOR CONTROLLING A FOOD SOLUTION IN A WATER CULTURE.
WO2006013646A1 (en) * 2004-08-03 2006-02-09 Centralsun Co.,Ltd. Spray water culturing method
WO2006013853A1 (en) * 2004-08-03 2006-02-09 Centralsun Co., Ltd. Spray water culture method
CN1331399C (en) * 2005-03-22 2007-08-15 上海多佳水处理科技有限公司 Nano composite silver oxide disinfection powder and its preparation method
JP2022035344A (en) * 2020-08-20 2022-03-04 アイティーエヌ株式会社 Water culture device
JP2022035377A (en) * 2020-08-20 2022-03-04 アイティーエヌ株式会社 Nourishing solution soil culture device
JP2022132006A (en) * 2021-02-26 2022-09-07 均 石井 Method for making vegetable new material and plant fiber product

Cited By (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH02163006A (en) * 1988-12-14 1990-06-22 P N C Kogyo Kk Growth of mycorrhiza
NL9002723A (en) * 1989-12-12 1991-07-01 Toshiba Kk SYSTEM FOR CONTROLLING A FOOD SOLUTION IN A WATER CULTURE.
US5590490A (en) * 1989-12-12 1997-01-07 Kabushiki Kaisha Toshiba Hydroponic nutrient solution control system
WO2006013646A1 (en) * 2004-08-03 2006-02-09 Centralsun Co.,Ltd. Spray water culturing method
WO2006013853A1 (en) * 2004-08-03 2006-02-09 Centralsun Co., Ltd. Spray water culture method
CN1331399C (en) * 2005-03-22 2007-08-15 上海多佳水处理科技有限公司 Nano composite silver oxide disinfection powder and its preparation method
JP2022035344A (en) * 2020-08-20 2022-03-04 アイティーエヌ株式会社 Water culture device
JP2022035377A (en) * 2020-08-20 2022-03-04 アイティーエヌ株式会社 Nourishing solution soil culture device
JP2022132006A (en) * 2021-02-26 2022-09-07 均 石井 Method for making vegetable new material and plant fiber product

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