JP2002200639A - Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance - Google Patents

Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance

Info

Publication number
JP2002200639A
JP2002200639A JP2000404802A JP2000404802A JP2002200639A JP 2002200639 A JP2002200639 A JP 2002200639A JP 2000404802 A JP2000404802 A JP 2000404802A JP 2000404802 A JP2000404802 A JP 2000404802A JP 2002200639 A JP2002200639 A JP 2002200639A
Authority
JP
Japan
Prior art keywords
container
substance
powder
bacteriostatic
humic
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.)
Pending
Application number
JP2000404802A
Other languages
Japanese (ja)
Inventor
Shigetoshi Watanabe
茂利 渡辺
Mitsuhiko Watanabe
光彦 渡邉
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.)
SC ACT KK
Original Assignee
SC ACT KK
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 SC ACT KK filed Critical SC ACT KK
Priority to JP2000404802A priority Critical patent/JP2002200639A/en
Publication of JP2002200639A publication Critical patent/JP2002200639A/en
Pending legal-status Critical Current

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  • Injection Moulding Of Plastics Or The Like (AREA)

Abstract

PROBLEM TO BE SOLVED: To specially treat and process a specific humic substance and add the substance to a stock for manufacturing a bacteriostatic container or material for preventing a food poisoning or a contamination of a living environment, and to impart its characteristics to a product. SOLUTION: A method for manufacturing a strong bacteriostatic container utilizing characteristics of the humic substance or the material comprises the steps of strongly pressurizing a special humic substance blank matured while exposing with a direct sunshine in a house adopted in a specific production center and agitating, dissipating a moisture by a force of a pressurized heat of 100 to 150 deg.C to an anhydrous state, and then processing the substance to ultrafine powder having a particle size of 3 to 5 microns. The powder is good drapable with a plastic or a paint. Even when the powder is injection molded or coated, the powder is integrated and diffused on a surface due to its substance characteristics, and hence the powder can hold a bacteriostatic function of the container or the material to contribute to a healthy life.

Description

【発明の詳細な説明】DETAILED DESCRIPTION OF THE INVENTION

【発明に属する技術分野】本発明は特定された腐植物質
の特性を活かして静菌を必要とする容器や材料を製造す
るために添加する材料として用いる腐植物質素材(以下
単に素材という)の処理法及び利用に関するものであ
る。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to the treatment of humic substances (hereinafter simply referred to as "materials"), which are used as materials added to manufacture containers and materials requiring bacteriostasis by utilizing the properties of specified humic substances. Law and use.

【従来技術】人の社会生活と健康にとって、食料や環境
をめぐる分野で静菌を必要とする容器や材料が不可欠に
求められそれに対応する容器や材料が数多く供給されて
いるが、それ等を構成する熱可サク性樹脂や塗料には銀
イオン、銅イオン、錫イオン等の有機化合物抗体物質を
用いて殺菌力を付与していることが多く、その為に求め
る目的とはうらはらに、食料や環境の安全という面が脅
かされる結果を生ずることがあった。その食中毒や環境
悪化等を予防する目的を、名実共に確実にかなえられる
容器や材料の出現が、環境悪化の顕在を受けて切実な社
会的課題として求められてきた。
2. Description of the Related Art For human social life and health, containers and materials that require bacteriostasis are indispensable in the fields of food and environment, and many containers and materials corresponding to these are supplied. In many cases, heat-resistant resins and paints are made of organic compounds such as silver ions, copper ions, and tin ions to impart bactericidal activity to foods. And the security of the environment could be threatened. The emergence of containers and materials that can reliably fulfill the purpose of preventing food poisoning and environmental deterioration has been demanded as a pressing social issue in response to the manifestation of environmental deterioration.

【発明が解決しようとする課題】本発明者等は前項に鑑
み、社会的期待に応えるべく鋭意研究を進めてきたが、
漸くその目的と結果を一致させ得る性質をもつ特定の腐
植物質の特性を本案主題の容器や材料製造に活かす方策
を発明するに至った。即ち有機質的である素材特性を無
機質である溶媒や塗料に転移拡大する困難な方法でもあ
った。求める特性のある素材は発見者が特定した地域に
数百万年前に生成蓄積されているものに出遭い、掘出し
て長い期間をかけて熟成し安定した品質化して供給して
いるものである。本発明者等はそれを素材そのままか、
或いは抽出液として多くの特性を確認し各分野に利用を
拡げて来たが、(特開第2000−14759号レジオ
ネラ菌の増殖抑制方法)本発明の主題であるプラスチッ
プの如き樹脂類或いは天然漆や合成塗料に混和して特性
を転移拡大して特徴を発現させる、即ち油性無機質に水
分を含む有機質を一体化させるという、コストと品質を
両立せしめる技術の開発に時間を費やして来たが、素材
を無水化する特殊処理をしてその壁を乗り越えて、困難
な課題を解決する方策を発明するに至った。
SUMMARY OF THE INVENTION In view of the foregoing, the present inventors have conducted intensive research to meet social expectations.
Eventually, they have invented a method for utilizing the characteristics of a specific humic substance having properties that can match its purpose and results in the manufacture of containers and materials according to the present invention. That is, it is also a difficult method to transfer and expand organic material properties to inorganic solvents and paints. Materials with the desired characteristics are those that have been generated and accumulated millions of years ago in the area specified by the discoverer, and are excavated and matured over a long period of time and supplied with stable quality . The present inventors use it as it is,
Alternatively, many properties of the extract have been confirmed and their use has been expanded in various fields. (Japanese Patent Laid-Open No. 2000-14759, a method for suppressing the growth of Legionella bacteria) We have spent time developing technology that balances cost and quality by mixing and blending with lacquer and synthetic paints to transfer and expand the characteristics to express the characteristics, that is, to integrate organic substances including water with oily inorganic substances. In order to overcome the barriers by performing a special treatment to dehydrate the material and invent a measure to solve the difficult problem.

【課題を解決するための手段及び作用】該素材は基本的
存在形態として掘り出し後2年間という長期間の熟成で
も29%の水分を構造的に抱え込んでいる。したがって
本案が求める所謂油性状の原料とは完全に混和すること
は困難であった。本発明者等は素材の構造形態を変える
為にまず素材を強く加圧し、発生する加圧熱の力もかり
て、水分を1%以下に放散せしめて無水化状に構造形態
を改質し、次いで3〜5ミクロンという超微細粉体(以
下単に粉体という)に加工した。粉体は対象溶媒の粒子
以下となって親和性が良好で、混合状態は着色集積拡散
剤の如く表面に浮き上がる如く拡散して溶媒との混和一
体化が進みその射出形成を容易ならしめた。又該粉体に
有機質部分があり、熱に弱い性質をもっているが、成形
する射出機は密閉した酸素の極めて少ない状況の中で混
合された原料を強く加圧し、それによって高温となり原
料を溶解して溶媒化されるので、その溶媒化温度200
〜250℃を受けても有機質が燃えることなく物質特性
が保持されていることを確認した。塗料類に該素材粉体
を混合するに際しても親和性が良く、前述溶媒対象と同
じく表面に集積拡散し、又焼付塗装手法にあっても80
℃の加熱温度なので何ら特性に影響が認められない。通
常加熱されて溶解化される溶媒或いは溶かされた塗料
は、射出成型或いは塗付乾燥すると、極めて緻密な表面
が形成されて、包み込まれる内部素材が表面に露出する
ことは少ない。しかし本案の素材が本案手段によって無
水化され数ミクロンという溶媒或いは塗料の物体粒子並
みに超微細加工され、溶媒或いは塗料と完全に一体化さ
れるほかに比重が軽いためか、その界面活性特性から
か、さながら着色集積拡散剤の如き働きで表面に被膜を
形成する状態となり、触媒バイオリアクター的機能の素
材特性を保持することが、本案主題の構造的要因をなす
ものである。超微細加工そのものは必ずしも新規ではな
いが29%余りの水分を構造的に抱え込んでいる本案対
象素材は、強い加圧による無水化工程を経ることによっ
て構造的物質組成が大きく変わり物質のもっている特性
があますところなく発現することとなり、特性の転移拡
大の途が拓け、本素材の特性を活かす利用分野と効果が
大巾に拡大する。例えは異なるが、青梅に白砂糖をまぶ
して抽出する梅シロップは最初は甘いが、3回目ともな
ると酢酸の様に酸味が極度に強くなる如き事象の反対事
象でもある。次に本案による強力な静菌力は何によって
得られるかという基本要因について検証すると次の如く
である。本来腐植物質は又の俗称を珪藻土とも呼ぶ素材
で世界中に広く賦存する。しかして本案で使用する珪藻
土は特定した産地で得られ、特殊な組成をもち、しかも
2年間も直射日光に晒すという特殊処理によって熟成さ
れて大きな特性を与えられている。本質的には数百万年
前ともいわれる海洋性動植物が堆積して腐植化されたも
ので、腐植状態の段階に止まっている特異な物質であ
る。他の多くの珪藻土といわれるものは他の元素と結合
し岩石化した状態であって純粋の腐植とはいえない。本
案で用いる素材はPHが2台で、成分が大きく分けてフ
ミン、フミン酸とフルボ酸を含む。フルボ酸は分子量が
2百から4百位で、フミン酸は2千から2万ともいわ
れ、分離すればPHも大きく隔たるそれぞれの性質をも
ちながら自然界に複合体で存在する文字通りの特異とし
か表現し得ない物質である。ちなみにフミンはどのPH
でも水に溶解せず、フミン酸はPH2以上で水に溶解、
フルボ酸はすべてのPHで水に溶解するという性質があ
る。ここに無水粉体化で特性がストレートに発現するこ
とを理解する鍵があるかもしれない。物質の構造式解明
も緒についたばかりの段階といわれる。かつて東大生産
研の故篠塚則子教授など腐植物質研究学者達が手がけら
れ、現在佐賀大学の宮島徹環境科学部教授の手で研究が
進められている。最新の基本構造式は図1に示される通
りである。又参考比較として国際腐植物質学研究会より
示された国際標準試料構造式図を図2に示しているがき
わめて複雑で全部の解明は来世紀に大きくずれ込む程困
難な道程を要するはかり知れぬ可能性を秘めた物質とい
われる。本質的特性として一般的に理解し易いことは、
物質の構造式そのものが不飽和を示し、更に解明の進む
予想モデル図についての情報によると示されている如
く、輪状にまとまって極めて懐の大きい塩基置換能をも
っているという。それが強力な静菌力の源で自然界のバ
ランスを保ちながらの機能は他に類を見出し得ない。本
素材は掘出し時の水分が58%余の泥状で存在するが、
掘り出し後2年間の温室ハウス内で日光に晒しながら攪
拌する熟成工程を経て尚29%の水分を構造的に抱え込
んでいる。その組成表を表1に示す。 成分的には多様なミネラル体で、通常は2年間も前述方
法で熟成された粒状或いはその抽出液として利用し数々
の効果を得て来たが、本案主題の無水化超微細粉体加工
することですべての力が発現したものと表現出来る更な
る利用法と効果への途が拓かれた。上述の特性をもつ粉
体が前項処理方法によって油性物質と混合され最終工程
を経て製品化されるが、素材の特性を失うことなく静菌
力を拡大保持することは奇跡的ですらある。特殊無水化
超微細粉体化処理されることによって溶媒或いは塗料に
特性が拡散、拡大されたもの如くである。抽出液を水や
空気に拡散させて示す殺菌的静菌作用と何等変わらな
い。人の生活万般に大きく役立つ作用である。結びに当
たって提言を許されるならば、自然界に存在する複合体
でありながら複雑怪奇ともいえる組成物が無水化超微細
粉体化処理を受けて融合体となり分化されない新しい物
質型にまで変化が及んだのはあるまいか。2年間に及ぶ
ハウス内の日光バク露処理によっても水分を29%余を
維持する如く構造体的に組み込まれている水分が、強い
加圧と粉体化でそれを失い離れることで特性発現が直截
化するところを見ると、構造形態そのものまでも改質
し、更にその特性が相手方と一体となり複合体となって
改質が及んでいるのではないかと想像される。重ねて本
案による静菌作用について想像表現を許されるのなら
ば、表面に集積拡散された素材のもつ特性が、触媒バイ
オリアクター的に働いて菌をよせつけないのではないか
といい得る程、本案事象は不思議ですらある。
The material has a basic structure of 29% moisture even after aging for two years after excavation. Therefore, it was difficult to completely mix with the so-called oily raw material required by the present invention. In order to change the structural form of the material, the present inventors first strongly pressurize the material, disperse the water to 1% or less with the help of the generated pressurizing heat, and reform the structural form to an anhydrous state, Then, it was processed into an ultrafine powder of 3 to 5 microns (hereinafter simply referred to as powder). The powder was less than the particles of the target solvent and had good affinity, and the mixed state was diffused so as to rise to the surface like a colored integrated diffusing agent, so that mixing and integration with the solvent proceeded and the injection formation was facilitated. In addition, the powder has an organic part and has a property of being weak to heat, but the injection machine for molding strongly pressurizes the mixed raw material in a sealed and extremely low oxygen state, thereby raising the temperature to a high temperature and dissolving the raw material. Solvation, the solvation temperature 200
It was confirmed that the organic material did not burn and the material characteristics were maintained even when it was subjected to ~ 250 ° C. It has a good affinity when mixing the material powder with paints, and accumulates and diffuses on the surface as in the case of the above-mentioned solvent.
Since the heating temperature is ° C., no influence on the characteristics is recognized. When a solvent or a coating material which is usually dissolved by heating is subjected to injection molding or coating and drying, an extremely dense surface is formed, and the wrapped internal material is rarely exposed on the surface. However, because the material of the present invention is dehydrated by the means of the present invention and is ultra-fine processed to the same size as the solvent or paint object particles of several microns, it is completely integrated with the solvent or paint, and because of its low specific gravity, its surface activity characteristics Indeed, maintaining the material properties of the catalytic bioreactor function in the state of forming a film on the surface by the action of the colored accumulation diffusing agent is a structural factor of the subject of the present invention. Although the ultrafine processing itself is not necessarily new, the material of the present invention, which structurally contains more than 29% of moisture, undergoes a dehydration process under strong pressure, resulting in a significant change in the structural material composition. Will be developed everywhere, opening the way for the transfer of properties to expand, and the fields of use and effects that take advantage of the properties of this material will be greatly expanded. For example, the plum syrup that is extracted by sprinkling white plums with white sugar is sweet, but it is the opposite of the third time that the acidity becomes extremely strong like acetic acid. Next, the basic factors of what makes the strong bacteriostatic power according to the present invention obtainable are as follows. Naturally, humic substances are also known as diatomaceous earth and are widely known throughout the world. The diatomaceous earth used in the present invention is obtained from a specified production area, has a special composition, and has been aged by a special treatment of exposing it to direct sunlight for two years, thereby giving great characteristics. It is essentially a humus that has accumulated millions of years of marine flora and fauna, and is a unique substance that remains at the humus stage. Many other diatomaceous earths are combined with other elements and are in a petrified state, not pure humus. The material used in the present invention has two PHs, and the components are roughly divided into humic, humic and fulvic acids. Fulvic acid has a molecular weight of about 200 to 4100, and humic acid is said to be about 2,000 to 20,000. When separated, PH has a property that greatly separates each other. It is a substance that cannot be expressed. By the way, which PH is humin?
But it does not dissolve in water, humic acid dissolves in water at pH 2 or higher,
Fulvic acid has the property of dissolving in water at all PHs. Here may be the key to understand that properties are manifested straight out in anhydrous powdering. It is said that the elucidation of the structural formula of a substance has just begun. Once a humic substance researcher, such as the late Professor Noriko Shinozuka of the Institute of Industrial Science at the University of Tokyo, was working on it, and research is currently being carried out by Professor Toru Miyajima, Faculty of Environmental Science, Saga University. The latest basic structural formula is as shown in FIG. Fig. 2 shows the structural formula of the international standard sample as shown by the International Society for the Study of Humic Substances as a reference for comparison. It is said to be a substance with a secret. What is generally easy to understand as an essential property is that
It is said that the structural formula of the substance itself shows unsaturation, and as shown in the information on the elucidated prediction model diagram, it has a very large base substitution ability in a ring shape. It is a source of strong bacteriostatic power and its function while maintaining natural balance is unmatched. This material is in the form of mud with over 58% moisture when excavated,
After the excavation, it has been structurally held at 29% moisture through a ripening process in which it is agitated while being exposed to sunlight in a greenhouse for two years. The composition table is shown in Table 1. Ingredients are various minerals, usually used for 2 years as granules aged by the above-mentioned method or used as an extract thereof to obtain various effects. This opened the way for further uses and effects that could be described as expressing all the power. The powder having the above-mentioned properties is mixed with an oily substance by the above-mentioned treatment method, and is manufactured through the final process. However, it is miraculous that the bacteriostatic power is maintained and expanded without losing the properties of the material. It seems that the properties are diffused and expanded in the solvent or paint by the special dehydration ultrafine powdering treatment. It is no different from the bactericidal bacteriostatic action shown by diffusing the extract in water or air. It is a function that is very useful for human life. If a recommendation is allowed in the conclusion, a composition that can be said to be a complex complex that exists in nature but can be said to be a complex mystery will undergo a dehydration ultrafine powdering process, and will change to a new substance type that does not differentiate into a fusion body Is there anything? Moisture that is structurally incorporated to maintain more than 29% of moisture even after two years of sunlight exposure in the house for two years, loses it due to strong pressurization and pulverization, and exhibits its characteristics. Looking straightforwardly, it is conceivable that the structural form itself is reformed, and that its properties are integrated with the other party to form a composite, and that the modification is being extended. If the bacteriostatic action according to the present invention can be imagined again, the characteristics of the material accumulated and diffused on the surface can be said to act as a catalytic bioreactor and prevent bacteria from accumulating. Is even stranger.

【実施例】以下実施例について詳細に記述する 本発明のもととなる物質素材は、長崎県南高来群の特定
地域から産出されるもので、(有)カラコ産業七福丸
(長崎県南高来郡愛野町甲4593の12番地)が掘出
し、粒子を揃え、温室ハウス内で2年間という長期間太
陽光線に晒しながら攪拌を繰返して熟成し目的の特性に
達した段階の水分29%余を構造的に抱え込んでいる。
その素材をプラスチップ押出し成形機(新潟鉄鋼製10
0トン射出成形機)を用いて加圧しつつ押出しペレット
化したものを得たが、強力的な押出圧による発熱状態
(100℃〜150℃)によって水分を放散し、成果品
ペレットは水分が1%以下の無水化に近いものとなっ
て、重量は半減した。該ペレットを擂鉢にて丁寧にすっ
て粉体化を図り、更にその成果品を水槽に入れ大きい粒
子のものを沈澱させて、水に溶解し混濁状態のものだけ
濾過紙を用いてすくい上げ、太陽光線にあてながら乾燥
して3〜5ミクロンという超微細粉体化されたものを得
た。この様にして乾燥された超微細粉体は構造的に水分
を抱え込まず乾燥が進むことから熟成時の状態と異なる
無水化された超微細粉体として構造形態的に改質された
ものといえる。本案実施例の粉体化工程は、試験的小規
模でのもであるが無水化された素材を超微細粉体に加工
する技術は長足に進歩しているので量産化に不安はな
い。この無水粉体素材を、帝人製造のペット樹肥100
に対して5を入れ練り合わせると、親和性が良好でよく
まじる。その加圧発熱体で押出される拡散状態をみると
着色集積拡散剤の働きと同じで、相手溶媒又は塗料の中
に埋没するのではなく表面に張りつく如くに表面に浮上
がる様になるのは比重の軽いためか或いはそ2年間も前
述方法で処理され与えられた界面活性という特性の故
か、射出成形機からの押出しがスムーズで、その溶媒化
温度条件200〜250℃で容器(食器)をつくった。
他の材料成型を成すに何の不安なくその再現性はほぼ完
全といえる。又無水粉体素材をカシュ塗料100に対し
て5を混合してよく攪拌すると良くなじみ、前記溶媒と
の混和と同じパターンを示し塗付工程で表面に集積拡散
した。静菌力比較は、本案方法によるプラスチップ容器
と、通常の類似容器に澱粉糊を薄く塗りつけ乾かない様
にして、気温30℃前後時期の室内に7日間静置した。
終了時目視検査したところ通常の対象容器には白い糸状
カビが一面に生えたが、本案によるプラスチップ容器に
はカビを発見できなかったからカビを寄せつけないとい
う表現も過分ではない。
EXAMPLES The following examples will be described in detail. The substance material that is the basis of the present invention is produced from a specific area of the Minamikogi group in Nagasaki Prefecture. No. 12 of Town 459) excavated, aligned the particles, repeated agitation while exposing to sunlight for a long period of 2 years in a greenhouse, matured and aged 29% of the water at the stage when the desired characteristics were reached. I'm holding it.
The material was added to a plus tip extrusion molding machine (10
(0 ton injection molding machine), and extruded into pellets while applying pressure. However, water was diffused due to the heat generation state (100 ° C. to 150 ° C.) due to the strong extrusion pressure, and the resulting pellets contained 1 % Or less, and the weight was reduced by half. Carefully pulverize the pellets in a mortar to pulverize, further place the resulting product in a water tank to precipitate large particles, dissolve in water and scoop up only the turbid state using filter paper. It was dried while being exposed to a light beam to obtain an ultrafine powder of 3 to 5 microns. The ultra-fine powder dried in this manner is structurally modified as a dehydrated ultra-fine powder different from the state at the time of aging because the drying proceeds without holding moisture structurally. . Although the powdering process of the embodiment of the present invention is a small-scale test, there is no concern about mass production since the technology of processing an anhydrous material into ultrafine powder has been advanced a long time. This anhydrous powder material is made from Teijin's pet manure 100
When kneading 5 is mixed, the affinity is good and the mixture is good. Looking at the diffusion state extruded by the pressurized heating element, it is the same as the function of the colored accumulation diffusing agent, and it will float on the surface so as to stick to the surface instead of being buried in the partner solvent or paint. Can be smoothly extruded from an injection molding machine, because of its low specific gravity or because of its surface activity treated and treated for two years as described above. ).
It can be said that the reproducibility is almost perfect without any fear in forming other materials. The anhydrous powder material was well blended when 5 was mixed with the cashew paint 100 and stirred well, and showed the same pattern as the mixture with the solvent and showed the same pattern as the mixture in the coating process and spread on the surface. For comparison of the bacteriostatic power, a starch paste was thinly applied to a plus chip container according to the method of the present invention and a similar container, and the mixture was allowed to stand for 7 days in a room at a temperature of about 30 ° C. so as not to dry.
Upon visual inspection at the end, white filamentous mold grew on the entire surface of the normal target container, but the mold could not be found in the plus tip container according to the present invention, so the expression that mold cannot be attracted is not unreasonable.

【発明の効果】本案の土台となる素材は、自然界に存在
する複合体物質であるが、主題である課題に利用するた
めに成された無水化超微細粉体加工は以前の利用法では
見出し得なかった新しい特性の発現につながった如くで
ある。本案主題の強力な静菌力容器や材料を得られたこ
とはその序章であろう。作用の項で述べた複雑な組成
で、大きな社会的貢献を成し得る力を秘めていたものが
解き放たれた如く、更なる新しい利用方法の途を拓いた
ものと考えられる。本発明者等がこの物質の利用法を追
いつづけて来た想いの底には、この物質が太古の地球が
苦難の世代の為に遺してくれた、貴重な資源ではなかろ
うか!との考えを棄てられなかったからである。本案発
明の為に成された無水化超微細粉体加工が、自然界に存
在しながらあまりに複雑な組成で、解明が進めば進む程
限りなく分化の拡がりが大きくなって、何れが本質を成
すものか見極めが困難であったものを、逆転の手法で乗
り越えて特性を活かす大きな利用に挑戦する始まりとな
る。ちなににビニール溶媒に複数の金属物質を混合して
金属塩素化合物とした物質は焼却してもダイオキシンは
結成させないとの情報がある。(スリツパーメーカー) それに比検して本案によって粉体を油性のものと混和で
き途が拓かれたことは燃料と混和することが可能とな
り、燃焼効率向上と排ガスのクリーン化に寄与する。上
述の利用法は一つの具体例であるが、他にもどれ丈利用
分野が拡がるか、はかり知れないといった如く、本素材
の無水化超微細粉体化技術がもたらす利用分野の拡大効
果は産業の創出や環境保全の分野に大きく貢献する。
The material on which the present invention is based is a complex substance existing in nature, but the dehydrated ultra-fine powder processing designed for use in the subject matter has not been identified in previous applications. It seems to have led to the development of new properties that could not be obtained. The fact that the powerful bacteriostatic containers and materials of the subject of the present invention have been obtained may be the foreword. The complex composition described in the section on action, which had the power to make a great social contribution, has been released, and it is thought that this has opened up new ways of using it. At the heart of the inventor's pursuit of the use of this substance is that this substance is a valuable resource that the ancient earth has left for generations of suffering! Because he could not abandon the idea. Dehydration ultra-fine powder processing made for the present invention has a too complicated composition while existing in nature, and as the elucidation progresses, the extent of differentiation increases as much as possible, and whichever is essential It is the beginning of challenging the big use that utilizes the characteristics by overcoming what was difficult to determine by using the reverse method. There is information that dioxins are not formed even if incinerated materials are obtained by mixing a plurality of metal materials with a vinyl solvent to form a metal chlorine compound. (Slipper manufacturer) Compared to this, the fact that the powder can be mixed with an oily material by the present invention and opened the way makes it possible to mix with the fuel, thereby contributing to improved combustion efficiency and cleaner exhaust gas. The above-mentioned application is one specific example.However, the expansion of the application field brought about by the dehydration ultra-fine powdering technology of this material is It greatly contributes to the field of creation and environmental conservation.

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

【図1】佐賀大学宮島徹の研究によるマリネックスの構
造式図である。
FIG. 1 is a structural diagram of Marinex by a study by Toru Miyajima of Saga University.

【図2】国際腐植物質学会より示された国際基準試料の
構造式図である。
FIG. 2 is a structural formula of an international reference sample indicated by the International Humic Society.

Claims (2)

【特許請求の範囲】[Claims] 【請求項1】特定産地に生産された腐植物質を特定され
た処理法によって長期間熟成して静菌力のある特性を有
するに至った物質素材を、特定された方法で超微細粉体
化し、複数の対象物体即ちプラスチップの如き溶媒に加
え充分に練り合わせて混和せしめ、求める容器材料に射
出成型すること、並びに天然うるしや合成塗料溶液に加
え、充分に攪拌して混和せしめ所要の容器素材や材料素
材に塗布し、物質素材特性を保持する製品を完成する構
成に成ることを特徴とする腐植物質の特性を活かした強
力静菌力容器や材料の製造法。
A humic substance produced in a specific production area is matured for a long period of time by a specified treatment method to produce a material having bacteriostatic properties into ultrafine powder by a specified method. Add to a plurality of target objects, that is, solvents such as plus chips, knead and mix well, and injection-mold into the desired container material.Add to natural wax or synthetic paint solution, mix well, mix well, and mix the required container material. A method for producing a container and a strong bacteriostatic force utilizing the characteristics of humic substances, characterized in that the composition is applied to a material or a material material to complete a product that retains the characteristics of the material material.
【請求項2】請求項1の特定された腐植物質素材を強力
に加圧し水分を放散せしめて無水構造組成に改質したの
ち超微細粉体に加工し、前項溶媒或いは塗料に混和を可
能ならしめ、腐植物質素材の特性を直截に発現せしめる
構成に成ることを特徴とする、請求項1記載の腐植物質
の特性を活かした強力静菌力容器や材料の製造法。
2. The humic substances specified in claim 1 are strongly pressurized to dissipate water, modified into an anhydrous structure composition, processed into ultrafine powder, and mixed with a solvent or a paint as described above. 2. The method for producing a container or material having a strong bacteriostatic force utilizing the characteristics of humic substances according to claim 1, characterized in that the characteristics of humic substances are directly expressed.
JP2000404802A 2000-12-27 2000-12-27 Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance Pending JP2002200639A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP2000404802A JP2002200639A (en) 2000-12-27 2000-12-27 Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP2000404802A JP2002200639A (en) 2000-12-27 2000-12-27 Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance

Publications (1)

Publication Number Publication Date
JP2002200639A true JP2002200639A (en) 2002-07-16

Family

ID=18868689

Family Applications (1)

Application Number Title Priority Date Filing Date
JP2000404802A Pending JP2002200639A (en) 2000-12-27 2000-12-27 Method for manufacturing strong bacteriostatic container or material utilizing characteristics of humic substance

Country Status (1)

Country Link
JP (1) JP2002200639A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR100734913B1 (en) 2005-07-25 2007-07-03 한국내쇼날주식회사 Production method of molding mixture of synthetic resin using urushi lacquer mixture and molding mixture of synthetic resin produced by thereof

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR100734913B1 (en) 2005-07-25 2007-07-03 한국내쇼날주식회사 Production method of molding mixture of synthetic resin using urushi lacquer mixture and molding mixture of synthetic resin produced by thereof

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