JP4759337B2 - Plant mineral extract and method for producing the same - Google Patents

Plant mineral extract and method for producing the same Download PDF

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JP4759337B2
JP4759337B2 JP2005210477A JP2005210477A JP4759337B2 JP 4759337 B2 JP4759337 B2 JP 4759337B2 JP 2005210477 A JP2005210477 A JP 2005210477A JP 2005210477 A JP2005210477 A JP 2005210477A JP 4759337 B2 JP4759337 B2 JP 4759337B2
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栄基 中山
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本発明は、植物即ち陸上の草木や海草を加熱処理して得られる植物ミネラルの抽出物、及びその製造方法に関する。   The present invention relates to an extract of a plant mineral obtained by heat-treating a plant, that is, a plant or seaweed on land, and a method for producing the same.

種々のミネラルが生物体の生命活動に不可欠の栄養素であることは周知であり、人体へのミネラル群の摂取は大部分が食品を通じて行われている。地球上には100種類以上の元素が存在し、大地、植物、人体中の元素分布をみると、いずれにおいてもその約95%程度を占める水素、酸素、炭素及び窒素の4大元素を除いたものが無機質、即ちミネラルである。大地、植物、人体におけるミネラル群の分布は、表1のとおりであり、植物と人体とは、カルシウム、カリウム、リン、マグネシウム、ナトリウム、塩素、イオウなどが多く、略同様の分布を示すが、大地は、ケイ素とアミニウムとが圧倒的に多く、植物、人体とは全く異なる分布を示している。   It is well known that various minerals are essential nutrients for living activities of organisms, and the intake of mineral groups to the human body is mostly performed through food. There are over 100 types of elements on the earth, and the distribution of elements in the earth, plants, and human bodies, excluding the four major elements of hydrogen, oxygen, carbon and nitrogen, which account for about 95% of all of them. Things are inorganic, ie minerals. The distribution of mineral groups in the earth, plants, and human body is as shown in Table 1. Plants and human bodies are mostly calcium, potassium, phosphorus, magnesium, sodium, chlorine, sulfur, etc. The earth is overwhelmingly rich in silicon and aminium, showing a completely different distribution from plants and human bodies.

Figure 0004759337
Figure 0004759337

ミネラルは人体中で製造できないことから、動植物からなる食品から必要なものを必要なだけバランス良く摂取しなければならない。ところが、米、麦などの穀類や野菜、果実などの農作物のように人間が栽培する植物と野生の植物とでは、表2に示すようにミネラル分布が大きく相異する。そのため、人工的な栽培作物ばかりを食していると、人体に摂取し得るミネラルのバランスが崩れるので好ましくない。しかしながら、普段の食生活で野生植物を十分に摂ることは実際上困難である。   Since minerals cannot be produced in the human body, it is necessary to take as much balance as necessary from foods made of animals and plants. However, as shown in Table 2, mineral distribution is greatly different between plants grown by humans such as cereals such as rice and wheat, and crops such as vegetables and fruits. Therefore, eating only artificially cultivated crops is not preferable because the balance of minerals that can be ingested by the human body is lost. However, it is practically difficult to take enough wild plants in the normal diet.

Figure 0004759337
Figure 0004759337

そこで、従来から、土や岩石、砂、海水、地下水などからミネラルを抽出したり、動物や植物を燃焼させて炭化・灰化してミネラルを抽出することにより、ミネラル群を補給することが行われている。例えば、豆腐製造粕由来の灰分、樹木由来の灰分およびモロヘイア葉由来の灰分よりなる群から選択される1種または2種以上の灰分のミネラル成分と、海草類抽出物のミネラル成分とを含有してなる植物性ミネラル組成物が知られている(特許文献1を参照)。特許文献1によれば、豆腐製造粕由来の灰分は、焼却炉を用いて豆腐製造粕を温度400〜1800℃、好ましくは900℃で1〜8時間加熱することによって、樹木由来の灰分は、製炭の常法に従って樹木を温度400〜2500℃、好ましくは900〜1000℃で1〜8時間加熱することによって、モロヘイア葉由来の灰分は、電気炉等を用いてモロヘイア葉を温度400〜2500℃、好ましくは800℃で1〜8時間加熱して灰化することによって得られる。   Therefore, conventionally, minerals have been replenished by extracting minerals from soil, rocks, sand, seawater, groundwater, etc., or burning animals and plants to carbonize and ash to extract minerals. ing. For example, it contains one or more mineral components selected from the group consisting of ash derived from tofu production mash, ash derived from trees and ash derived from moroheia leaves, and a mineral component of seaweed extract A plant mineral composition is known (see Patent Document 1). According to Patent Document 1, the ash derived from the tofu production mash is heated at a temperature of 400 to 1800 ° C., preferably 900 ° C. for 1 to 8 hours using an incinerator, so that the ash derived from the tree is By heating the tree at a temperature of 400 to 2500 ° C., preferably 900 to 1000 ° C. for 1 to 8 hours in accordance with a conventional method of charcoal production, the ash content of the morohea leaf is converted to a morohea leaf at a temperature of 400 to 2500 using an electric furnace or the like. It is obtained by ashing by heating at ℃, preferably at 800 ℃ for 1 to 8 hours.

また、抽出材料として植物を燃料として用いた場合に生じる灰の利用を考慮し、植物由来の葉部、茎部、根部の焼成灰を、酸性水溶液、中性水溶液又はアルカリ性水溶液を用いて室温〜80℃で抽出して得られる抽出組成物、更にこの抽出組成物を乾燥させて得られる抽出乾燥組成物が知られている(例えば、特許文献2を参照)。また、灰分含有量の高い植物を灰化し、海水及び/又は海水由来の水系溶媒で抽出して調製することにより、植物由来の有用な種々のミネラル塩を含有する植物ミネラル塩が知られている(例えば、特許文献3を参照)。特許文献3によれば、原料植物の灰化条件は800〜900℃、3〜4時間の条件が良好で、抽出温度は室温〜40℃が良好であり、海水抽出液は濾別し、減圧濃縮し、更に濃縮液を蒸発釜で煮つめ、目的とする植物ミネラル塩を析出させる。   In addition, considering the use of ash produced when plants are used as fuel as an extraction material, plant-derived leaf, stem, and root baked ash is used at room temperature to an aqueous solution using an acidic aqueous solution, a neutral aqueous solution, or an alkaline aqueous solution. An extract composition obtained by extraction at 80 ° C. and an extract dry composition obtained by drying the extract composition are known (see, for example, Patent Document 2). Further, plant mineral salts containing various useful mineral salts derived from plants are known by ashing plants with a high ash content and extracting them with seawater and / or seawater-derived aqueous solvents. (For example, see Patent Document 3). According to Patent Document 3, the ashing conditions of the raw material plant are good at 800 to 900 ° C. for 3 to 4 hours, the extraction temperature is good at room temperature to 40 ° C., the seawater extract is filtered and reduced in pressure. Concentrate, then boil the concentrate in an evaporating kettle to precipitate the desired plant mineral salt.

他方、本願発明者は、平成8年頃から、自生する海草・野草・樹木葉などの生物体から抽出した水溶性無機ミネラルが人体の健康に有用な作用を示すことを発表している(例えば、非特許文献1を参照)。更に、ミネラルを含む生物体を加熱処理し、その炭化及び/又は灰化物からミネラルを抽出採取する方法を提案している(特許文献4を参照)。より具体的には、原料生物体内に含まれるミネラルの加熱上限温度で加熱することにより、有機質成分を除去して、採取すべき特定のミネラルを確実に抽出採取することができる。これにより、人体への吸収性が良くかつ安全で、ミネラルバランスが比較的安定した生物ミネラルが得られる。   On the other hand, the inventor of the present application has announced that water-soluble inorganic minerals extracted from living organisms such as seaweed, wild grass, and tree leaves, which have grown naturally, have a useful effect on human health since around 1996 (for example, (Refer nonpatent literature 1). Furthermore, a method has been proposed in which an organism containing minerals is heat-treated, and minerals are extracted and collected from the carbonized and / or incinerated products (see Patent Document 4). More specifically, by heating at the heating upper limit temperature of the mineral contained in the raw material organism, the organic component can be removed and the specific mineral to be collected can be reliably extracted and collected. As a result, a biomineral having good absorbability to the human body and safe and having a relatively stable mineral balance can be obtained.

また、本願発明者は、海草・野草・樹木葉などの灰化物から抽出した生物由来の水溶性ミネラルを含む食品等の処理剤を開発している(例えば、特許文献5を参照)。特許文献5によれば、海藻類や松葉、ビワ葉などの植物、シジミ、カニ殻など、多様なミネラル成分を含む原料を500〜2000℃の温度下で加熱し、得られた灰化物を200〜500メッシュ程度に微粉砕したものを用いて、生物ミネラルを抽出する。   Further, the inventor of the present application has developed treatment agents for foods and the like containing biologically derived water-soluble minerals extracted from ash products such as seaweeds, wild grasses, and tree leaves (see, for example, Patent Document 5). According to Patent Document 5, raw materials containing various mineral components such as seaweeds, pine needles, loquat leaves and other plants, swordfish, crab shells, etc. are heated at a temperature of 500-2000 ° C. Biominerals are extracted using a finely pulverized product of about ~ 500 mesh.

更に本願発明者は、この生物ミネラルが人体の健康に有用なだけでなく、食品などの鮮度保持や酸化防止にも有効であることを発表している(例えば、非特許文献2を参照)。そして、食品の酸化還元電位と人体の健康との関係について様々に研究、考察した結果、こうした有効作用を生じる理由として、酸化を防止する還元力が大きな役割を生じていることを確認し、食品の還元力を酸化還元電位として測定することにより、食品の良否を的確に判別し得る方法を開発している(例えば、特許文献6を参照)。この方法では、食品を水溶液の状態にしてその酸化還元電位を測定しかつ標準水素電極の数値に補正し、補正後の数値が−420mVに近いほど還元力が大きく良い食品であり、+815mVに近いほど還元力が低く悪い食品であると判定する。   Furthermore, the present inventor has announced that this biological mineral is not only useful for human health but also effective for maintaining the freshness of foods and preventing oxidation (for example, see Non-Patent Document 2). As a result of various studies and considerations regarding the relationship between the oxidation-reduction potential of food and the health of the human body, it was confirmed that the reducing power that prevents oxidation plays a major role as the reason for producing such an effective action. A method has been developed that can accurately determine the quality of a food by measuring the reducing power as a redox potential (see, for example, Patent Document 6). In this method, the oxidation-reduction potential is measured with the food in an aqueous solution, and corrected to the value of the standard hydrogen electrode. The corrected value is closer to −420 mV, and the food has a higher reducing power and is closer to +815 mV. It is determined that the food has a low reducing power and is bad.

中山栄基,「生物ミネラルが癌やアトピーなど生活習慣病を撃退する」,3年後・5年後のビジネスチャンス,日本ビジネス株式会社,2002年5月20日,p.339−344Ei Nakayama, “Biominerals repel lifestyle-related diseases such as cancer and atopy”, Business Opportunities 3 and 5 Years Later, Nippon Business Co., Ltd., May 20, 2002, p. 339-344 中山栄基,「生物ミネラルは食品業界の救世主」,3年後・5年後のビジネスチャンス,日本ビジネス株式会社,2002年5月20日,p.345−350Ei Nakayama, “Biominerals are the savior of the food industry,” Business Opportunities in 3 and 5 Years, Nihon Business Co., Ltd., May 20, 2002, p. 345-350 特開平7−313099号公報JP 7-313099 A 特開平9−208418号公報JP-A-9-208418 特開2000−4823号公報JP 2000-4823 A 特許第3084687号公報Japanese Patent No. 3084687 特開2004−49148号公報JP 2004-49148 A 特開平8−136500号公報JP-A-8-136500

しかしながら、上述した従来の方法により得られる生物ミネラルの還元力は、あまり高いものではないことが分かった。即ち、単なる植物の炭化又は灰化によって得られる抽出物、及びそれらの抽出物から更に溶媒を用いて再抽出したものでは、高い還元力が得られないという問題がある。   However, it has been found that the reducing power of the biological mineral obtained by the conventional method described above is not so high. That is, extracts obtained by simple carbonization or ashing of plants, and those obtained by re-extraction from these extracts using a solvent have a problem that high reducing power cannot be obtained.

本願発明者は、自生する海藻、野草、樹木葉などの炭化・灰化物及びその水溶性無機抽出物に、或る程度の還元力即ち酸化還元電位−50〜−100mV程度の還元力があることを見出し、その還元力が各種食品についてどの程度の鮮度保持効果を発揮するかを試験した。その結果、或る程度の鮮度保持効果を示すことは確認できたが、それは限定された食品についてのみ有効で、他の多くの食品について商品化可能なレベルの鮮度保持効果を得るまでには至らなかった。植物の種類によっては、希に高い還元力を有するものが存在し得ると思われるが、日常生活の周辺に存在する野生植物又は栽培植物にそのようなものは見当らなかった。   The inventor of the present application has a certain degree of reducing power, that is, a redox potential of about −50 to −100 mV, in the carbonized and incinerated products such as seaweed, wild grass, and tree leaves and their water-soluble inorganic extracts. The degree of freshness maintaining effect of various foods was tested. As a result, it was confirmed that a certain degree of freshness-preserving effect was exhibited, but this was effective only for limited foods, and it was not possible to obtain a freshness-maintaining effect that could be commercialized for many other foods. There wasn't. Depending on the type of plant, it may be possible to have a rarely high reducing power, but no such wild plant or cultivated plant exists in the vicinity of daily life.

更に、単に植物の炭化又は灰化物から得られる水溶性の無機質抽出物に含まれるミネラルは、時間の経過と共に酸化されてしまう。そのため、元々還元力の低い水溶性無機質抽出物では、当初の還元力が更に酸化で低下するという問題がある。従来から還元性を謳っているアルカリイオン水、還元水、ミネラルウォータなどの健康食品も、本願発明者が調査した限り、その多くは表示しているとおりの還元力を示さなかった。これは、当初還元力があったとしても、時間の経過と共に酸化したものと考えられる。   Furthermore, minerals contained in water-soluble mineral extracts obtained simply from carbonization or ashing of plants are oxidized over time. Therefore, a water-soluble inorganic extract that originally has a low reducing power has a problem that the initial reducing power is further reduced by oxidation. Conventionally, health foods such as alkaline ionized water, reduced water, and mineral water, which have been known to be reducible, have not exhibited the reducing power as indicated, as long as the inventors have investigated. This is considered to have been oxidized with the passage of time even if there was an initial reducing power.

そこで本発明は、上述した従来の問題点に鑑みてなされたものであり、その目的は、人体に安全で、これを直接摂取したときは各種の生活習慣病に対する防衛機能を高め、皮膚病などの疾患をより効果的に改善し得るように、また食品に用いたときは鮮度保持、酸化防止、発色性向上、褪色防止などの効果が得られるにように、高い還元力を発揮する植物由来の生物ミネラルを提供することにある。更に本発明の目的は、高い還元力を長時間維持し得る植物由来の生物ミネラルを提供することにある。また、本発明の別の目的は、かかる生物ミネラルを製造するための方法を提供することにある。   Therefore, the present invention has been made in view of the above-described conventional problems, and its purpose is to be safe for the human body, and when directly ingested, enhances the defense function against various lifestyle-related diseases, such as skin diseases. It is derived from a plant that exhibits high reducing power so that it can effectively improve the diseases of this product, and when used in foods, such as maintaining freshness, preventing oxidation, improving color development, and preventing discoloration To provide biominerals. Furthermore, the objective of this invention is providing the biological mineral derived from a plant which can maintain high reducing power for a long time. Another object of the present invention is to provide a method for producing such a biological mineral.

本願発明者は、植物の炭化又は灰化抽出物及びそれからの水溶性無機質抽出物について食品の鮮度保持や還元力の向上、酸化防止、発色性向上、褪色防止などの様々な試験を行った。その結果、酸化還元電位が−200mV以上の高還元力を有する植物炭化又は灰化抽出物及びそれからの水溶性無機質抽出物を見出し、かかる高い還元力によって実用上十分な食品の鮮度保持効果、還元力の向上及び維持、酸化防止、発色性向上、褪色防止、優れた呈味などの効果が得られることを確認した。   The inventor of the present application has conducted various tests on the carbonized or incinerated extract of plants and the water-soluble inorganic extract therefrom, such as maintaining the freshness of food, improving reducing power, preventing oxidation, improving color development, and preventing discoloration. As a result, a plant carbonized or incinerated extract having a high reducing power with a redox potential of −200 mV or more and a water-soluble inorganic extract therefrom are found, and such high reducing power provides a practically sufficient food freshness-retaining effect and reduction. It was confirmed that effects such as improvement and maintenance of power, prevention of oxidation, improvement of color development, prevention of fading, and excellent taste were obtained.

ところが、従来実施されている1000℃程度の温度による加熱で得られる炭化及び/又は灰化物並びにそれらからの抽出物は、単一の植物でも複数種類の植物の配合したものでも、高い還元力が得られなかった。そこで、本願発明者は、植物の炭化又は灰化物から得られる植物ミネラル抽出物の還元力は、その原料植物の燃焼温度に関係があるものと考え、様々な試験を行いかつ考察を加えた結果、本発明を案出するに至ったものである。   However, the conventional carbonization and / or ashing products obtained by heating at a temperature of about 1000 ° C. and extracts from them have a high reducing power regardless of whether they are a single plant or a mixture of multiple types of plants. It was not obtained. Therefore, the present inventor considered that the reducing power of the plant mineral extract obtained from the carbonization or ashing of the plant is related to the combustion temperature of the raw material plant, and the results of various tests and considerations The present invention has been devised.

本発明によれば、上記目的を達成するために、種以上の植物を2000℃以上の温度で加熱して熔融化することにより前記2種以上の植物が含有するミネラルの抽出物を抽出した植物ミネラル抽出物であって、前記抽出物の酸化還元電位が−200mV以上であることを特徴とする植物ミネラル抽出物が提供される。
According to the present invention, in order to achieve the above-mentioned object, the mineral extract contained in the two or more plants is extracted by heating and melting two or more plants at a temperature of 2000 ° C. or more . There is provided a plant mineral extract, wherein the extract has an oxidation-reduction potential of −200 mV or more .

この植物ミネラル抽出物は、天然由来の植物抽出物である無機質を含むことにより人体に安全なだけでなく、原料植物の熔融化により不要な有機物が十分に除去されて、原料植物が含有する所望のミネラルを高純度に含むので、従来の植物からの抽出物に比して非常に高い還元力を有する。従って、長期間に亘って還元力を維持することができる。   This plant mineral extract is not only safe for the human body by containing minerals, which are plant extracts derived from nature, but also desired by the source plant that unnecessary organic substances are sufficiently removed by melting the source plant. Therefore, it has a very high reducing power compared with the extract from the conventional plant. Therefore, the reducing power can be maintained over a long period of time.

或る実施例では、酸化還元電位が−200mV以上であることにより、人体にとって各種の生活習慣病に対する防衛機能を高め、皮膚病などの疾患をより効果的に改善し得るような、また食品に用いたときは鮮度保持、酸化防止、発色性向上、褪色防止などの効果が得られるような、高い還元力をもたせ、かつそれを長期間維持することができる。 In one embodiment, the oxidation-reduction potential is −200 mV or more, thereby enhancing the defense function against various lifestyle-related diseases for the human body and improving diseases such as skin diseases more effectively. when used in freshness retention, antioxidant, coloring improvement, Una O Ru are obtained effects such as anti-fading, remembering high reducing power, and can keep it a long time.

別の実施例では、少なくともカルシウム、カリウム、塩素、ナトリウム、イオウ、マグネシウム、リン、ケイ素を含む多種類の無機質を含有し、特に人体の健康維持に有用である。   In another embodiment, it contains many kinds of minerals including at least calcium, potassium, chlorine, sodium, sulfur, magnesium, phosphorus, silicon, and is particularly useful for maintaining the health of the human body.

本発明の別の側面によれば、1種類又は2種類以上の植物を加熱して熔融化することにより、原料植物が含有するミネラルの抽出物を得る植物ミネラル抽出物の製造方法が提供される。   According to another aspect of the present invention, there is provided a method for producing a plant mineral extract that obtains an extract of minerals contained in a raw material plant by heating and melting one or more kinds of plants. .

このように、原料植物の熔融化により不要な有機物が十分に除去されるので、原料植物が含有する所望のミネラルを高純度に含み、従来に比して非常に高い還元力を有しかつそれを長期間に亘って維持できる植物ミネラル抽出物が得られる。   In this way, unnecessary organic substances are sufficiently removed by melting the raw material plant, so that the desired mineral contained in the raw material plant is contained in high purity, and has a very high reducing power as compared with the conventional one. Can be obtained over a long period of time.

或る実施例では、2種類以上の植物をその種類毎に加熱して熔融化し、それらの熔融化物を配合することにより、所望の植物ミネラル抽出物を得ることができる。別の実施例では、2種類以上の植物を混合したものを加熱して熔融化することにより、同様に所望の植物ミネラル抽出物を得ることができる。いずれの場合にも、複数種類の植物を用いることによって、各植物に含まれる異なる種類のミネラルを含有することができると共に、1種類の植物では十分な還元力が無い場合でも、その配合により所望の高い還元力をもたせることができる。   In an embodiment, a desired plant mineral extract can be obtained by melting two or more kinds of plants by heating them for each kind and blending those melts. In another embodiment, a desired plant mineral extract can be obtained in the same manner by heating and melting a mixture of two or more kinds of plants. In any case, by using a plurality of types of plants, different types of minerals contained in each plant can be contained, and even if one type of plant does not have sufficient reducing power, it is desirable depending on its formulation. Can have a high reducing power.

また、或る実施例では、抽出物の酸化還元電位が−200mV以上である。高い還元力を有しかつそれを長期間維持可能な植物ミネラル抽出物を得ることができる。   In some embodiments, the redox potential of the extract is −200 mV or higher. A plant mineral extract having a high reducing power and capable of maintaining it for a long time can be obtained.

別の実施例では、原料植物を2000℃以上の温度で加熱して熔融化することにより、酸化還元電位が−200mV以上でありかつこれを長期間持続し得る植物ミネラル抽出物を製造することができる。   In another embodiment, a plant mineral extract having a redox potential of −200 mV or more and capable of sustaining it for a long period of time is produced by heating and melting the raw material plant at a temperature of 2000 ° C. or higher. it can.

更に別の実施例では、前記植物を1000℃以下の温度で加熱して炭化及び/又は灰化し、これを2000℃以上の温度で加熱して溶融化する。このように2段階に分けて加熱処理を行うと、最初の灰化/炭化工程で原料植物の嵩及び重量を少なくできるから、次の熔融化の作業を簡単にしかつそれに必要な加熱装置や設備を比較的簡単かつ小型に低価格で構成することができる。   In still another embodiment, the plant is heated at a temperature of 1000 ° C. or lower to be carbonized and / or incinerated, and then heated at a temperature of 2000 ° C. or higher to be melted. If the heat treatment is performed in two stages in this way, the bulk and weight of the raw material plant can be reduced in the first ashing / carbonization step, so that the next melting operation can be simplified and the heating equipment and equipment necessary for it. Can be configured relatively easily and compactly at a low price.

また、別の実施例では、植物の熔融化物から、水、植物酢又はアルコール溶液を用いて液体抽出物を得ることにより、含有する無機質の純度をより高めることができる。更に別の実施例では、得られた液体抽出物から水分を除去して、これを固体化することにより、酸化をより有効に防止して、より長期間に亘って高い還元力を維持することができる。   Moreover, in another Example, the purity of the inorganic substance contained can be improved more by obtaining a liquid extract from the melt of a plant using water, plant vinegar, or an alcohol solution. In yet another embodiment, removing water from the resulting liquid extract and solidifying it to more effectively prevent oxidation and maintain a high reducing power over a longer period of time. Can do.

以下に、本発明による植物ミネラル抽出物の好適な実施例について詳細に説明する。
先ず、1種類又は2種類以上の植物を加熱処理して、炭化及び/又は灰化する。原料植物は、事前に十分に汚れなどを落とし、水などで洗浄しかつ乾燥させておくことが好ましい。前記加熱処理は、使用する原料植物の種類に応じて、概ね300〜1000℃の範囲の温度で行う。得られた炭化及び/又は灰化物は、更に2000℃以上の温度で加熱し、マグマ状に熔融化させる処理を行う。これにより、本発明の植物ミネラル抽出物が抽出される。2種類以上の原料植物を使用する場合、使用する植物の種類毎に上述した加熱処理を行い、又はそれらを混合したものを加熱処理することができる。
Below, the suitable Example of the plant mineral extract by this invention is described in detail.
First, one kind or two or more kinds of plants are heat-treated to be carbonized and / or incinerated. It is preferable that the raw material plant is sufficiently cleaned in advance, washed with water and dried. The said heat processing is performed at the temperature of the range of about 300-1000 degreeC according to the kind of raw material plant to be used. The obtained carbonized and / or incinerated product is further heated at a temperature of 2000 ° C. or higher to be melted into magma. Thereby, the plant mineral extract of the present invention is extracted. When using 2 or more types of raw material plants, the heat treatment mentioned above is performed for every kind of plant to be used, or what mixed them can be heat-processed.

得られた熔融化物は、使用した原料植物が1種類の場合は、熔融化物それ自体が、例えば酸化還元電位約−200mV以上の高い還元力を有するものでなければならない。原料植物が2種類以上の場合は、それらの熔融化物の配合物、即ち植物の種類毎に加熱処理した熔融化物を配合したもの又は混合して加熱処理した熔融化物が、同様に酸化還元電位約−200mV以上の高い還元力を有するものであればよい。1種類の植物では単独で所望の酸化還元電位を有しないであっても、このように複数種類の植物を用いて調製することによって、高い還元力を得ることができる。   When the obtained melted material is one kind of raw material plant, the melted product itself must have a high reducing power of, for example, a redox potential of about −200 mV or more. When there are two or more kinds of raw material plants, a blend of those melted products, that is, a blended melt-treated product for each plant type or a melted product that has been mixed and heat-treated is similarly reduced in redox potential. Any material having a high reducing power of −200 mV or more may be used. Even if one kind of plant alone does not have a desired redox potential, a high reducing power can be obtained by preparing using a plurality of kinds of plants in this way.

上述したように2段階に分けて加熱処理を行うと、最初の炭化/灰化工程で原料植物の嵩及び重量を少なくできる。従って、次の熔融化の作業を簡単にし、かつその加熱装置及び設備を比較的小型に低価格で構成することができる。当然ながら、最初から2000℃以上の温度で原料植物を加熱し、1回の加熱工程で熔融処理することもできる。   When the heat treatment is performed in two stages as described above, the bulk and weight of the raw plant can be reduced in the first carbonization / ashing process. Therefore, the next melting operation can be simplified, and the heating device and equipment can be made relatively small and inexpensive. Of course, it is also possible to heat the raw material plant at a temperature of 2000 ° C. or higher from the beginning and perform the melting treatment in a single heating step.

このようにして得られた前記熔融化物又はその配合物に、一般水や脱イオンした純水、又は純植物酢の水溶液若しくはアルコール溶液を1:2〜3程度の割合で混合し、加熱する。次に、冷却した後、これからろ過などによって液体部分だけを分離して、より純度の高い植物ミネラル抽出物を得ることができる。   The melted product thus obtained or its blend is mixed with general water, deionized pure water, or an aqueous solution or alcohol solution of pure vegetable vinegar in a ratio of about 1: 2 to 3, and heated. Next, after cooling, only the liquid portion can be separated from the mixture by filtration or the like to obtain a plant mineral extract with higher purity.

更に、本発明によれば、このようにして得られた液体植物ミネラル抽出物を、好ましくは概ね20%以上に濃縮することができる。別の実施例では、水分を蒸発などにより完全に除去して、固体化することができる。このように濃縮した植物ミネラル抽出物は、それに含まれる無機質の酸化速度を更に遅らせることができ、概ね−200mV以上の酸化還元電位、即ち高い還元力をより長期間に亘って維持することができる。また、固体化したものは粉末化すると、使用上有利である。尚、固形化する際に過度に乾燥させると、却って酸化還元電位を低下させる虞があるので、注意しなければならない。   Furthermore, according to the present invention, the liquid plant mineral extract thus obtained can be preferably concentrated to approximately 20% or more. In another embodiment, the moisture can be completely removed by solidification, such as by evaporation. The plant mineral extract thus concentrated can further delay the oxidation rate of the mineral contained therein, and can maintain an oxidation-reduction potential of approximately −200 mV or higher, that is, a high reducing power over a longer period. . Further, it is advantageous in use if the solidified powder is made into powder. It should be noted that excessive drying when solidifying may reduce the oxidation-reduction potential.

使用する原料植物としては、地球上に存在する全ての植物を対象とすることができる。例えば、海草には、昆布、わかめ、あらめ、ほんだわら、ひじき、かじめなどがある。陸上植物には、杉、ひのき、くぬぎ、松、なら、いちょう、びわなどの樹木葉、竹、熊笹、イタドリ、クズ、ヨモギ、まこも、ドクダミ、スギナ、ノカンゾウ、クレソン、セリ、タンポポ、ギシギシ、スイバ、オオバギボウシなどの野草がある。しかし、これらは単なる例示であって、使用可能な原料を限定するものではない。いずれの種類であっても、原則として自生する繁殖力の旺盛な植物を選択することが好ましい。   As the raw material plant to be used, all plants existing on the earth can be targeted. For example, seaweed includes kelp, wakame, arame, hondawara, hijiki, and kamame. Land plants include tree leaves such as cedar, hinoki, kunugi, pine, nara, ginkgo, loquat, bamboo, bear pupa, itadori, kudu, mugwort, makomo, dokudami, sugina, licorice, watercress, seri, dandelion, swordfish, There are wild grasses such as sorrel and giant grass. However, these are merely examples, and the usable raw materials are not limited. Regardless of the type, in principle, it is preferable to select a plant having a vigorous fertility that grows naturally.

原料植物の選択や組合せに特に制限は無いが、より多種類のミネラルがバランス良く含まれるように、陸上の植物と海草とを2種類以上混ぜて使用することが好ましい。原料植物の炭化又は灰化物が含有する無機質には、カルシウム、カリウム、塩素、ナトリウム、ケイ素、マグネシウム、リン、イオウなどが多く含まれ、更に地球上に存在する多種類の無機質が微量含まれている。   There are no particular restrictions on the selection and combination of the raw material plants, but it is preferable to use a mixture of two or more terrestrial plants and seaweeds so that more types of minerals are contained in a balanced manner. The minerals contained in carbonized or incinerated products of raw materials contain a lot of calcium, potassium, chlorine, sodium, silicon, magnesium, phosphorus, sulfur, etc. Yes.

一般に植物の炭化又は灰化物は、上述したように或る程度の酸化を防止する還元力を有する。しかしながら、植物の種類によっては、その炭化又は灰化物からの抽出物が−200mV以上の酸化還元電位を有しない場合がある。従って、所望レベルの酸化還元電位が得られるように、使用する植物原料を適当に選択しかつ/又は組み合わせることが好ましい。特に、極端に還元力の低い植物原料は除外することが好ましい。そのためには、事前に様々な植物の種類毎に、5%程度の水溶液の抽出物を作り、その状態で酸化還元電位を測定し、還元力の高いもの、特に酸化還元電位約−200mV以上のものを選別することが好ましい。   Generally, the carbonized or incinerated products of plants have a reducing power that prevents a certain degree of oxidation as described above. However, depending on the type of plant, the carbonized or incinerated extract may not have a redox potential of −200 mV or higher. Accordingly, it is preferable to appropriately select and / or combine plant materials to be used so as to obtain a desired level of redox potential. In particular, it is preferable to exclude plant materials having extremely low reducing power. For this purpose, an aqueous solution extract of about 5% is prepared in advance for each kind of various plants, and the redox potential is measured in that state, and those having a high reducing power, particularly those having a redox potential of about −200 mV or more. It is preferable to sort things.

本発明の植物ミネラル抽出物は、このように天然由来の植物抽出物である無機質を含むことにより人体に安全なだけでなく、熔融化処理により、原料材料が有する還元力を利用して酸化還元電位が約−200mV以上の高い還元力をもたせ、かつそれを長期間維持することができる。その結果、これを人体に直接摂取した場合には、各種の生活習慣病に対する防衛機能を高め、皮膚病などの疾患を効果的に改善するなど、人体の健康に有益な作用をもたらしたり、食品に用いた場合には、その鮮度保持、酸化防止、発色性向上、褪色防止などの効果、優れた呈味などを得ることができる。   The plant mineral extract of the present invention is not only safe for the human body by including minerals that are plant extracts derived from nature in this way, but also by oxidation reduction using the reducing power of the raw material by melting treatment. It has a high reducing power with an electric potential of about −200 mV or more and can be maintained for a long time. As a result, when this is taken directly into the human body, it has a beneficial effect on human health, such as enhancing defense functions against various lifestyle-related diseases and effectively improving diseases such as skin diseases. When used in the above, effects such as maintaining freshness, preventing oxidation, improving color developability and preventing fading, and excellent taste can be obtained.

本発明は、その技術的範囲内において、上述した実施例に様々な変形・変更を加えて実施することができる。例えば、原料植物を炭化/灰化する方法には、本願発明者による上記特許文献4,5に記載されるように、原料植物内に含まれるミネラルの加熱上限温度で加熱したり、原料植物を500〜2000℃の温度下で加熱しかつ微粉砕するなど、他の従来公知の方法を用いることができる。   The present invention can be implemented by adding various modifications and changes to the above-described embodiments within the technical scope thereof. For example, in the method of carbonizing / ashing the raw material plant, as described in Patent Documents 4 and 5 by the inventors of the present application, the raw material plant is heated at the upper heating limit temperature of the mineral contained in the raw material plant, Other conventionally known methods such as heating and pulverizing at a temperature of 500 to 2000 ° C. can be used.

(実施例1)
陸上植物の竹、イタドリ、カヤ、クヌギと海藻のアスコフィラム属との5種類の植物を採取し、ほこり、土、石などの異物を除去しかつ水洗し、乾燥させた。各植物をそれぞれ単独で耐火ガス炉を用いて、約500℃の温度で充分な時間をかけて加熱し、最初の炭化及び/又は灰化処理を行った。次に、この最初の炭化・灰化物を同じく耐火ガス炉を用いて、更に約900℃の温度で加熱し、再度の炭化及び/又は灰化処理を行った。更に、この再度の炭化・灰化物を約2000℃の温度で加熱し、熔融処理した。この熔融処理には耐火鋼筒を使用し、該筒内に再度の炭化・灰化物を入れた状態で、その外周部を2500℃以上の火力のガスバーナーで加熱し、筒内の炭化・灰化物が熔融して筒外に流れ出るまで燃焼させた。
Example 1
Five types of plants, including terrestrial plants such as bamboo, Japanese knotweed, kayak, kunugi and seaweed Ascophyllum, were collected to remove foreign substances such as dust, soil and stones, washed with water and dried. Each plant was individually heated using a refractory gas furnace at a temperature of about 500 ° C. for a sufficient time, and the first carbonization and / or ashing treatment was performed. Next, this first carbonized and incinerated product was further heated at a temperature of about 900 ° C. using the same refractory gas furnace, and again carbonized and / or incinerated. Further, the carbonized / ashed product again was heated at a temperature of about 2000 ° C. and melted. In this melting process, a refractory steel cylinder is used, and the outer periphery of the cylinder is heated with a gas burner with a heating power of 2500 ° C. or more with carbonization / ashing product again in the cylinder, and the carbonization / ash inside the cylinder It was burned until the chemical melted and flowed out of the cylinder.

最初の炭化・灰化処理の後、再度の炭化・灰化処理の後、及び熔融処理の後に、それぞれ得られた最初の炭化・灰化物、再度の炭化・灰化物、及び熔融化物について、それらの酸化還元電位を測定した。酸化還元電位の測定は、得られた炭化・灰化物及び熔融物に水を加えて沸騰するまで加熱し、冷却後にろ布でろ過し、得られたろ液を1%水溶液に調整し、市販の酸化還元電位計(ORPメータ)で測定することにより行った。   After the first carbonization / ashing treatment, after the second carbonization / ashing treatment, and after the melting treatment, the first carbonization / ashing product, the second carbonization / ashing product, and the melted product obtained, respectively, The redox potential of was measured. The oxidation-reduction potential was measured by adding water to the obtained carbonized / ashed product and melt and heating until boiling, cooling and filtering with a filter cloth, adjusting the obtained filtrate to a 1% aqueous solution, The measurement was performed by measuring with an oxidation-reduction potentiometer (ORP meter).

その測定結果を以下の表3に示す。約500℃の加熱処理による炭化・灰化物は、いずれも明らかに有機物が残っており、酸化還元電位は低レベルであった。約900℃の加熱処理による炭化・灰化物は、500℃よりも加熱処理温度を上げることによって酸化還元電位が下がっており、還元力を有することを示している。約2000℃の熔融処理による熔融化物は、酸化還元電位が植物の種類により異なるものの、明らかに還元力が大幅に上昇していることが分かる。特徴的なことは、各植物の炭化・灰化物を等分に混合して熔融処理した配合物が2番目に高い還元力を示していることで、配合によって高い還元力の植物の影響を大きく受けていると考えられる。   The measurement results are shown in Table 3 below. All the carbonized and incinerated products obtained by heat treatment at about 500 ° C. clearly had organic substances remaining, and the oxidation-reduction potential was at a low level. The carbonized / ashed product obtained by the heat treatment at about 900 ° C. shows that the redox potential is lowered by raising the heat treatment temperature above 500 ° C., indicating that it has a reducing power. It can be seen that the melted product obtained by the melting treatment at about 2000 ° C. has a significantly increased reducing power, although the oxidation-reduction potential differs depending on the type of plant. What is characteristic is that the blend of the carbonized and ashed products of each plant equally mixed and melted shows the second highest reducing power, which greatly affects the effects of plants with high reducing power. It is thought to have received.

Figure 0004759337
Figure 0004759337

(実施例2)
野生植物の昆布、ワカメ、アラメ、ホンダワラ、アスコフィラム属、杉、松、ひのき、竹、カヤ、クマザサ、ヨモギ、イタドリを採取し、よく洗浄しかつ乾燥させた後、それぞれ単独で耐火釜を用いて、概ね800〜1000℃の範囲の温度で加熱し、炭化及び/又は灰化処理を行った。この炭化及び/又は灰化物は、20メッシュ程度のふるいを用いてふるい分けし、各粒サイズ毎に等分に配合した後、更に2000℃以上の温度で加熱し、熔融処理した。得られた熔融物30kgに対して、脱イオンした純水を100リットルの割合で混合し、沸騰するまで加熱した後、一昼夜冷却した。その上澄み液を、最初に市販のろ布を用いて、次に二段式の活性炭ろ過装置を用いてろ過し、更にろ過精度0.5μm前後のフィルタでろ過した。得られたろ液の1%溶液の酸化還元電位は−500mV以上であった。このろ液を20%以上に加熱濃縮し、更に濃縮して固体化した。得られた植物抽出無機質固体物の酸化還元電位が−200mV以上であることを確認した。
(Example 2)
Collect wild plants kelp, wakame, arame, hondawala, ascophyllum, cedar, pine, hinoki, bamboo, kayak, kumazasa, mugwort, weedbird, wash them well and dry them, and then use a fireproof kettle alone. The mixture was heated at a temperature in the range of approximately 800 to 1000 ° C. to perform carbonization and / or ashing. This carbonized and / or incinerated product was sieved using a sieve of about 20 mesh, blended in equal parts for each grain size, and then heated at a temperature of 2000 ° C. or higher for melting treatment. To 30 kg of the obtained melt, deionized pure water was mixed at a rate of 100 liters, heated to boiling, and then cooled all day and night. The supernatant was first filtered using a commercially available filter cloth, then using a two-stage activated carbon filter, and further filtered through a filter with a filtration accuracy of around 0.5 μm. The oxidation-reduction potential of a 1% solution of the obtained filtrate was −500 mV or more. The filtrate was heated and concentrated to 20% or more, and further concentrated to solidify. It was confirmed that the redox potential of the obtained plant-extracted inorganic solid was -200 mV or higher.

これら植物抽出無機質並びにそれらの溶媒抽出による20%濃縮溶液及び固体物について、その製造直後のもの、製造後室温に放置して1ヶ月経過後及び3ヶ月経過後のものをそれぞれ水道水で1%水溶液とし、それらの酸化還元電位(mV)を測定した。測定結果を以下の表4に示す。酸化還元電位の測定には、東亜電波工業(株)(TOA)製の測定器を用いた。尚、試料の希釈に用いた水道水の酸化還元電位は600〜700mVであった。これらの結果から、製造直後、製造後1ヶ月、製造後3ヶ月の酸化還元電位は、略同レベルであることが分かる。即ち、本発明による植物ミネラル抽出物は、高い還元力を一定期間保持し得ることを示している。   About these plant-extracted minerals and their 20% concentrated solutions and solids obtained by solvent extraction, those immediately after production, those after standing for 1 month and 3 months after standing at room temperature after production, are each 1% with tap water. It was set as the aqueous solution and those oxidation-reduction potentials (mV) were measured. The measurement results are shown in Table 4 below. A measuring instrument manufactured by Toa Denpa Kogyo Co., Ltd. (TOA) was used for the measurement of the oxidation-reduction potential. The redox potential of tap water used for sample dilution was 600 to 700 mV. From these results, it can be seen that the redox potential immediately after production, 1 month after production, and 3 months after production are substantially the same level. That is, it shows that the plant mineral extract according to the present invention can maintain a high reducing power for a certain period.

Figure 0004759337
Figure 0004759337

Claims (6)

2種以上の植物を2000℃以上の温度で加熱して熔融化することにより前記2種以上の植物が含有するミネラルの抽出物を抽出した植物ミネラル抽出物であって、前記抽出物の酸化還元電位が−200mV以上であることを特徴とする植物ミネラル抽出物。   A plant mineral extract in which two or more plants are heated and melted at a temperature of 2000 ° C. or more to extract an extract of minerals contained in the two or more plants, and the redox of the extract A plant mineral extract characterized by having an electric potential of -200 mV or more. 少なくともカルシウム、カリウム、塩素、ナトリウム、イオウ、マグネシウム、リン、ケイ素を含む多種類の無機質を含有する請求項1記載の植物ミネラル抽出物。   2. The plant mineral extract according to claim 1, comprising at least a variety of minerals including calcium, potassium, chlorine, sodium, sulfur, magnesium, phosphorus and silicon. 2種以上の植物をその種類ごとに1000℃以下の温度で加熱して炭化物又は灰化物を生成し、
前記生成した炭化物又は灰化物をそれぞれ混合し、
前記混合して得られた混合物を2000℃以上の温度で加熱して熔融化し、
前記植物が含有するミネラルの抽出物を得ることを特徴とする植物ミネラル抽出物の製造方法。
Two or more kinds of plants are heated for each kind at a temperature of 1000 ° C. or less to produce a carbide or an ash.
Mixing the produced carbide or ash, respectively,
The mixture obtained by mixing is heated and melted at a temperature of 2000 ° C. or higher,
A method for producing a plant mineral extract, comprising obtaining an extract of a mineral contained in the plant.
前記抽出物の酸化還元電位が−200mV以上であることを特徴とする請求項3に記載の植物ミネラル抽出物の製造方法。   The method for producing a plant mineral extract according to claim 3, wherein the redox potential of the extract is -200 mV or more. 前記植物の熔融化から、水、植物酢又はアルコール溶液を用いて液体抽出物を得ることを特徴とする請求項3または4に記載の植物ミネラル抽出物の製造方法。 From a molten reduction of the plant, the water method for producing a plant mineral extract according to claim 3 or 4, characterized in that by using plant vinegar or alcoholic solution to obtain a liquid extract. 前記液体抽出物から水分を除去して、これを固体化することを特徴とする請求項5に記載の植物ミネラル抽出部の製造方法。   The method for producing a plant mineral extractor according to claim 5, wherein moisture is removed from the liquid extract to solidify it.
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