JP6883350B2 - Compositions for preventing or reducing hyperuricemia and methods for producing them - Google Patents

Compositions for preventing or reducing hyperuricemia and methods for producing them Download PDF

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JP6883350B2
JP6883350B2 JP2019211858A JP2019211858A JP6883350B2 JP 6883350 B2 JP6883350 B2 JP 6883350B2 JP 2019211858 A JP2019211858 A JP 2019211858A JP 2019211858 A JP2019211858 A JP 2019211858A JP 6883350 B2 JP6883350 B2 JP 6883350B2
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本 健 一 郎 安
本 健 一 郎 安
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Description

本発明は、高尿酸血症を予防又は軽減する組成物及びその製造方法に係り、より詳しくは、高尿酸血症の原因物質である尿酸の原料となるプリン体が食物から体内へ吸収されるのを阻止すると共に、生成した尿酸の尿への***量を増加させ、尿酸の血中濃度を低下させて高尿酸血症を予防又は症状を軽減させる組成物及びその製造方法に関する。 The present invention relates to a composition for preventing or reducing hyperuricemia and a method for producing the same. More specifically, purines, which are a raw material of uric acid, which is a causative substance of hyperuricemia, are absorbed from food into the body. The present invention relates to a composition for preventing or reducing hyperuricemia by increasing the amount of uric acid produced in urine and reducing the blood concentration of uric acid, and a method for producing the same.

高尿酸血症は、血液中の尿酸値が7.0mg/100mL以上と定義され、二次疾患として痛風(関節炎)、腎障害、尿路結石、動脈硬化、高血圧、心臓病などの多様な病気を誘発する。ここで、痛風は、高尿酸血症患者の血液から析出した尿酸の針状の結晶が関節や腱の周りに沈着し組織を刺激して激痛を発生させる関節炎である。 Hyperuricemia is defined as a blood uric acid level of 7.0 mg / 100 mL or higher, and various secondary diseases such as gout (arthritis), nephropathy, urinary tract stones, arteriosclerosis, hypertension, and heart disease. Induce. Here, gout is an arthritis in which needle-shaped crystals of uric acid precipitated from the blood of a hyperuricemia patient are deposited around joints and tendons to stimulate tissues and cause severe pain.

尿酸は、ヒトにおいてはプリン体の最終代謝産物として生合成されて血液中に存在し、尿から***される。尿酸の原料となるプリン体は、生体内で核酸やエネルギーの代謝経路から生じる内因性プリン体、及び食物に含まれる核酸を消化することによって生成される外因性プリン体がある。 In humans, uric acid is biosynthesized as the final metabolite of purines, exists in blood, and is excreted from urine. Purines that are raw materials for uric acid include endogenous purines generated from the metabolic pathways of nucleic acids and energy in the living body, and exogenous purines produced by digesting nucleic acids contained in food.

従来は、食物由来のプリン体の摂取量は、体内で生産されるプリン体の生成量の20%程度であったために、食物由来のプリン体の量は問題にならなかった。しかし、近年、日本人の食生活の変化に伴う肉類等の過剰摂取によって、飲食物から体内に取り込まれるプリン体の摂取量が著しく増大し、それに伴って高尿酸血症の患者が増加するという問題が発生した。
高尿酸血症は、更に通風をはじめとする多くの二次疾患を発症するために、生活習慣病の一つとして問題になってきた。しかも、高尿酸血症に対する治療方法は確立されておらず、高尿酸血症の発症及び二次疾患の予防と治療のための方法として、食事療法を継続的に実施することが推奨されているのが現状である。
Conventionally, since the intake of food-derived purines was about 20% of the amount of purines produced in the body, the amount of food-derived purines did not matter. However, in recent years, due to excessive intake of meat and the like due to changes in the dietary habits of Japanese people, the intake of purines taken into the body from food and drink has increased significantly, and the number of patients with hyperuricemia has increased accordingly. Problem has occurred.
Hyperuricemia has become a problem as one of the lifestyle-related diseases because it causes many secondary diseases such as gout. Moreover, no therapeutic method for hyperuricemia has been established, and continuous dietary therapy is recommended as a method for the prevention and treatment of the onset of hyperuricemia and secondary diseases. is the current situation.

高尿酸血症による尿酸量の低減方法に関しては、キトサンによる食物中のプリン体の吸収抑制作用が報告されている(特許文献1を参照)。この効果は、キトサンがプリン体と強い結合性を有し、プリン体の吸収を抑制することによるとされている。
キトサンの投与は、血液中の尿酸量の低減に一定の効果を上げるものの、外因性のプリン体の吸収を制限するだけのものであってその効果は制限的であり、高尿酸血症を根本的に治療するには不十分であった。
Regarding a method for reducing the amount of uric acid due to hyperuricemia, it has been reported that chitosan has an inhibitory effect on the absorption of purines in food (see Patent Document 1). It is said that this effect is due to the fact that chitosan has a strong binding property to purines and suppresses the absorption of purines.
Although administration of chitosan has a certain effect on reducing the amount of uric acid in the blood, it only limits the absorption of exogenous purines, and the effect is limited, which is fundamental to hyperuricemia. It was not enough to treat the disease.

一方、尿酸は、通常の代謝経路を介して血液中から尿へ排出されるため、尿酸の尿への排出量を増加させれば血液中の尿酸量は低下するものと考えられる。ここで、尿酸の尿に対する溶解度は、pH5.0では15mg/100mLでありpH7.0では200mg/100mLであり、尿に対する尿酸の溶解度は、尿のpHの上昇に伴い飛躍的に上昇する。従って、尿のpHが上昇すれば、尿酸の血中から尿への排出量も増えると考えられる。 On the other hand, since uric acid is excreted from the blood to urine via a normal metabolic pathway, it is considered that if the amount of uric acid excreted into urine is increased, the amount of uric acid in the blood decreases. Here, the solubility of uric acid in urine is 15 mg / 100 mL at pH 5.0 and 200 mg / 100 mL at pH 7.0, and the solubility of uric acid in urine increases dramatically as the pH of urine increases. Therefore, it is considered that if the pH of urine rises, the amount of uric acid excreted from the blood into urine also increases.

また、健康なヒトの尿のpHは、時間によって変動し、1日尿のpH(一日分を集めて測定した尿のpH値)は通常6〜7.5の範囲である。しかし、一般的に高血圧症患者は、尿のpHが低く、特に、痛風(関節炎)を発症した患者の約40%は、1日尿のpHが5.8以下であると言われている。また、尿***は人体に不必要なミネラルの排出経路であり、ヒトの尿のpHは、摂取したミネラルの影響を受けることが知られている。高尿酸血症の治療において、患者の尿のpHの管理は重要な事項である。 In addition, the pH of healthy human urine varies with time, and the pH of daily urine (pH value of urine measured by collecting daily doses) is usually in the range of 6 to 7.5. However, it is generally said that hypertensive patients have a low urine pH, and in particular, about 40% of patients who develop gout (arthritis) have a daily urine pH of 5.8 or less. In addition, urine excretion is an unnecessary mineral excretion route for the human body, and it is known that the pH of human urine is affected by the ingested minerals. Controlling the pH of a patient's urine is an important factor in the treatment of hyperuricemia.

尿のpHを上昇させて高尿酸血症を治療するために、種々の尿のpH上昇剤が使用されているが(例えば特許文献2を参照)、いずれも作用が緩和であって高尿酸血症の患者に対して効果を上げるのに長期間を有するのが実情である。また、高尿酸血症の患者は基礎的な健康状態が悪化し、他の合併症を併発したり、治療薬の副作用が惹起されたりする場合もあり、高尿酸血症患者の尿のpHの管理は容易なことではなかった。 Various urinary pH-increasing agents have been used to increase the pH of urine to treat hyperuricemia (see, for example, Patent Document 2), but all have mild effects and hyperuricemia. The reality is that it takes a long time to be effective for patients with illness. In addition, patients with hyperuricemia may have worsening basic health conditions, may have other complications, and may have side effects of therapeutic agents. It was not easy to manage.

ここで、ヒトの体に含まれるミネラルは、主要ミネラルとしてはカルシウム、リン、イオウ、カリウム、ナトリウム、マグネシウム、塩素の7種類であり、また微量ミネラルとしては鉄、ヨウ素、亜鉛、銅、セレン、マンガン、コバルト、モリブデン、クロムが挙げられ、更に毒性量以下の鉛、水銀、カドミウム等も含まれる。 Here, the minerals contained in the human body are seven types of major minerals, calcium, phosphorus, sulfur, potassium, sodium, magnesium, and chlorine, and trace minerals are iron, iodine, zinc, copper, selenium, and so on. Examples include manganese, cobalt, molybdenum and chromium, and also include lead, mercury, calcium and the like having a toxic amount or less.

ミネラルを摂取する場合は、食物から摂取するのが通常である。しかし、食物に含まれるミネラルは必要量に対して不足する場合もある。ミネラルの不足によるヒトの健康障害の治療や予防には、人工的に製造されたミネラルを補給することが多い。しかし、この方法では、体内への吸収が悪く、大半のミネラルが吸収されずに糞尿と共に***され、あるいは過剰摂取の問題、又は異物として拒否反応をもたらす等の不都合がある。 When ingesting minerals, it is usually taken from food. However, the minerals contained in food may be insufficient for the required amount. Artificially produced minerals are often supplemented to treat or prevent human health problems due to mineral deficiency. However, this method has disadvantages such as poor absorption into the body, excretion of most minerals together with manure without being absorbed, a problem of overdose, or a rejection reaction as a foreign substance.

一方、ミネラルは食物と共に人体に吸収されるのが最も自然であるが、これらの食物には必ずしも必要量のミネラルが含有されているとは限らず、更に多くの食物が、人体にとっての有害な有機物を含んでいる場合があるため、十分なミネラルを人の食生活のみから安全に摂取することは困難である。 Minerals, on the other hand, are most naturally absorbed by the human body along with food, but these foods do not always contain the required amount of minerals, and more foods are harmful to the human body. Since it may contain organic substances, it is difficult to safely ingest sufficient minerals only from the human diet.

このような問題を解消するために、特許文献3には、植物を加熱し溶融したものから抽出した、安全で人体への吸収率が高く、ミネラル量の相互のバランスが取れ、酸化還元電位が−200mV以下の還元性を有する生物ミネラルの製造方法が開示されている。しかし、特許文献3に記載された生物ミネラルは、酸化還元電位の強さがまだ不足し、尿のpH上昇作用は記載されていない。 In order to solve such a problem, Patent Document 3 states that a plant is extracted from a heated and melted plant, which is safe and has a high absorption rate into the human body, has a mutual balance of mineral amounts, and has an oxidation-reduction potential. A method for producing a biomineral having a reducing property of −200 mV or less is disclosed. However, the biological mineral described in Patent Document 3 still lacks the strength of the redox potential, and the action of raising the pH of urine is not described.

特開2009−120502号公報JP-A-2009-120502 特開昭60−197624号公報Japanese Unexamined Patent Publication No. 60-197624 特開2007−20519号公報Japanese Unexamined Patent Publication No. 2007-20519

本発明は、高尿酸血症の原因物質である尿酸の原料となるプリン体の食物から体内への吸収を制限すると共に、プリン体から生成された尿酸及び体内で生成された尿酸の尿中への排出を促進させ、血中の尿酸濃度を低下させることによって高尿酸血症を予防又は軽減する、植物ミネラルとキトサンとを含む組成物を提供することを課題とする。 The present invention limits the absorption of purines, which are the raw material of uric acid, which is a causative agent of hyperuricemia, from food into the body, and also into the urine of uric acid produced from purines and uric acid produced in the body. It is an object of the present invention to provide a composition containing a plant mineral and chitosan, which promotes the excretion of hyperuricemia and prevents or reduces hyperuricemia by lowering the concentration of uric acid in the blood.

また本発明は、高尿酸血症の患者に投与可能な、植物ミネラルとキトサンとを含む組成物の製造方法を提供することを課題とする。 Another object of the present invention is to provide a method for producing a composition containing a plant mineral and chitosan, which can be administered to a patient with hyperuricemia.

本発明は、かかる課題を解決するためになされたものであって、本発明の高尿酸血症を予防又は軽減する組成物は、脱アセチル化度が80%以上であるキトサンと、原料植物の灰分から得た植物由来のミネラル成分と、を含み、植物由来のミネラル成分が、質量%で、ナトリウム(Na)0.4〜1.6%、カリウム(K)0.7〜2.8%、カルシウム(Ca)5.7〜23.0%、及びマグネシウム(Mg)1.4〜5.6%を含むことを特徴とする。
The present invention has been made to solve such a problem, and the composition for preventing or reducing hyperuric acidemia of the present invention comprises chitosan having a deacetylation degree of 80% or more, and a raw material plant. look-containing mineral components derived from plants obtained from ash, the mineral components derived from plants, in mass%, sodium (Na) 0.4-1.6%, potassium (K) .7-2.8 %, calcium (Ca) 5.7 to 23.0%, and 1.4 to 5.6% magnesium (Mg), characterized in including Mukoto.

前記植物由来のミネラル成分は、原料植物がヒバマタ、ホンダワラ、アラメ、ワカメ、コンブ、竹、スギ、ヒノキ、松、ヨモギ、イタドリ若芽、熊笹、又はカヤから選ばれる1以上を含むことが好ましい。
The plant-derived mineral component preferably contains one or more of the raw material plants selected from hibamata, sargassum, arame, wakame seaweed, kelp, bamboo, sugi, hinoki, pine, yomogi, itadori young shoots, bear bamboo grass, and kaya.

前記植物由来のミネラル成分は、質量%で、ナトリウム(Na)0.4〜1.6%、カリウム(K)0.7〜2.8%、カルシウム5.7〜23.0%、及びマグネシウム(Mg)1.4〜5.6%を含むことができる。 The plant-derived mineral components are sodium (Na) 0.4 to 1.6%, potassium (K) 0.7 to 2.8%, calcium 5.7 to 23.0%, and magnesium in mass%. (Mg) can contain 1.4 to 5.6%.

前記ミネラル成分抽出液の酸化還元電位が−600mV以下であることが好ましい。
前記キトサンと前記植物由来のミネラル成分との質量比が1:1〜6:1であることが好ましい。
The redox potential of the mineral component extract is preferably −600 mV or less.
The mass ratio of the chitosan to the plant-derived mineral component is preferably 1: 1 to 6: 1.

また本発明の高尿酸血症を予防又は軽減する組成物の製造方法は、請求項1乃至3のいずれか1項に記載の高尿酸血症を予防又は軽減する組成物の製造方法であって、脱アセチル化度が80%以上であるキトサンと、原料植物の灰分から得た植物由来のミネラル成分と、を含み、ミネラル成分は、原料植物を不活性雰囲気中で650℃以上に加熱することによって灰化し、得られた灰分を粉砕し、粉砕された灰分から可溶なミネラル成分を水で抽出し、生成したミネラル成分抽出液の水分を蒸発させ粉末化して製造することを特徴とする。
The method for producing a composition for preventing or reducing hyperuric acidemia of the present invention is the method for producing a composition for preventing or reducing hyperuric acidemia according to any one of claims 1 to 3. It contains chitosan having a deacetylation degree of 80% or more and a plant-derived mineral component obtained from the ash content of the raw material plant, and the mineral component is to heat the raw material plant to 650 ° C. or higher in an inert atmosphere. The ash content obtained is crushed, a soluble mineral component is extracted from the crushed ash content with water, and the water content of the produced mineral component extract is evaporated and powdered to produce the product.

前記ミネラル成分抽出液は、灰分を200メッシュ以下に粉砕し、可溶なミネラル成分を、無機イオンを除去した水で抽出して製造することが好ましい。
前記ミネラル成分抽出液の製造工程は、酸化還元電位が−600mV以下になるように不活性ガスが注入されることができる。
前記ミネラル成分抽出液の製造工程は、前記ミネラル成分抽出液の酸化還元電位が−600mV未満の場合は、酸化還元電位が−600mV以下になるように不活性ガスが注入されることができる。
The mineral component extract is preferably produced by pulverizing the ash content to 200 mesh or less and extracting the soluble mineral component with water from which inorganic ions have been removed.
In the manufacturing process of the mineral component extract, an inert gas can be injected so that the redox potential becomes −600 mV or less.
In the manufacturing process of the mineral component extract, when the redox potential of the mineral component extract is less than −600 mV, an inert gas can be injected so that the redox potential becomes −600 mV or less.

食物からのプリン体の吸収を抑制するキトサンと、植物を不活性気体の雰囲気中で灰化して生成した灰分から抽出して得た植物由来のミネラル成分と、を含む組成物を投与することによって、高尿酸血症を予防又は軽減することができる。
また、本発明の植物由来のミネラル成分は、−600mV以下という強い還元力を有し、有害な過酸化ラジカルを還元して高尿酸血症の患者の健康状態を改善することができる。
By administering a composition containing chitosan, which suppresses the absorption of purines from food, and a plant-derived mineral component obtained by extracting the ash produced by ashing the plant in an atmosphere of an inert gas. , Hyperuricemia can be prevented or alleviated.
In addition, the plant-derived mineral component of the present invention has a strong reducing power of −600 mV or less, and can reduce harmful peroxide radicals to improve the health condition of patients with hyperuricemia.

本発明の組成物の製造工程を示すブロック図である。It is a block diagram which shows the manufacturing process of the composition of this invention.

以下に、添付した図面を参照して、本発明の実施の形態を詳細に記載する。この記載は、本発明を説明するためのものであって、この記載によって本発明の技術範囲を限定するものではない。本発明は、本発明の技術的範囲から逸脱しない範囲内で多様に変更して実施することが可能である。 Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. This description is for the purpose of explaining the present invention, and does not limit the technical scope of the present invention by this description. The present invention can be variously modified and implemented without departing from the technical scope of the present invention.

本発明者は、尿酸の前駆体であるプリン体が体内に吸収されるのを抑制するキトサンと、尿酸の尿への***を増加させる植物由来のミネラルと、を含む組成物を投与することにより、高尿酸血症患者の血液中の尿酸濃度を低下させ、高尿酸血症を防止し痛風へ進行するのを阻止することができると共に痛風の症状を軽減できることを見出して本発明を完成させた。 The present inventor administers a composition containing chitosan, which suppresses the absorption of purines, which are precursors of uric acid, into the body, and plant-derived minerals, which increase the excretion of uric acid into urine. The present invention has been completed by finding that it is possible to reduce the uric acid concentration in the blood of a hyperuricemia patient, prevent hyperuricemia and prevent the progression to gout, and reduce the symptoms of gout. ..

図1は、本発明の組成物の製造工程を示すブロック図である。
図1に示すように、本発明の高尿酸血症を予防又は軽減する組成物20は、脱アセチル化度が80%以上であるキトサン(6)と、植物1を不活性気体の雰囲気中で灰化し生成した灰化物2を粉砕工程で粉砕して得た灰化物粉末(3)から抽出して得た植物ミネラル(10)とを含んでなる。
FIG. 1 is a block diagram showing a manufacturing process of the composition of the present invention.
As shown in FIG. 1, the composition 20 for preventing or reducing hyperuric acidemia of the present invention comprises chitosan (6) having a deacetylation degree of 80% or more and plant 1 in an atmosphere of an inert gas. It contains a plant mineral (10) obtained by extracting from the ash powder (3) obtained by crushing the ashed product 2 produced by ashing in a crushing step.

[キトサン]
キトサンとは、キチン(β−1,4−ポリ−N−アセチルグルコサミン)の脱アセチル化物であり、β−1,4−ポリグルコサミン構造を主とする多糖類である。キトサンは、カニ、エビ、オキアミなどの甲殻類の甲皮や、カブトムシ、バッタなどの昆虫類の甲皮などを脱カルシウム処理し、除蛋白処理をして得られるキチンを、例えば、苛性ソーダで脱アセチル化することによって得ることができる。
[Chitosan]
Chitosan is a deacetylase of chitin (β-1,4-poly-N-acetylglucosamine), and is a polysaccharide mainly having a β-1,4-polyglucosamine structure. Chitosan decalcifies the crustacean shells of crabs, shrimp, krill, etc., and the shells of insects such as beetles, grasshoppers, etc. It can be obtained by acetylation.

通常は、キチンからの脱アセチル化度が約60%以上のものをキトサンというが、本発明では、脱アセチル化率が80%以上であることが好ましい。また、脱アセチル化度が90%以上であるキトサンがより好ましく、最も好ましい事例として脱アセチル化度が95%以上であるキトサンを挙げることができる。このようなキトサンは市販品が購入可能である。キトサンの脱アセチル化率が80%未満であると、消化管内におけるプリン体との結合率が低下することがあり、好ましくない。 Usually, chitosan has a degree of deacetylation from chitin of about 60% or more, but in the present invention, the degree of deacetylation is preferably 80% or more. Further, chitosan having a deacetylation degree of 90% or more is more preferable, and as the most preferable example, chitosan having a deacetylation degree of 95% or more can be mentioned. Commercially available products of such chitosan are available. If the deacetylation rate of chitosan is less than 80%, the binding rate with purines in the digestive tract may decrease, which is not preferable.

[植物由来のミネラル]
本発明は、植物1を不活性気体の雰囲気で灰化し生成した灰化物2から抽出して得た植物由来のミネラル(以下、「植物ミネラル」と記す)を更に含む。
本発明の植物ミネラル10は、植物1を不活性雰囲気中で650℃以上に加熱することによって灰化し、得られた灰化物2を粉砕し、灰化物粉末3から可溶なミネラル成分を水で抽出し、ミネラル成分抽出液5の水分を蒸発させて製造することができる。
[Plant-derived minerals]
The present invention further includes plant-derived minerals (hereinafter referred to as "plant minerals") obtained by extracting plant 1 from ashes 2 produced by incineration in an atmosphere of an inert gas.
The plant mineral 10 of the present invention is incinerated by heating plant 1 to 650 ° C. or higher in an inert atmosphere, the obtained ashes 2 are crushed, and soluble mineral components are extracted from the ashes powder 3 with water. It can be produced by extracting and evaporating the water content of the mineral component extract 5.

植物1を不活性雰囲気中で加熱、灰化すると、有機物が酸化分解される際に酸素と反応するので、残留する灰化物2は酸素欠乏になり還元性を有することになる。灰化物2に水を加えて製造した本発明の植物ミネラル成分のミネラル成分抽出液5は、酸化還元電位が−600mV以下であることが好ましい。酸化還元電位が−600mV未満の場合は、酸化還元電位が−600mV以下になるように不活性ガスの注入量を増加することが好ましい。
本発明の植物ミネラル10は、無機試薬を加え合わせて製造した通常の無機塩混合物とは異なるものであり、生体に吸収されやすいという特徴を有する。

When the plant 1 is heated and ashed in an inert atmosphere, the organic matter reacts with oxygen when it is oxidatively decomposed, so that the residual ash 2 becomes oxygen deficient and has reducing property. The mineral component extract 5 of the plant mineral component of the present invention produced by adding water to the ash product 2 preferably has an oxidation-reduction potential of −600 mV or less. When the redox potential is less than −600 mV, it is preferable to increase the injection amount of the inert gas so that the redox potential becomes −600 mV or less.
The plant mineral 10 of the present invention is different from a normal inorganic salt mixture produced by adding an inorganic reagent, and has a characteristic that it is easily absorbed by a living body.

また本発明の植物ミネラル10は、質量%で、ミネラル成分を100質量%とした場合にナトリウム(Na)0.4〜1.6%、カリウム(K)0.7〜2.8%、カルシウム5.7〜23.0%、及びマグネシウム(Mg)1.4〜5.6%を含むことが好ましい。この植物ミネラル10の成分の中では、特にカリウム及びマグネシウムがナトリウムより高い比率で含まれることが注目される。 Further, the plant mineral 10 of the present invention is based on mass%, and when the mineral component is 100% by mass, sodium (Na) 0.4 to 1.6%, potassium (K) 0.7 to 2.8%, and calcium. It preferably contains 5.7 to 23.0% and 1.4 to 5.6% magnesium (Mg). It is noted that among the components of the plant mineral 10, potassium and magnesium are particularly contained in a higher ratio than sodium.

マグネシウムは植物1の葉緑素の中心金属として酸素原子とは結合せずに存在して光合成にかかわる。植物1を不活性雰囲気中で加熱すると、マグネシウム塩の分解点が低いために(炭酸マグネシウムは、350℃で分解して酸化マグネシウムになる)周囲から酸素原子を奪うために灰化物2は強い還元性を有し、マグネシウムはアルカリ性の酸化マグネシウムとして存在することになる。また、マグネシウムは種々の生理作用にかかわる補酵素でもある。
また、植物ミネラル10は、還元性を有するので、有害な過酸化ラジカルを消去でき、摂取者の健康を増進することができるという特徴を有する。
Magnesium exists as the central metal of chlorophyll in Plant 1 without being bound to oxygen atoms and is involved in photosynthesis. When plant 1 is heated in an inert atmosphere, the decomposition point of magnesium salt is low (magnesium carbonate decomposes at 350 ° C to magnesium oxide), so the ashide 2 is strongly reduced to deprive the surroundings of oxygen atoms. Having the property, magnesium will exist as alkaline magnesium oxide. Magnesium is also a coenzyme involved in various physiological actions.
Further, since the plant mineral 10 has a reducing property, it has a feature that harmful radical peroxides can be eliminated and the health of the ingestor can be improved.

キトサン6と植物ミネラル10とは、質量比が1:1〜6:1であることが好ましい。キトサン6に対する植物ミネラル10の質量比が6:1以下では、植物ミネラル10の効果が出ないことがあり、1:1以上加えても、加えた量に比較して植物ミネラルの効果は増大せず、かえって塩分の取りすぎになる可能性があるので好ましくない。 The mass ratio of chitosan 6 and plant mineral 10 is preferably 1: 1 to 6: 1. If the mass ratio of plant mineral 10 to chitosan 6 is 6: 1 or less, the effect of plant mineral 10 may not be obtained, and even if 1: 1 or more is added, the effect of plant mineral is increased compared to the added amount. On the contrary, it is not preferable because it may take too much salt.

本発明の1実施形態として、血中尿酸濃度が7.4mg/100mLである高尿酸血症の患者であって、通風を発症して両手指の掌に近い部分が発赤し腫れあがって疼痛を訴える患者に、キトサンと植物ミネラルとの質量比が3:1である組成物4.0gを、1日3回ずつ3週間連続投与したところ、血中尿酸濃度が7.0mg/100mL以下に低下し、関節部の発赤及び腫れが治り、疼痛もおさまるという効果があった。 As one embodiment of the present invention, in a patient with hyperuricemia having a blood uric acid concentration of 7.4 mg / 100 mL, gout develops and the portion near the palms of both hands becomes red and swollen and causes pain. When 4.0 g of a composition having a mass ratio of chitosan to plant minerals of 3: 1 was continuously administered to the complaining patient three times a day for 3 weeks, the blood uric acid concentration decreased to 7.0 mg / 100 mL or less. However, it had the effect of healing the redness and swelling of the joints and reducing the pain.

以下に、植物ミネラルの製造方法を記載する。
1.植物ミネラルの製造
(1)灰化工程
原料の植物1を、不活性気体の雰囲気下、加熱炉で650℃〜1000℃の温度範囲で加熱して、植物1の有機物を分解して灰化物2を得る。650℃以上に加熱することによって農薬、殺虫剤、及び添加剤等の有機性有害物質は分解除去される。不活性気体としては、例えば窒素ガスやアルゴンガスなどを用いることができるが、不活性気体はこれらに限られるものではない。また、原料の植物としては、例えば、ヒバマタ、ホンダワラ、アラメ、ワカメ、コンブ、竹、スギ、ヒノキ、松、ヨモギ、イタドリ若芽、熊笹、又はカヤから選ばれる1以上をあげることが出来るが、原料植物はこれらに限られるものではない。
The method for producing plant minerals is described below.
1. 1. Production of plant minerals (1) Incineration process The raw material plant 1 is heated in a heating furnace in a temperature range of 650 ° C to 1000 ° C in an atmosphere of an inert gas to decompose the organic matter of the plant 1 and ash it 2. To get. By heating to 650 ° C. or higher, organic harmful substances such as pesticides, pesticides and additives are decomposed and removed. As the inert gas, for example, nitrogen gas or argon gas can be used, but the inert gas is not limited to these. In addition, as the raw material plant, for example, one or more selected from hibamata, sargassum, arame, wakame seaweed, kelp, bamboo, sugi, hinoki, pine, yomogi, Japanese knotweed young shoot, bear bamboo grass, or kaya can be mentioned, but the raw material. Plants are not limited to these.

(2)粉砕工程
灰化工程で得た灰化物2を、不活性気体の雰囲気下で(JIS)100〜500メッシュ篩通過画分が得られるように粉砕機で粉砕して灰化物粉末3を得る。
(3)植物ミネラル抽出工程
灰化物粉末3に不活性気体の雰囲気下で水を加え混合し、可溶なミネラル分を溶解させる。水としては、鉱物性ミネラルを含まないRO膜(逆浸透膜)処理水、又はイオン交換水を蒸留して得た蒸留水などを脱気したものが好適である。得られた混合液を、不活性気体の雰囲気下で加圧しながら200メッシュの篩で濾過してミネラル成分抽出液5と粗粒子成分4とに分離し、ミネラル成分抽出液5を得る。粗粒子成分4は、粉砕段階へ戻され、再粉砕される。
(2) Crushing step The ashed product 2 obtained in the ashing step is crushed with a crusher in an atmosphere of an inert gas so as to obtain a (JIS) 100-500 mesh sieve passing fraction to obtain an ashed powder 3. obtain.
(3) Plant mineral extraction step Water is added to the ash powder 3 in an atmosphere of an inert gas and mixed to dissolve the soluble minerals. As the water, RO membrane (reverse osmosis membrane) treated water containing no mineral minerals, distilled water obtained by distilling ion-exchanged water, or the like is preferably degassed. The obtained mixed liquid is filtered through a 200-mesh sieve while pressurizing under an atmosphere of an inert gas to separate the mineral component extract 5 and the coarse particle component 4, to obtain the mineral component extract 5. The coarse particle component 4 is returned to the pulverization stage and re-pulverized.

(5)乾燥工程
ミネラル成分抽出液5を、不活性気体の雰囲気下で凍結乾燥機またはスプレ−ドライヤー等を用いて乾燥、粉末化して植物ミネラル10の粉末を得る。
(6)製剤、包装工程
製剤、包装工程は、公知の方法で行うことができる。例えば、乾燥工程で得た植物ミネラル10の粉末とのキトサン6の粉末とを質量比で不活性気体の雰囲気下で1:1〜1:6の範囲で混合し、酸素透過率の低いフィルム等からなる袋体に不活性ガスと共に封入するか真空包装して、本発明に係る組成物を製造することができる。また、キトサン6は、例えば乳酸塩などの水溶液に溶解してミネラル成分抽出液5と混合し、乾燥、粉末化して植物ミネラル10の粉末を得ることもできる。
(5) Drying Step The mineral component extract 5 is dried and pulverized in an atmosphere of an inert gas using a freeze dryer, a spray dryer, or the like to obtain a powder of plant mineral 10.
(6) Formulation and packaging process The formulation and packaging process can be carried out by a known method. For example, a film obtained by mixing the powder of plant mineral 10 obtained in the drying step and the powder of chitosan 6 in a mass ratio in the range of 1: 1 to 1: 6 in an atmosphere of an inert gas to have a low oxygen permeability, or the like. The composition according to the present invention can be produced by encapsulating or vacuum-packing the bag body made of the above with an inert gas. Further, chitosan 6 can be dissolved in an aqueous solution such as lactate, mixed with the mineral component extract 5, dried and powdered to obtain a powder of plant mineral 10.

上記の方法によって生のままの松葉、よもぎ等を灰化した場合には、1,000kgの原料で約20〜100kg相当の植物ミネラル10(質量で原料1/50〜1/10)の抽出が可能である。 When raw pine needles, mugwort, etc. are incinerated by the above method, 1,000 kg of raw material can extract about 20 to 100 kg of plant mineral 10 (1/50 to 1/10 of the raw material by mass). It is possible.

「製造例」植物ミネラル
上記の方法を用いて植物1000kgを上記(1)〜(5)の方法をにより、不活性気体として窒素ガスを用い、電気炉中700℃で灰化し、RO水を用いて抽出し、ろ過し、ろ液をスプレードライヤーを用いて乾燥して53.1kgの植物ミネラル10を得た。
得られた植物ミネラル10の成分を表1に示す。
"Production example" Plant minerals 1000 kg of plants are incinerated by the above methods (1) to (5) using nitrogen gas as an inert gas at 700 ° C. in an electric furnace, and RO water is used. The mixture was extracted, filtered, and the filtrate was dried using a spray dryer to obtain 53.1 kg of plant mineral 10.
The components of the obtained plant mineral 10 are shown in Table 1.

植物ミネラル100g中の成分

Figure 0006883350
Ingredients in 100g of plant minerals
Figure 0006883350

[実施例1]植物ミネラルとキトサンとの組成物
53kgの植物ミネラル10を含むミネラル成分抽出液5に、脱アセチル化率80%のキトサン160kgと、乳酸89kgとを窒素雰囲気下で溶解し、スプレードライヤーで乾燥させて287kgの植物ミネラルとキトサン(乳酸塩)との組成物20を得た。実施例のキトサンと植物ミネラルとの質量比は3:1である。
[Example 1] Composition of plant mineral and chitosan 160 kg of chitosan having an deacetylation rate of 80% and 89 kg of lactic acid are dissolved in a mineral component extract 5 containing 53 kg of plant mineral 10 in a nitrogen atmosphere and sprayed. Drying with a dryer gave 287 kg of a composition 20 of plant minerals and chitosan (lactate). The mass ratio of chitosan to plant minerals in the examples is 3: 1.

[比較例1]
実施例1と同様に、但しキトサン6の乳酸塩を含み植物ミネラル10を含まない組成物を製造した。
[Comparative Example 1]
Similar to Example 1, however, a composition containing the lactate of chitosan 6 and not containing the plant mineral 10 was produced.

[比較例2]
実施例1と同様に、但し植物ミネラル10を含みキトサン6の乳酸塩を含まない組成物を製造した。
[Comparative Example 2]
Similar to Example 1, however, a composition containing plant mineral 10 and no lactate of chitosan 6 was produced.

[比較例3]
実施例1と同様に、但しキトサン6の乳酸塩を含み、植物ミネラル10の代わりにクエン酸ナトリウムとクエン酸カリウムの質量比1:1の混合物50kgを含む組成物を製造した。比較例3のキトサンとクエン酸ナトリウムとクエン酸カリウムの質量比1:1の混合物との質量比は1:1である。
[Comparative Example 3]
Similar to Example 1, however, a composition containing the lactate of chitosan 6 and containing 50 kg of a 1: 1 mass ratio mixture of sodium citrate and potassium citrate instead of the plant mineral 10 was produced. The mass ratio of chitosan, sodium citrate, and potassium citrate in Comparative Example 3 to a mixture having a mass ratio of 1: 1 is 1: 1.

[実施例2]
5週齢の雄性Wistarラットを3日間馴化飼育し、実験に使用した。馴化および実験期間中を通じて、動物飼育室の飼育条件は、室温23±2℃、湿度55±15%、換気回数は15回/時間、照明時間は1日あたり12時間とした。飲料水は、自由に摂取させた。
[Example 2]
Five-week-old male Wistar rats were acclimated and bred for 3 days and used in the experiment. Throughout the acclimatization and experimental period, the animal breeding room was bred at room temperature of 23 ± 2 ° C., humidity of 55 ± 15%, ventilation rate of 15 times / hour, and lighting time of 12 hours per day. Drinking water was allowed to be ingested freely.

3日間の馴化後、ラットを5群に分け(1群あたり10匹)、RNA3重量%と各被験薬3重量%を含有させた餌を4日間にわたって1日あたり15g/kg与えた。詳細には、第1群のラットには被験薬として実施例の組成物20を与え、第2群のラットには被験薬として比較例1の組成物を与え、第3群のラットには被験薬として比較例2の組成物を与え、第4群のラットには被験薬として比較例3の組成物を与えた。対照例のラットに対しては、被験薬を含まない以外は第1〜4群と同様の餌(同量のRNAのみを含有させた餌)を与えた。
なお、測定値は各群の算術平均値である。
After acclimation for 3 days, the rats were divided into 5 groups (10 per group) and fed a diet containing 3% by weight of RNA and 3% by weight of each test drug at 15 g / kg per day for 4 days. Specifically, the rats in the first group were given the composition of Example 20 as the test drug, the rats in the second group were given the composition of Comparative Example 1 as the test drug, and the rats in the third group were tested. The composition of Comparative Example 2 was given as a drug, and the rat of Group 4 was given the composition of Comparative Example 3 as a test drug. The rats of the control example were fed the same diet as in groups 1 to 4 (a diet containing only the same amount of RNA) except that the test drug was not contained.
The measured value is the arithmetic mean value of each group.

各群の尿を1か所に集め、各群の24時間尿pHを測定し表2に示した。

Figure 0006883350
The urine of each group was collected in one place, and the 24-hour urine pH of each group was measured and shown in Table 2.
Figure 0006883350

試験期間の最終日に、尿酸代謝酵素の阻害剤であるオキソ酸カリウムを250mg/kgとなるよう腹腔内注射して、その2時間後に採血した。採血した血液を1時間室温で放置した後、3000×gで10分間遠心分離を行うことで血漿を得た。血漿中の尿酸値は、市販のキット(尿酸C テストワコー、和光純薬工業株式会社製)により測定した。キットは、その使用説明書に従って使用した。
この結果を表3に示す(血中尿酸量の単位はmg/100mL血液)。
On the final day of the test period, potassium oxoate, an inhibitor of uric acid-metabolizing enzyme, was injected intraperitoneally to 250 mg / kg, and blood was collected 2 hours later. Plasma was obtained by allowing the collected blood to stand at room temperature for 1 hour and then centrifuging at 3000 × g for 10 minutes. The uric acid level in plasma was measured with a commercially available kit (Uric Acid C Test Wako, manufactured by Wako Pure Chemical Industries, Ltd.). The kit was used according to its instructions for use.
The results are shown in Table 3 (the unit of blood uric acid amount is mg / 100 mL blood).

Figure 0006883350
表2に示すように、通常のラットの尿のpH値は、人よりやや高い。
試験第1日目には、各群のラットはRNAの過剰摂取によって高尿酸血症を発症して24時間尿のpH値が低下した。
Figure 0006883350
As shown in Table 2, the pH value of urine in normal rats is slightly higher than that in humans.
On the first day of the study, rats in each group developed hyperuricemia due to RNA overdose and the pH value of urine decreased for 24 hours.

比較例1のキトサンのみを与えたラット及び比較例3のクエン酸ナトリウムとクエン酸カリウムの質量比1:1の混合物及びキトサンを投与したラットの尿のpH値は、試験薬を何も与えないラットの尿のpH値とほぼ同等であった。クエン酸ナトリウムとクエン酸カリウムの混合物は、本実験系では効果を示さなかった。比較例2及び本発明のキトサンと植物ミネラルとの組成物を投与したラットの尿のpH値は、2日目から著しい改善を示した。
なお、キトサンに対する植物ミネラルの質量比が6:1未満の組成物は、尿のpH値の有意な改善効果を示さないことがあり、好ましくない。
The pH values of the urine of rats fed only Chitosan of Comparative Example 1 and a mixture of sodium citrate and potassium citrate in a mass ratio of 1: 1 and rats treated with chitosan gave no test drug. It was almost the same as the pH value of rat urine. A mixture of sodium citrate and potassium citrate had no effect in this experimental system. The pH value of the urine of the rat to which the composition of Comparative Example 2 and the chitosan of the present invention and the plant mineral was administered showed a remarkable improvement from the second day.
A composition in which the mass ratio of plant minerals to chitosan is less than 6: 1 may not show a significant improving effect on the pH value of urine, which is not preferable.

表3に示すように、試験終了時[4日後]の対象例の尿酸の血中濃度は7.5mg/100mL血液であり、高尿酸血症を発症していた。
比較例1のキトサンのみを与えたラット及び比較例2の植物ミネラルのみを与えたラットの血中尿酸濃度は、それぞれ6.3及び5.7mg/100mL血液であり、やや改善を示したものの、不十分であった。また、比較例3のキトサンと、クエン酸ナトリウムとクエン酸カリウムの質量比1:1の混合物と、を投与したラットの血中尿酸濃度は6.2mg/100mL血液であり、比較例1のキトサンのみを与えたラットと同様であった。
一方、実施例に示すように、本発明のキトサンと植物ミネラルを含む組成物を投与したラットの血中尿酸濃度は3.2mg/100mL血液であり、大幅な改善を示した。
As shown in Table 3, the blood concentration of uric acid in the target example at the end of the test [4 days later] was 7.5 mg / 100 mL blood, and hyperuricemia had developed.
The blood uric acid concentrations of the rats fed only chitosan of Comparative Example 1 and the rats fed only the plant minerals of Comparative Example 2 were 6.3 and 5.7 mg / 100 mL blood, respectively, and although they showed a slight improvement, they showed a slight improvement. It was inadequate. Further, the blood uric acid concentration of the rat to which the chitosan of Comparative Example 3 and the mixture of sodium citrate and potassium citrate in a mass ratio of 1: 1 was administered was 6.2 mg / 100 mL blood, and the chitosan of Comparative Example 1 was obtained. It was similar to the rats fed only.
On the other hand, as shown in Examples, the blood uric acid concentration of rats to which the composition containing chitosan and plant minerals of the present invention was administered was 3.2 mg / 100 mL blood, showing a significant improvement.

以上、本発明に関する好ましい実施形態を説明したが、本発明は前記実施形態に限定されず、本発明の属する技術範囲を逸脱しない範囲での全ての変更が含まれる。 Although the preferred embodiment of the present invention has been described above, the present invention is not limited to the above-described embodiment, and includes all modifications within a range not departing from the technical scope to which the present invention belongs.

1 原料植物
2 灰化物
3 灰化物粉末
4 粗粒子成分
5 ミネラル成分抽出液
6 キトサン
10 植物ミネラル
20 組成物
1 Raw material plant 2 Ashide 3 Ashide powder 4 Coarse particle component 5 Mineral component extract 6 Chitosan 10 Plant mineral 20 Composition

Claims (7)

脱アセチル化度が80%以上であるキトサンと、原料植物の灰分から得た原料植物由来のミネラル成分と、を含み、
前記原料植物由来のミネラル成分が、質量%で、ナトリウム(Na)0.4〜1.6%、カリウム(K)0.7〜2.8%、カルシウム(Ca)5.7〜23.0%、及びマグネシウム(Mg)1.4〜5.6%を含むことを特徴とする高尿酸血症を予防又は軽減する組成物。
Chitosan deacetylation degree of 80% or more, and mineral components derived from the raw material plants obtained from the ash of raw material plants, only including,
The mineral components derived from the raw material plants are sodium (Na) 0.4 to 1.6%, potassium (K) 0.7 to 2.8%, and calcium (Ca) 5.7 to 23.0 in mass%. %, And a composition for preventing or reducing hyperuric acidemia, which comprises 1.4 to 5.6% of magnesium (Mg).
前記原料植物がヒバマタ、ホンダワラ、アラメ、ワカメ、コンブ、竹、スギ、ヒノキ、松、ヨモギ、イタドリ若芽、熊笹、又はカヤから選ばれる1以上を含むことを特徴とする請求項1に記載の高尿酸血症を予防又は軽減する組成物。The high according to claim 1, wherein the raw material plant contains one or more selected from hibamata, sargassum, arame, wakame seaweed, kelp, bamboo, sugi, hinoki, pine, yomogi, itadori young shoots, bamboo bamboo, or kaya. A composition that prevents or reduces uricemia. 前記キトサンと前記原料植物由来のミネラル成分との質量比が1:1〜6:1であることを特徴とする請求項1又は2に記載の高尿酸血症を予防又は軽減する組成物。 The composition for preventing or reducing hyperuricemia according to claim 1 or 2 , wherein the mass ratio of the chitosan to the mineral component derived from the raw material plant is 1: 1 to 6: 1. 請求項1乃至3のいずれか1項に記載の高尿酸血症を予防又は軽減する組成物の製造方法であって、
脱アセチル化度が80%以上であるキトサンと、
原料植物由来のミネラル成分と、を含み、
前記ミネラル成分は、原料植物を不活性雰囲気中で650℃以上に加熱することによって灰化し、得られた灰分を粉砕し、粉砕された灰分から可溶なミネラル成分を水で抽出し、生成したミネラル成分抽出液の水分を蒸発させ粉末化して製造することを特徴とする高尿酸血症を予防又は軽減する組成物の製造方法。
The method for producing a composition for preventing or reducing hyperuricemia according to any one of claims 1 to 3.
With chitosan, which has a degree of deacetylation of 80% or more,
Contains minerals derived from raw plants
The mineral component was produced by ashing the raw material plant by heating it to 650 ° C. or higher in an inert atmosphere, crushing the obtained ash, and extracting a soluble mineral component from the crushed ash with water. A method for producing a composition for preventing or reducing hyperuric acidemia, which is produced by evaporating the water content of a mineral component extract and pulverizing it.
前記ミネラル成分抽出液は、前記灰分を200メッシュ以下に粉砕し、前記可溶なミネラル成分を無機イオンを除去した水で抽出して製造することを特徴とする請求項に記載の高尿酸血症を予防又は軽減する組成物の製造方法。 The mineral component extract, high uric acid according to claim 4, by crushing the ash to 200 mesh or less, the soluble mineral component, characterized in that it produced was extracted with water to remove inorganic ions A method for producing a composition that prevents or reduces bloodemia. 前記ミネラル成分抽出液の酸化還元電位が−600mV以下であることを特徴とする請求項に記載の高尿酸血症を予防又は軽減する組成物の製造方法 The method for producing a composition for preventing or reducing hyperuricemia according to claim 5 , wherein the redox potential of the mineral component extract is −600 mV or less. 前記ミネラル成分抽出液の製造工程は、前記ミネラル成分抽出液の酸化還元電位が−600mV未満の場合は、酸化還元電位が−600mV以下になるように不活性ガスが更に注入されることを特徴とする請求項5に記載の高尿酸血症を予防又は軽減する組成物の製造方法。
The manufacturing process of the mineral component extract is characterized in that when the redox potential of the mineral component extract is less than -600 mV, an inert gas is further injected so that the redox potential becomes -600 mV or less. The method for producing a composition for preventing or reducing hyperuric acidemia according to claim 5.
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