JP2024000183A - Hydrogen-containing beverage generator, and method of generating hydrogen-containing beverage - Google Patents

Hydrogen-containing beverage generator, and method of generating hydrogen-containing beverage Download PDF

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JP2024000183A
JP2024000183A JP2022098809A JP2022098809A JP2024000183A JP 2024000183 A JP2024000183 A JP 2024000183A JP 2022098809 A JP2022098809 A JP 2022098809A JP 2022098809 A JP2022098809 A JP 2022098809A JP 2024000183 A JP2024000183 A JP 2024000183A
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豊成 原田
Toyonari Harada
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Abstract

PROBLEM TO BE SOLVED: To provide a device of producing beverage containing a remarkably larger amount of hydrogen than hydrogen water to solve the problem associated with conventional hydrogen water having been used to date that the amount of hydrogen contained therein is extremely small, although sucking hydrogen gas is particularly effective for treating an area relating to the brain, the eyes and the respiratory system of a human being, and taking hydrogen directly from the digestive system is effective for treating a digestive system.
SOLUTION: A hydrogen-containing beverage comprising a large amount of hydrogen bubbles is produced by filling a container half full with an optional beverage excluding a carbonated one, the container being equipped with a stirrer, means of introducing hydrogen gas into the container and air release means of discharging air present in the space above the beverage in the container to outside. The beverage is stirred keeping the container closed and thereby a hydrogen-containing beverage with a large amount of hydrogen bubbles is produced. Preferably, an albumen component, particularly dried albumen is added to the beverage to generate an even larger amount of hydrogen bubbles.
SELECTED DRAWING: Figure 1
COPYRIGHT: (C)2024,JPO&INPIT

Description

本発明は水素医療に用いられる水素入り飲料の生成技術の分野に属する。 The present invention belongs to the field of technology for producing hydrogen-containing beverages used in hydrogen medicine.

近年、体内に発生する活性酸素を還元する医療効果の認められた水素水及び水素ガスが注目されており、その医学論文が世界で多数発表されている。そして、水素水を飲む方式の場合には、水に溶け込む水素の量は極めて少ない事から、多量の水素水を飲まなくてはならないという欠点が有り、水素ガスを鼻から直接吸引する方式が主流になりつつある。しかし、水素ガスの鼻からの吸引では、脳・目・気管支系には著効が認められるものの、直接に消化器系への作用力は弱く、腸炎などの症例の中では水素水を飲む方が効果が高いという報告もされている。そこで、水素水を飲料とする方法の上記の欠点を補う新たな方法も必要となっている。なお、ここでは「液に溶存する水素」と気体の「水素ガス」等を区別せずに「水素」と総称する場合もあるが、いずれも分子状水素の事である。 In recent years, hydrogen water and hydrogen gas, which have been recognized for their medical effects in reducing active oxygen generated in the body, have attracted attention, and many medical papers have been published around the world. In the case of the method of drinking hydrogen water, the amount of hydrogen that dissolves in water is extremely small, so there is a drawback that a large amount of hydrogen water must be drunk, so the method of inhaling hydrogen gas directly through the nose is the mainstream method. It is becoming. However, although inhalation of hydrogen gas through the nose has a significant effect on the brain, eyes, and bronchial system, its direct effect on the digestive system is weak, and in cases such as enteritis, drinking hydrogen water is recommended. It has also been reported that it is highly effective. Therefore, there is a need for a new method to compensate for the above-mentioned drawbacks of the method of making hydrogen water into a drink. Note that although "hydrogen dissolved in a liquid" and gaseous "hydrogen gas" are sometimes collectively referred to as "hydrogen" without distinguishing between them, both refer to molecular hydrogen.

先ず、水素水生成の場合には、特許文献1の様な容器内に直接生成する電解式と、特許文献2の様な出来上がった水素ガスを水に溶存させる方法が一般的である。しかし、水の飽和水素濃度は1.6ppmと極めて小さく、それは加圧すれば少しは大きくなるものの、多くの水素を摂取するには限界があった。 First, in the case of producing hydrogen water, there is generally an electrolytic method such as Patent Document 1 in which hydrogen gas is directly generated in a container, and a method such as Patent Document 2 in which hydrogen gas is dissolved in water. However, the saturated hydrogen concentration in water is extremely low at 1.6 ppm, and although this can be increased slightly by pressurizing it, there is a limit to how much hydrogen can be taken in.

特開2005-111356号公報Japanese Patent Application Publication No. 2005-111356 特開2002-301483号公報JP2002-301483A 特開2004-42961号公報Japanese Patent Application Publication No. 2004-42961 特開2021-95092号公報JP 2021-95092 Publication 特開2018-140169号公報JP 2018-140169 Publication

本発明が解決しようとする課題は、人の消化器系に多くの水素を取り込む方法を見出す事である。しかし、従来から飲用に用いられている水素水では含有水素の量が極めて少ない事が難点であった。本発明では、水に限定せずに、人が飲みやすい好みの各種飲料を原料として、水素が多量に含まれる飲料を生成する機器を発明し、且つその生成方法を見出す事である。 The problem that the present invention seeks to solve is to find a way to get more hydrogen into the human digestive system. However, the problem with hydrogen water conventionally used for drinking is that the amount of hydrogen it contains is extremely small. The purpose of the present invention is to invent a device for producing a beverage containing a large amount of hydrogen using various beverages that people like to drink, not limited to water, as raw materials, and to discover a method for producing the same.

本発明による水素入り飲料生成器を実現する手段は、攪拌機能が付いた容器(1)と、該攪拌機能が付いた容器(1)の容器部(2)の上下で略中間部位まで入れる飲料(4)と、前記容器部(2)の外部から内部へ水素ガスを導入する水素ガス導入手段(7)と、前記容器部(2)の内部の前記飲料(4)の液面上部から前記容器部(2)の外方へ空気を放出する空気放出手段(8)と、前記水素ガス導入手段(7)及び前記空気放出手段(8)のそれぞれの開閉手段(9)(10)と、により構成される。 The means for realizing the hydrogen-containing beverage generator according to the present invention includes a container (1) with a stirring function, and a drink that can be poured into the container (1) with a stirring function up to approximately midway between the top and bottom of the container part (2). (4), hydrogen gas introduction means (7) for introducing hydrogen gas from the outside to the inside of the container part (2), and hydrogen gas introduction means (7) for introducing hydrogen gas from the outside to the inside of the container part (2), and an air release means (8) for releasing air to the outside of the container part (2); and opening/closing means (9) and (10) for each of the hydrogen gas introduction means (7) and the air release means (8); Consisted of.

また、本発明による水素入り飲料を生成する方法は、前記の水素入り飲料生成器を用いて、その攪拌機能が付いた容器(1)の前記容器部(2)の内部に、空気放出パイプ(8)の下端より下方未満に飲料(4)を入れる工程と、水素ガス導入パイプ(7)を通じて前記容器部(2)の内部に水素ガスを導入し、前記空気放出パイプ(8)により前記容器部(2)の内部の空気(11)が、前記容器部(2)の外方に順次放出されて、前記容器部(2)内部の飲料(4)の液面上部に水素ガス(12)が溜まるガス置換の工程と、前記開閉手段(9)(10)を閉じて前記容器部(2)の内部を密閉にする工程と、前記飲料(4)と水素ガス(12)を前記攪拌機能により攪拌する工程とにより、前記飲料(4)に水素を溶存させると共に水素を含んだ泡を前記容器部(2)の内部に生成する事を特徴とする。そして、好ましくは、前記飲料(4)に、予め卵白乃至は乾燥卵白を添加する事を特徴とする。 In addition, the method for producing a hydrogen-containing beverage according to the present invention uses the hydrogen-containing beverage generator described above, and an air release pipe ( 8) A step of introducing the beverage (4) below the lower end, and introducing hydrogen gas into the container part (2) through the hydrogen gas introduction pipe (7), and introducing the hydrogen gas into the container part (2) through the air release pipe (8). The air (11) inside the part (2) is sequentially released to the outside of the container part (2), and hydrogen gas (12) is released above the liquid level of the beverage (4) inside the container part (2). a step of gas replacement in which hydrogen gas accumulates; a step of closing the opening/closing means (9) and (10) to seal the inside of the container portion (2); and a step of replacing the beverage (4) and hydrogen gas (12) with the stirring function. The stirring step is characterized in that hydrogen is dissolved in the beverage (4) and bubbles containing hydrogen are generated inside the container portion (2). Preferably, egg white or dried egg white is added to the beverage (4) in advance.

高い医療効果が年々認められつつある水素医療において、水素ガス吸引に比して、含有水素量が少ないことが難点であった水素水に代わるものとして、消化器系に充分な水素を摂取する事が出来る簡便な、水素入り飲料生成器とその生成の方法を世の中に提供する事が出来る。 In hydrogen medicine, whose high medical effects are being recognized year by year, ingesting sufficient hydrogen for the digestive system is an alternative to hydrogen water, which has the disadvantage of containing less hydrogen compared to hydrogen gas inhalation. We can provide the world with a simple hydrogen-containing beverage generator that can do this, and a method for generating it.

本発明の概念的説明図。1 is a conceptual explanatory diagram of the present invention.

本発明による水素入り飲料生成器の一例を、図1の概念的説明図を用いて詳しく説明する。まず、その前提として、本発明者は、水素水生成技術を極める過程で、水素は水以外の各種のほとんどの飲料の成分と混合しても、化学的に反応することが無いか、或は、有害成分を発生する事は無く、その飲料に水素を含ませても、水素の効用を全く害する事が無い事、従って、飲料を直接に電気分解して水素を得る事に挑戦しなければ、原料は水に限定しないで、様々な各種のお好みの飲料を原料とする事が出来ることを見出した。実際、例えばオレンジ100%生ジュースは電流を流す電解が可能で水素泡も生成するが、電極寿命が極端に短くなってしまった経験も有している。そこで、本発明では、水素ガス発生そのものは、原料の飲料にはよらないで、本発明の範疇外である、例えば特許文献5の様な本発明者の発明した水素発生手段から、攪拌機能の付いた容器内に導入し、その水素ガスと飲料を容器内で密閉し、攪拌する事により水素泡を形成し、含有水素が格段に多い水素入り飲料を生成する新しい方法を見出した。この際、原料としては、炭酸系飲料は攪拌する事により多量の炭酸ガスを発生するので除外する。 An example of a hydrogen-containing beverage generator according to the present invention will be explained in detail using the conceptual explanatory diagram of FIG. First, as a premise, in the process of mastering hydrogen water generation technology, the present inventor discovered that hydrogen does not react chemically even when mixed with most of the ingredients of various beverages other than water, or , no harmful components are generated, and even if hydrogen is added to the beverage, the effectiveness of hydrogen will not be harmed at all.Therefore, we must try to obtain hydrogen by directly electrolyzing beverages. It was discovered that the raw material is not limited to water, but can be made from a variety of your favorite beverages. In fact, for example, 100% raw orange juice can be electrolyzed by passing an electric current through it, and hydrogen bubbles are also generated, but we have experience of extremely shortened electrode life. Therefore, in the present invention, hydrogen gas generation itself does not depend on the raw material beverage, but is outside the scope of the present invention, for example, from a hydrogen generating means invented by the present inventor as in Patent Document 5, and is not dependent on the stirring function. We have discovered a new method for producing a hydrogen-containing beverage with significantly higher hydrogen content by introducing the hydrogen gas into a container with hydrogen gas, sealing the hydrogen gas and beverage inside the container, and stirring to form hydrogen bubbles. At this time, carbonated beverages are excluded as raw materials because they generate a large amount of carbon dioxide gas when stirred.

図1は本発明の好ましい実施形態の一例を示すもので、攪拌機能が付いた容器(1)として一般に市販されている電動シェーカー(1)を用いる。電動シェーカーは容器部(2)と蓋(3)と回転モータを主とする電動部(5)と回転羽根(6)を備えている。容器部(2)に水素ガスを導入する手段として蓋(3)を上下に貫通するパイプ(7)を設置するが、この手段は容器部(2)のどの部位を貫通していても良く、導入された水素ガス(12)はその比重の軽さから必ず容器部(2)の最上部から順次蓄積されることになる。原料となる飲料(4)は、充分な量の水素ガス(12)と生成される水素泡の量を確保するために、容器部(2)の概略半分程を目安に入れる。そして、容器部(2)の内部から空気を放出する手段として蓋(3)を上下に貫通するパイプ(8)を設置するが、このパイプ(8)の最下端は飲料(4)の液面より上に在って、パイプ(8)の最下端は飲料(4)により塞がれる事は無いので、このパイプ(8)を通じて容器部(2)内の空気(11)は外方への放出が可能となる。その際に、パイプ(8)の最下端は空気の残存量を少なくする為に、好ましくは飲料(4)の液面上部すれすれにまで下げる。図1には示していないが、パイプ(8)は上下に長さを変えられる2段パイプの構造にすると、飲料(4)の量に応じて最適な状態を構成する事も出来る。このパイプ(7)とパイプ(8)にはそれらの開閉が可能となる開閉手段を設置する。この開閉手段はコック類でもバルブ類でもキャップ類でも良いが、本実施形態ではキャップ(9)(10)を用いる。 FIG. 1 shows an example of a preferred embodiment of the present invention, in which a commercially available electric shaker (1) is used as a container (1) with a stirring function. The electric shaker includes a container part (2), a lid (3), an electric part (5) mainly including a rotating motor, and rotating blades (6). As a means for introducing hydrogen gas into the container part (2), a pipe (7) is installed that vertically penetrates the lid (3), but this means may penetrate through any part of the container part (2). The introduced hydrogen gas (12) is necessarily accumulated sequentially from the top of the container portion (2) due to its light specific gravity. In order to ensure a sufficient amount of hydrogen gas (12) and the amount of generated hydrogen bubbles, the beverage (4) as a raw material is poured approximately half way into the container (2). A pipe (8) passing through the lid (3) vertically is installed as a means for releasing air from the inside of the container part (2). Since the lowest end of the pipe (8) is not blocked by the beverage (4), the air (11) inside the container part (2) is directed outward through this pipe (8). Release becomes possible. At this time, the lowest end of the pipe (8) is preferably lowered to just above the liquid level of the beverage (4) in order to reduce the amount of remaining air. Although not shown in FIG. 1, if the pipe (8) is constructed as a two-stage pipe whose length can be changed up and down, it is possible to configure the optimum state according to the amount of beverage (4). The pipe (7) and the pipe (8) are provided with an opening/closing means that enables them to be opened and closed. This opening/closing means may be cocks, valves, or caps, but in this embodiment, caps (9) and (10) are used.

次に、本発明による水素入り飲料の生成方法を説明する。 前記電動シェーカー(1)の前記容器部(2)の内部の略半分程で、且つ、前記パイプ(8)の最下端より下で、従ってその最下端を塞がない程度の位置にまで飲料(4)を入れた後に、パイプ(7)に水素導入チューブ(15)を繋いで水素発生手段(14)から水素ガスを容器部(2)の内部にゆっくりと入れる。この容器部(2)の内部に入った水素ガス(12)は、該内部に存在する空気より比重が10倍も軽いので、容器部(2)の内部に存在した空気(11)はパイプ(8)を通じて外部に放出される。こうして、導入された水素ガス(12)は大きな比重差により明確に出来るガス境界面(13)より上に蓄積されていく。水素発生手段(14)の単位時間当たりの水素ガス発生量から、容器部(2)内の液面上部の容量を満たす時間が計算できるので、概略その時間以上経過すると、容器部(2)内部のガス置換は完了するので、ここで水素ガスの導入を停止する。ここで、パイプ(7)とパイプ(8)にキャップ(9)(10)を被せて容器部(2)の内部を密閉にする。この際に、容器部(2)内部の水素ガス(12)が外方に少しでも漏れないようにする為に、キャップ(9)を先に被せることが好ましい。その後、電動シェーカー(1)の攪拌用の回転羽根(6)を回転させて前記飲料(4)の水素を含んだ液と泡を容器部(2)の内部に生成する。なお、この攪拌時に容器部(2)を水平近くまで傾けると、水素ガスと飲料と回転羽根(6)の接触が多くなりより短い時間で多くの水素泡が形成される。 Next, a method for producing a hydrogen-containing beverage according to the present invention will be explained. Beverage (1) is placed approximately halfway inside the container (2) of the electric shaker (1) and below the lowest end of the pipe (8), so that the lowest end is not blocked. 4), the hydrogen introduction tube (15) is connected to the pipe (7), and hydrogen gas is slowly introduced into the container part (2) from the hydrogen generation means (14). The hydrogen gas (12) that has entered the inside of this container (2) has a specific gravity that is 10 times lighter than the air that exists inside the container, so the air (11) that was inside the container (2) is transferred to the pipe ( 8) is released to the outside. In this way, the introduced hydrogen gas (12) accumulates above the gas boundary (13) which is clearly formed due to the large difference in specific gravity. From the amount of hydrogen gas generated per unit time by the hydrogen generating means (14), it is possible to calculate the time required to fill the capacity above the liquid level in the container (2). Since the gas replacement is completed, the introduction of hydrogen gas is stopped here. Here, the pipe (7) and the pipe (8) are covered with caps (9) and (10) to seal the inside of the container part (2). At this time, in order to prevent the hydrogen gas (12) inside the container part (2) from leaking outward even slightly, it is preferable to cover the container part (2) with the cap (9) first. Thereafter, the stirring rotary blade (6) of the electric shaker (1) is rotated to generate hydrogen-containing liquid and foam of the beverage (4) inside the container part (2). Incidentally, if the container part (2) is tilted nearly horizontally during this stirring, the contact between the hydrogen gas, the beverage, and the rotary blade (6) increases, and more hydrogen bubbles are formed in a shorter time.

さらに、原料として、特に卵白の成分を少し添加した飲料を用いる。こうすると、泡の発生量は格段に増加して容器部(2)の内部のガス部分を全て水素泡で満杯にする事が出来て、その泡もコップに移した後も相当時間維持する事が出来る。卵白は料理にも発泡剤として重宝されメレンゲ造りにも欠かせないものであり、水素泡を多く含んだ水素入り飲料の生成には特に卵白を乾燥させた乾燥卵白を各種飲料に少し添加する方法を見出した。 Furthermore, as a raw material, a beverage to which a small amount of egg white is added is used. By doing this, the amount of bubbles generated increases significantly, making it possible to fill the entire gas area inside the container part (2) with hydrogen bubbles, and the bubbles can be maintained for a considerable period of time even after being transferred to a cup. I can do it. Egg whites are useful as a foaming agent in cooking and are indispensable for making meringues, and in order to produce hydrogen-containing drinks that contain a lot of hydrogen bubbles, it is especially important to add a small amount of dried egg whites to various drinks. I found out.

本発明によるその概念を示している図1の水素入り飲料生成器を以下の記述では本器と称して、実施例1について説明する。本器の電動シェーカーの容器部分(2)の容量が満杯で380ccであり、そこに飲料(4)として天然水220ccを入れて蓋(3)を被せて蓋をし、空気放出手段としてのプラスチック製のパイプ(8)の上部は開放し、水素導入手段としてのプラスチック製のパイプ(7)から水素発生手段(14)が発生する水素ガスを、シリコーンゴム製の水素ガス導入チューブ(15)を用いて導入した。この時、容器部分(2)内の空気(11)は160ccであり、水素発生手段(14)は毎分14ccの水素を発生していたので、約12分で水素ガスに置換される計算となる。約15分間水素ガスを導入し、、パイプ(8)の上部に開閉手段としてビニール製のキャツプ(10)を被せ、次にパイプ(7)から水素導入チューブ(15)を外して同様にキャップ(9)を被せて容器部分(2)内を密閉にした。次に、電動部(5)を動作させて回転羽根(6)を約3分間回転させた。この時、容器部分(2)の上部にある水素ガスと飲料水(4)との接触面積を大きくする為に電動シェーカー(1)は略水平にまで傾斜させた。この実施例では、水素泡は少し発生しまもなく消えてしまうものの、水素溶存濃度は0.6ppm程度の水素入り飲料が形成された。 In the following description, the hydrogen-containing beverage generator shown in FIG. 1, which shows the concept of the present invention, will be referred to as the device, and Example 1 will be described. The container part (2) of the electric shaker of this device has a capacity of 380 cc when full, and 220 cc of natural water is poured into it as a beverage (4), and the lid (3) is placed on the lid. The upper part of the plastic pipe (8) is open, and the hydrogen gas generated by the hydrogen generation means (14) is passed through the plastic pipe (7) as a hydrogen introduction means, and the hydrogen gas introduction tube (15) made of silicone rubber is passed through. It was introduced using At this time, the air (11) in the container part (2) was 160 cc, and the hydrogen generating means (14) was generating 14 cc of hydrogen per minute, so it was calculated that it would be replaced with hydrogen gas in about 12 minutes. Become. Hydrogen gas was introduced for about 15 minutes, a vinyl cap (10) was placed over the top of the pipe (8) as an opening/closing means, and then the hydrogen introduction tube (15) was removed from the pipe (7) and the cap ( 9) to seal the inside of the container part (2). Next, the electric part (5) was operated to rotate the rotating blade (6) for about 3 minutes. At this time, the electric shaker (1) was tilted almost horizontally in order to increase the contact area between the hydrogen gas at the top of the container part (2) and the drinking water (4). In this example, a hydrogen-containing beverage with a dissolved hydrogen concentration of about 0.6 ppm was formed, although some hydrogen bubbles were generated and disappeared soon.

実施例1の原料となる飲料(4)の天然水に代えて、動物に由来する、油脂、たんぱく質、アミノサンの各一つ以上の成分を含む飲料を用いて実施例1と全く同様な実験を行った。先ず、牛乳を用いた結果、攪拌中には容器部分(2)内の飲料(4)部分以外の約80%に泡が形成された。しかし、攪拌中止後しばらくするとそれは20%程度になりそれなりの水素泡の多い水素入り飲料が生成された。これは、各種乳酸菌飲料、粉ミルク飲料を原料としても同様であった。 Exactly the same experiment as in Example 1 was conducted using a beverage containing one or more of each of animal-derived oils and fats, proteins, and aminosan instead of the natural water of beverage (4), which is the raw material in Example 1. went. First, as a result of using milk, bubbles were formed in about 80% of the container part (2) other than the beverage (4) part during stirring. However, after a while after stirring was stopped, it decreased to about 20%, and a hydrogen-containing beverage with a certain amount of hydrogen bubbles was produced. This was the same when various lactic acid bacteria drinks and powdered milk drinks were used as raw materials.

同様に植物に由来する、油脂、たんぱく質、アミノサンの各一つ以上の成分を含む飲料を用いて実施例1と全く同様な実験を行った。先ず、野菜ジュース用いた結果、攪拌中には容器部分(2)内の飲料(4)部分以外の約90%に泡が形成された。しかし、攪拌中止後しばらくするとそれは40%程度になりそれなりの水素泡の多い水素入り飲料が生成された。オレンジ100%生ジュースの場合は、攪拌中には容器部分(2)内の飲料(4)部分以外の約60%に泡が形成された。しかし、攪拌中止後しばらくするとそれは15%程度になりそれなりの水素泡を含む水素入り飲料が生成された。これは、グレープ、グレープフルーツ、マンゴ、リンゴ等のジュースなどの他に豆乳、プロテイン、お茶、コーヒー等でも、泡の量には多少の違いはあるもののほとんど同様であった。 Similarly, an experiment completely similar to Example 1 was conducted using a beverage containing one or more of each of oils and fats, proteins, and aminosan derived from plants. First, as a result of using vegetable juice, bubbles were formed in about 90% of the container part (2) other than the beverage (4) part during stirring. However, after a while after stirring was stopped, it decreased to about 40%, and a hydrogen-containing beverage with a certain amount of hydrogen bubbles was produced. In the case of 100% fresh orange juice, bubbles were formed in approximately 60% of the container portion (2) other than the beverage (4) portion during stirring. However, after a while after stirring was stopped, it decreased to about 15%, and a hydrogen-containing beverage containing a certain amount of hydrogen bubbles was produced. This was almost the same for soy milk, protein, tea, coffee, etc. as well as grape, grapefruit, mango, and apple juices, although there were some differences in the amount of foam.

実施例1の原料となる飲料(4)の天然水に、市販されている乾燥卵白を約1g添加して同様の実験を行った。攪拌中には飲料(4)部分以外の約70%に泡が形成された。しかし、攪拌中止後しばらくするとそれは50%程度になり、泡の多い水素泡飲料が形成された。次に、実施例2の各種飲料、特に豆乳の場合は、乾燥卵白を約2gを添加して実験を行ったところ、攪拌中には約100%=160ccの細かい泡が形成され、攪拌中止後も10分以上その状態のまま泡が残存し、水素ガスを内包した水素泡をスプーンで口に入れ、残存の液状の水素入り飲料と共に飲むことが出来た。市販されている水素水の溶存水素濃度は0.8ppm程度であるので、飲料(4)と同じ220ccであれば、水素ガスを約4cc含んでいるに過ぎず、従って本実施例のこの場合には最大で水素水の約40倍という多量の水素ガスを摂取する事が出来た。豆乳以外では、泡の生成は幾分少なかったが水素水よりは充分に多量の水素を摂取する事が出来た。 A similar experiment was conducted by adding about 1 g of commercially available dried egg white to the natural water of beverage (4), which is the raw material of Example 1. During stirring, bubbles were formed in about 70% of the area other than the beverage (4). However, after a while after stirring was stopped, it decreased to about 50%, and a hydrogen foam beverage with a lot of foam was formed. Next, when we added about 2 g of dried egg white to the various drinks of Example 2, especially soy milk, and conducted an experiment, fine foam of about 100% = 160 cc was formed during stirring, and after the stirring was stopped. The bubbles remained in that state for more than 10 minutes, and I was able to put the hydrogen bubbles containing hydrogen gas into my mouth with a spoon and drink them together with the remaining liquid hydrogen-containing beverage. The dissolved hydrogen concentration of commercially available hydrogen water is about 0.8 ppm, so if it is 220 cc, which is the same as beverage (4), it will only contain about 4 cc of hydrogen gas. was able to ingest a large amount of hydrogen gas, up to about 40 times that of hydrogen water. With products other than soy milk, foam formation was somewhat less, but I was able to ingest a much larger amount of hydrogen than with hydrogen water.

1 電動シェーカー(攪拌機能が付いた容器)
2 容器部
3 蓋
4 飲料
5 電動部
6 回転羽根
7 パイプ(水素ガス導入手段)
8 パイプ(空気放出手段)
9,10 キャップ(開閉手段)
11 空気
12 水素ガス
13 ガス境界面
14 水素発生手段
15 水素ガス導入チューブ
1 Electric shaker (container with stirring function)
2 Container part 3 Lid 4 Beverage 5 Electric part 6 Rotating vane 7 Pipe (hydrogen gas introduction means)
8 Pipe (air release means)
9,10 Cap (opening/closing means)
11 Air 12 Hydrogen gas 13 Gas interface 14 Hydrogen generating means 15 Hydrogen gas introduction tube

Claims (3)

攪拌機能が付いた容器(1)と、
該攪拌機能が付いた容器(1)の容器部(2)の内部に上下で略中間部位まで入れる飲料(4)と、
前記容器部(2)の外部から内部へ水素ガスを導入する水素ガス導入手段(7)と、
前記容器部(2)の内部の前記飲料(4)の液面上部から前記容器部(2)の外方へ空気を放出する空気放出手段(8)と、
前記水素ガス導入手段(7)及び前記空気放出手段(8)のそれぞれの開閉手段(9)(10)と、
を備えていることを特徴とする水素入り飲料生成器。
A container (1) with a stirring function,
A beverage (4) that is poured into the container portion (2) of the container (1) equipped with a stirring function up to approximately the midway point between the top and bottom;
hydrogen gas introducing means (7) for introducing hydrogen gas from the outside to the inside of the container part (2);
an air release means (8) for releasing air from above the liquid level of the beverage (4) inside the container part (2) to the outside of the container part (2);
Opening/closing means (9) and (10) for the hydrogen gas introducing means (7) and the air releasing means (8), respectively;
A hydrogen-containing beverage generator comprising:
請求項1記載の水素入り飲料生成器を用いて水素入り飲料を生成する方法であって、
前記攪拌機能が付いた容器(1)の前記容器部(2)の内部に、空気放出パイプ(8)の下端より下方未満に飲料(4)を入れる工程と、
水素ガス導入パイプ(7)を通じて前記容器部(2)の内部に水素ガスを導入し、前記空気放出パイプ(8)により前記容器部(2)の内部の空気(11)が、前記容器部(2)の外方に順次放出されて、前記容器部(2)内部の飲料(4)の液面上部に水素ガス(12)が溜まるガス置換の工程と、
前記開閉手段(9)(10)を閉じて前記容器部(2)の内部を密閉にする工程と、
前記飲料(4)と水素ガス(12)を前記攪拌機能により攪拌する事により、飲料(4)に水素を溶存させると共に水素を含んだ泡を前記容器部(2)の内部に生成する工程と、
を含む事を特徴とする水素入り飲料生成の方法。
A method of producing a hydrogen-containing beverage using the hydrogen-containing beverage generator according to claim 1, comprising:
Putting the beverage (4) into the container part (2) of the container (1) with the stirring function below the lower end of the air release pipe (8);
Hydrogen gas is introduced into the container part (2) through the hydrogen gas introduction pipe (7), and the air (11) inside the container part (2) is released by the air discharge pipe (8) into the container part (2). 2) a step of gas replacement in which hydrogen gas (12) is sequentially released to the outside and accumulates above the liquid level of the beverage (4) inside the container part (2);
closing the opening/closing means (9) and (10) to seal the inside of the container part (2);
a step of dissolving hydrogen in the beverage (4) and generating hydrogen-containing bubbles inside the container portion (2) by stirring the beverage (4) and hydrogen gas (12) using the stirring function; ,
A method for producing a hydrogen-containing beverage characterized by comprising:
前記飲料(4)に、予め卵白乃至は乾燥卵白を添加する事を特徴とする請求項2記載の水素入り飲料生成の方法。 The method for producing a hydrogen-containing beverage according to claim 2, characterized in that egg white or dried egg white is added to the beverage (4) in advance.
JP2022098809A 2022-06-20 2022-06-20 Hydrogen-containing beverage generator, and method of generating hydrogen-containing beverage Pending JP2024000183A (en)

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