JPH0910776A - Honeycomb structure and production thereof - Google Patents

Honeycomb structure and production thereof

Info

Publication number
JPH0910776A
JPH0910776A JP16168495A JP16168495A JPH0910776A JP H0910776 A JPH0910776 A JP H0910776A JP 16168495 A JP16168495 A JP 16168495A JP 16168495 A JP16168495 A JP 16168495A JP H0910776 A JPH0910776 A JP H0910776A
Authority
JP
Japan
Prior art keywords
honeycomb structure
water
quartz
honeycomb
powder
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP16168495A
Other languages
Japanese (ja)
Inventor
Tsutomu Hiromi
勉 廣見
Masakata Asakawa
正名 浅川
Junjiro Awano
順二郎 粟野
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
YUUSHIN ENG KK
Panasonic Holdings Corp
Original Assignee
YUUSHIN ENG KK
Matsushita Electric Industrial Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by YUUSHIN ENG KK, Matsushita Electric Industrial Co Ltd filed Critical YUUSHIN ENG KK
Priority to JP16168495A priority Critical patent/JPH0910776A/en
Publication of JPH0910776A publication Critical patent/JPH0910776A/en
Pending legal-status Critical Current

Links

Abstract

PURPOSE: To provide a means safe to a living body and capable of converting especially tap water to drinking function activated water optimum to the keeping of health. CONSTITUTION: A honeycomb structure 3 is obtained by kneading a fine powder of quartz poropyry based on alkali feldspar and quartz to mold the same and baking the molded one and has a large number of holes (cells) 4 in a hoenycomb shape and a correction wave motion for keeping the homeostatis of a living body is applied to the honeycomb structure. This hoenycomb structure 3 is immersed in tap water and water is circulated and aerated for a predetermined time to elute minerals or microelements contained in quartz porophyry to water to hydrate and ionize them to obtain function activated water for drinking.

Description

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

【0001】[0001]

【産業上の利用分野】本発明は、例えば飲用として利用
する水を活性化すると共に、その水にミネラル等の微量
元素を添加して健康保持に最適な飲用水とするためのハ
ニカム構造体及びその製造方法に関する。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a honeycomb structure for activating, for example, water used for drinking, and adding trace elements such as minerals to the water to make drinking water optimal for health maintenance. The manufacturing method is related.

【0002】[0002]

【従来の技術】人間を含めて全ての動物の体内には、殆
ど全ての元素が含まれている。栄養学的な面からは、か
つては蛋白質・糖・脂肪等の高分子化合物が注目され、
次いでナトリウム・カリウム等の電解質、更には機能栄
養素としてのビタミンが研究実用の対象となった。近
年、元素の分析技術が進歩し、或いは生体維持に必要な
身体構造各部位の波動による健康チェックが立証されて
きたことから、栄養素以外の機能性単位としての微量元
素及び波動の必要性が立証されている。
2. Description of the Related Art Almost all elements are contained in the body of all animals including humans. From a nutritional standpoint, polymer compounds such as proteins, sugars and fats once attracted attention,
Next, electrolytes such as sodium and potassium, as well as vitamins as functional nutrients, became the subject of research and practical use. In recent years, elemental analysis technology has progressed, and health checks by vibrating each part of the body structure necessary to maintain the living body have been proved, so the necessity of trace elements and wave as functional units other than nutrients has been proved. Has been done.

【0003】ところで、アルカリ長石と石英を主成分と
する火成岩類中の石英斑岩は、古くから薬石として用い
られ、例えば麦飯石等の名称で親しまれてきた。この石
英斑岩は、古来より様々に活用され、例えば経口ビタミ
ン剤の増量剤として粉末を活用したり、破砕岩石粒状で
水の活性化を行ったり、或いは温浴効果を高めるための
充填濾材として用いたりされてきた。又、薬石と称する
粉体を用いセラミックボール状化し、濾過材料として用
いられている実例も数多い。更に、焼成温度帯によって
は、遠赤外線波長セラミックとしても用いられている。
By the way, quartz porphyry in igneous rocks mainly composed of alkali feldspar and quartz has been used as a medicinal stone since ancient times, and has been popular under the name such as bakuhanishi. This quartz porphyry has been used in various ways since ancient times. For example, powder is used as an extender for oral vitamin preparations, water is activated by crushed rock granules, or it is used as a filling filter medium to enhance the effect of a hot bath. It has been done. Also, there are many practical examples in which a powder called a medicinal stone is used to form a ceramic ball and is used as a filtering material. Furthermore, depending on the firing temperature band, it is also used as a far infrared wavelength ceramic.

【0004】[0004]

【発明が解決しようとする課題】このように、石英斑岩
は、日常生活の様々なところで利用されているが、特に
薬石と称する石英斑岩は多岐にわたる。しかしながら、
各用途の目的効果を得るための諸条件が整備されていな
いため、手探り状態の利用が横行している。例えば、石
英斑岩で薬石と称するものには、放射線を含むものもあ
り、この場合の薬石は必ずしも生体に対して安全なもの
とは言えない。
As described above, quartz porphyry is used in various places in daily life, and in particular, quartz porphyry called medicinal stone is diverse. However,
Since the conditions for obtaining the purpose and effect of each use have not been established, the use of groping is widespread. For example, some quartz porphyry called gemstone contains radiation, and the gemstone in this case is not necessarily safe to the living body.

【0005】従って、本発明は、このような実状に鑑み
てなされたもので、生体に対して安全で、特に水道水を
健康保持に最適な飲用機能活性水とすることができる手
段を提供することを目的とする。
Therefore, the present invention has been made in view of the above circumstances, and provides means that is safe for living organisms, and in particular tap water can be used as drinking functional active water that is optimal for maintaining health. The purpose is to

【0006】[0006]

【課題を解決するための手段】前記目的は、本発明のハ
ニカム構造体及びその製造方法により達成される。本発
明のハニカム構造体は、アルカリ長石と石英を主成分と
する石英斑岩の微細粉末を混練・成形・焼成してなり、
多数の孔(セル)をハニカム状に有すると共に、生体の
恒常性を維持するための矯正波動を印加してなることを
特徴とする。
The above object can be achieved by the honeycomb structure of the present invention and the manufacturing method thereof. The honeycomb structure of the present invention is obtained by kneading, molding and firing a fine powder of quartz porphyry containing alkali feldspar and quartz as main components,
It is characterized by having a large number of holes (cells) in a honeycomb shape and applying a correction wave for maintaining homeostasis of a living body.

【0007】又、本発明のハニカム構造体の製造方法
は、アルカリ長石と石英を主成分とする石英斑岩を微細
粉末にし、この粉末に焼結用バインダーを加えて混練
し、混練したものを多数の孔(セル)を有するハニカム
形状体に成形し、このハニカム形状体を500〜640
℃の温度で焼成し、焼成したハニカム形状体に生体の恒
常性を維持するための矯正波動を一定の磁性下で印加す
ることを特徴とする。
Further, in the method for manufacturing a honeycomb structure of the present invention, quartz porphyry containing alkali feldspar and quartz as main components is made into a fine powder, and a binder for sintering is added to this powder, and the mixture is kneaded and kneaded. A honeycomb-shaped body having a large number of holes (cells) is formed, and the honeycomb-shaped body is molded in the range of 500 to 640.
It is characterized in that it is fired at a temperature of ° C, and a corrective wave for maintaining the homeostasis of a living body is applied to the fired honeycomb-shaped body under constant magnetism.

【0008】[0008]

【作用】本発明のハニカム構造体は、飲用水として用い
る場合には、水(水道水)に浸漬させ、水を一定時間循
環させた後、活性水として用いる。水を循環させる間
に、ハニカム構造体を構成する石英斑岩(天然鉱石)中
に含まれるミネラルや微量元素が水に溶出して水和イオ
ン化し、安全で且つ健康保持に必要な飲用機能活性水を
提供できる。従って、飲用水は勿論のこと、農業(カッ
ト野菜の褐変防止等)、獣医(競争馬における生体調節
等)、畜産(養鶏における飼料効率の向上や養豚におけ
る肉質の均一向上等)、その他、工業、化学、食品等、
用途は広範であり、各分野に必要な機能活性水として選
択的に利用することができる。
When the honeycomb structure of the present invention is used as drinking water, it is immersed in water (tap water), circulated for a certain period of time, and then used as active water. While circulating water, minerals and trace elements contained in the quartz porphyry (natural ore) that compose the honeycomb structure are eluted into water and hydrated and ionized, which is a drinking functional activity that is necessary for safe and healthy maintenance. Can provide water. Therefore, not only drinking water, but also agriculture (preventing browning of cut vegetables, etc.), veterinarians (biological regulation in competitive horses), livestock (improving feed efficiency in poultry raising, improving meat quality even in pig raising, etc.), and other industries , Chemistry, food, etc.
It has a wide range of uses and can be selectively used as functionally activated water required for each field.

【0009】又、本発明の製造方法は、混練・成形・焼
成・波動印加の工程からなり、上記のような利点を有す
るハニカム構造体を製造することができる。
Further, the manufacturing method of the present invention comprises steps of kneading, molding, firing, and wave application, and a honeycomb structure having the above advantages can be manufactured.

【0010】[0010]

【実施例】以下、本発明を実施例に基づいて説明する。
その実施例に係るハニカム構造体を図1及び図2に示
す。図1に示すハニカム構造体1は、円柱状を呈し、ア
ルカリ長石と石英を主成分とする石英斑岩の微細粉末を
混練・成形・焼成してなり、多数の円形の孔(セル)2
をハニカム状に有し、更に生体の恒常性を維持するため
の矯正波動を印加してなるものである。図2に示すハニ
カム構造体3は、四角柱状を呈し、同様に石英斑岩の微
細粉末を混練・成形・焼成してなり、多数の四角形のセ
ル4をハニカム状に有し、矯正波動を印加してなるもの
である。なお、図1及び図2に示したハニカム構造体
1,3の形状は、単なる一例であり、図示した形状(円
柱状、四角形状)以外の形状であってもよい。又、セル
2,4の形状も円形や四角形に限定されない。このよう
なハニカム構造体の寸法例〜を図3に示す。但し、
図1のハニカム構造体1では、セル2の形状は円形であ
るが、図3の寸法例では四角形としている。
EXAMPLES The present invention will be described below based on examples.
The honeycomb structure according to the example is shown in FIGS. 1 and 2. A honeycomb structure 1 shown in FIG. 1 has a columnar shape and is made by kneading, molding and firing a fine powder of quartz porphyry containing alkali feldspar and quartz as main components, and has a large number of circular holes (cells) 2.
In the form of a honeycomb, and a correction wave for maintaining the homeostasis of the living body is further applied. The honeycomb structure 3 shown in FIG. 2 is in the shape of a quadrangular prism, and is also made by kneading, shaping, and firing a fine powder of quartz porphyry, and has a large number of quadrangular cells 4 in a honeycomb shape, and a correction wave is applied. It will be done. The shapes of the honeycomb structures 1 and 3 shown in FIGS. 1 and 2 are merely examples, and shapes other than the illustrated shapes (columnar shape, quadrangular shape) may be used. Further, the shape of the cells 2 and 4 is not limited to a circle or a quadrangle. Dimensional examples of such a honeycomb structure are shown in FIG. However,
In the honeycomb structure 1 of FIG. 1, the cells 2 have a circular shape, but in the dimensional example of FIG. 3, the cells have a quadrangular shape.

【0011】次に、上記のようなハニカム構造体の製造
方法について説明する。まず、アルカリ長石と石英を主
成分とする石英斑岩を微細粉末とするのであるが、石英
斑岩の微細粉末を100〜400メッシュに類別する。
これは、以後の工程で焼成する成形ハニカム形状体にお
けるセルのセル密度を例えば400セル/inch2
した場合、石英斑岩の粉末粒度も400メッシュ程度で
ある方が、混練・成形・焼成を行い易いからである。従
って、セル密度に応じて適切な粒度の石英斑岩粉末を用
いるのが好ましい。
Next, a method for manufacturing the above honeycomb structure will be described. First, the quartz porphyry containing alkali feldspar and quartz as the main components is made into a fine powder, and the fine powder of the quartz porphyry is classified into 100 to 400 mesh.
This means that when the cell density of the cells in the formed honeycomb-shaped body to be fired in the subsequent steps is set to 400 cells / inch 2 , for example, when the powder particle size of the quartz porphyry is about 400 mesh, kneading, forming and firing are performed. This is because it is easy to do. Therefore, it is preferable to use quartz porphyry powder having an appropriate particle size according to the cell density.

【0012】図4は、石英斑岩(麦飯石)の300メッ
シュ粉末の蛍光X線解析による結果を示している。但
し、水素(1 H)〜酸素(8 O)までの軽元素及び希ガ
ス元素以外で、図4に記されていない元素は検出不可能
であった。これによると、石英斑岩に含まれる元素は含
有量の多い順に、Si,Fe,K,Al,Ca,Zr,
Na,Sr,Rb,Y,Mn,Mg,Ti,Zn,P,
Ga,Pb,Ni,Cu,Ba,S,Coであり、22
元素以上を有することが分かる。
FIG. 4 shows the results of fluorescent X-ray analysis of 300-mesh powder of quartz porphyry (barite stone). However, elements other than light elements from hydrogen ( 1 H) to oxygen ( 8 O) and noble gas elements, which are not shown in FIG. 4, could not be detected. According to this, the elements contained in quartz porphyry are Si, Fe, K, Al, Ca, Zr, in descending order of content.
Na, Sr, Rb, Y, Mn, Mg, Ti, Zn, P,
Ga, Pb, Ni, Cu, Ba, S, Co, and 22
It turns out that it has more elements.

【0013】石英斑岩の微細粉末を混練したものを、多
数のセルを有するハニカム形状体に成形する工程におい
て、セルの表面積を含めたハニカム構造体の体積構造
は、使用目的に応じて長さ(図1及び図2の寸法c参
照)を定め、空間体積と流速を効率より判断した構造と
している。一方、成形したハニカム形状体を焼成する工
程において、焼成温度は500〜640℃であるが、こ
れは、石英斑岩の硅酸構造(SiO)の特長を活かし、
573〜870℃の晶出石英であることを考慮すると共
に、焼結用バインダーの結合及び焼成硬度も加味したも
のである。なお、使用する焼結用バインダーとしては、
例えば低温焼結用粘土である含水珪酸マグネシウムアル
ミニウム(3MgO・1.5Al2O3・8SiO2 ・9H2O)を用いれば
よい。
In the process of molding a mixture of fine powder of quartz porphyry into a honeycomb-shaped body having a large number of cells, the volume structure of the honeycomb structure including the surface area of the cells depends on the purpose of use. (Refer to the dimension c in FIGS. 1 and 2), and the structure is such that the space volume and the flow velocity are judged from the efficiency. On the other hand, in the step of firing the formed honeycomb-shaped body, the firing temperature is 500 to 640 ° C. This is due to the advantage of the silica silicate structure (SiO) of quartz porphyry,
Considering that it is crystallized quartz of 573 to 870 ° C., the binding and sintering hardness of the binder for sintering are also taken into consideration. The sintering binder used is
For example, hydrous magnesium aluminum silicate (3MgO.1.5Al 2 O 3 .8SiO 2 .9H 2 O) which is a clay for low temperature sintering may be used.

【0014】焼成後のハニカム構造体は、主に水(水道
水)に浸漬させ、水を一定時間循環させた後、活性水と
して用いるのであるが、例えば人間の飲用水として用い
る場合、単なる微量元素やミネラルを含んだ水としての
活用では、その水が人間の生体系のどの部位に有効に作
用するのか、又は反作用を来す恐れがあるのか等の判定
が不明であり、単なる市販のミネラルウォーターの域を
超えるものではない。
The honeycomb structure after firing is used as active water after being immersed in water (tap water) for a certain period of time and then circulated for a certain period of time. When it is used as water containing elements and minerals, it is unclear what part of the human body's biological system the water effectively acts on, or whether there is a risk of a reaction, etc. It does not go beyond water.

【0015】そこで、本発明者は、欧米各国で実用化さ
れている共鳴磁場波動装置の電気力場理論(USP
5,317,265参照)に基づき、生体系の部位全般
に普及する機能効果を高める波動信号を焼成セラミック
に転写し、転写した波動信号が焼成セラミックから活用
する水質に伝播し得る事実を確認した。これは、ミネラ
ル・微量元素の水和イオンと水を構成する酸素原子と
に、一定の磁性〔0.5〜7ガウス(起電圧5〜15
V)〕下で固有振動を与えることと同等である。従っ
て、焼成後のハニカム構造体に生体の恒常性を維持する
ための矯正波動(固有振動)を一定の磁性〔0.5〜7
ガウス(起電圧5〜15V)〕下で印加することとし
た。しかしながら、固有振動によっては、微量元素が栄
養学的に必須の元素として働くこともあれば、生体にと
って有害な作用を発現する場合もあるので、印加する固
有振動は、元素の動態や適正な生理活性を考慮し、0〜
28Hzと超低周波帯であることが望ましい。焼成した
ハニカム構造体は与えられた固有振動を保持するが、こ
れは石英斑岩に含まれる鉄分(Fe)を中心とする無機
によるものと考えられる。
Therefore, the inventor of the present invention has proposed the electric field theory (USP) of the resonant magnetic field wave device which has been put to practical use in Europe and America.
5, 317, 265), it was confirmed that the wave signal that enhances the functional effect that spreads to all parts of the biological system is transferred to the fired ceramic, and that the transferred wave signal can propagate from the fired ceramic to the water quality to be used. . This is because hydrated ions of minerals and trace elements and oxygen atoms forming water have a certain magnetic property [0.5 to 7 gauss (electromotive voltage 5 to 15).
V)] is equivalent to applying a natural vibration under. Therefore, the correction wave (natural vibration) for maintaining the homeostasis of the living body is applied to the honeycomb structure after firing with a certain magnetic property [0.5 to 7].
Gauss (electromotive voltage of 5 to 15 V)]. However, depending on the natural vibration, a trace element may act as a nutritionally essential element or may exert a harmful effect on the living body. 0 in consideration of activity
It is desirable that the frequency is 28 Hz and a very low frequency band. The fired honeycomb structure retains the given natural vibration, which is considered to be due to the inorganic component centered on iron (Fe) contained in the quartz porphyry.

【0016】以上より、アルカリ長石と石英を主成分と
する石英斑岩を微細粉末にし、この粉末に焼結用バイン
ダーを加えて混練し、混練したものを多数のセルを有す
るハニカム形状体(図1及び図2参照)に成形し、この
ハニカム形状体を500〜640℃の温度で焼成し、焼
成したハニカム形状体に生体の恒常性を維持するための
矯正波動を一定の磁性〔0.5〜7ガウス(起電圧5〜
15V)〕下で加えることにより、ハニカム構造体を製
造できる。
As described above, quartz porphyry containing alkali feldspar and quartz as the main components is made into a fine powder, and a binder for sintering is added to this powder and kneaded. The kneaded mixture has a honeycomb-shaped body having a large number of cells (Fig. 1 and FIG. 2), the honeycomb-shaped body is fired at a temperature of 500 to 640 ° C., and the fired honeycomb-shaped body is provided with a corrective wave of a constant magnetic force [0.5] to maintain homeostasis of the living body. ~ 7 gauss (electromotive voltage 5 ~
15 V)] below, a honeycomb structure can be manufactured.

【0017】この製造工程において、2種以上の電解質
ミネラルの化合物からなる鉱石〔例えば炭酸カルシウム
(CaCO3 )や異種鉱石〕を微細粉末にし、この粉末
を石英斑岩の微細粉末と1対9の割合で混合し、同様に
混練・成形・焼成・波動印加を行ってもよい。これによ
り、石英斑岩の素性のみではなく、炭酸カルシウムや異
種鉱石等の素性も添加され、多岐利用に則したハニカム
構造体にすることができる。
In this manufacturing process, an ore (for example, calcium carbonate (CaCO 3 ) or a different ore) composed of compounds of two or more kinds of electrolyte minerals is made into a fine powder, and this powder is mixed with the fine powder of quartz porphyry in a ratio of 1: 9. You may mix in a ratio and perform kneading, shaping | molding, baking, and wave motion similarly. As a result, not only the features of quartz porphyry but also the features of calcium carbonate, different ores, etc. are added, and it is possible to obtain a honeycomb structure according to various uses.

【0018】図5は、実施例のA判定サンプルとして5
00℃で焼成したハニカム構造体を用い、比較例のB判
定サンプルとして900℃で焼成したハニカム構造体を
用い、それぞれのサンプルでの生体部位における波動計
測を行い、その結果を数値で示した表である。但し、判
定は、生体との関係から−50〜+50の範囲の数値で
良否を判断し、数値が大きい(+50に近づく)ほど良
を表している。この表から分かるように、B判定よりA
判定の方が総じて数値が高く、この結果と焼結用バイン
ダーの結合及び焼成硬度等を加味すると、焼成温度を5
00〜640℃とするのが好ましい訳である。この焼成
温度範囲でも、特に570〜630℃が好適である。ま
た仮に、焼成温度が500℃より低いと、破砕し易く、
水溶液中の色度が取れ難い。一方、640℃より高い
と、水への炭酸カルシウム(CaCO3 )溶出が悪くな
り、500℃と900℃の焼成温度別の生体各部位に対
する波動計測結果の一例を示す図5からも、総合的に悪
いことが分かる。
FIG. 5 shows 5 as the A judgment sample of the embodiment.
Using a honeycomb structure fired at 00 ° C. and a honeycomb structure fired at 900 ° C. as a B judgment sample of a comparative example, the wave measurement at the living body part of each sample was measured, and the results are shown in numerical tables. Is. However, in the judgment, the quality is judged by a numerical value in the range of -50 to +50 from the relationship with the living body, and the larger the numerical value (the closer to +50), the better. As can be seen from this table, A is judged from B judgment
The judgment is generally higher in numerical value. Considering this result, the binding of the binder for sintering and the sintering hardness, the sintering temperature is 5
It is preferable that the temperature is from 00 to 640 ° C. Even in this firing temperature range, 570 to 630 ° C. is particularly suitable. If the firing temperature is lower than 500 ° C, it is easy to crush,
It is difficult to obtain the chromaticity in an aqueous solution. On the other hand, when the temperature is higher than 640 ° C., calcium carbonate (CaCO 3 ) elution into water becomes poor, and FIG. 5 showing an example of the wave measurement result for each part of the living body for each firing temperature of 500 ° C. and 900 ° C. It turns out to be bad.

【0019】図6は、ハニカム構造体を入れた試験用蒸
留水1lを5分間煮沸したとき、並びに1時間、3時間
及び5時間循環曝気したときの水質の変化を分析した表
である。比較例として、蒸留水そのままの水質も併記し
てある。これによると、蒸留水のPH値は7.0(中
性)であるが、煮沸及び循環曝気した場合は、いずれも
PH値はアルカリ性を示している。又、煮沸及び循環曝
気した場合、いずれも炭酸カルシウム(CaCO3 )の
濃度は顕著に増加しているが、その他の検査項目の値は
変化しておらず、鉄のみが若干増加している。
FIG. 6 is a table for analyzing the change in water quality when 1 liter of test distilled water containing the honeycomb structure was boiled for 5 minutes and aerated for 1 hour, 3 hours and 5 hours. As a comparative example, the quality of distilled water as it is is also shown. According to this, the PH value of distilled water is 7.0 (neutral), but the pH value is alkaline in both cases of boiling and circulating aeration. When boiling and circulating aeration, the concentration of calcium carbonate (CaCO 3 ) increased remarkably, but the values of other inspection items did not change, and only iron increased slightly.

【0020】図7は、実施例としてのB判定サンプルで
は、500℃で焼成したハニカム構造体を10lの水
(東京都内の中野区の水道水)を入れた容器内に浸漬さ
せ、1時間で約40ターンの循環を繰り返した後のサン
プル水を波動計測した結果と、比較例としてのAサンプ
ルでは、東京都内の中野区の水道水を波動計測した結果
とを示す表である。この表より、A判定よりB判定の方
が殆どの数値が高くなっており、普通の水道水(上水
道)に比べて、ハニカム構造体を用いた方が生体系に及
ぼす活性効果が高いことが分かる。
In FIG. 7, in the B judgment sample as an example, the honeycomb structure fired at 500 ° C. was immersed in a container containing 10 liters of water (tap water in Nakano-ku, Tokyo) for 1 hour. It is a table which shows the result of having carried out the wave measurement of the sample water after repeating circulation of about 40 turns, and the A sample as a comparative example, and the result of having carried out the wave measurement of the tap water of Nakano Ward in Tokyo. From this table, most of the numerical values are higher in the B judgment than in the A judgment, indicating that the honeycomb structure has a higher activity effect on the biological system than the ordinary tap water (water supply). I understand.

【0021】図8は、図7の結果を基に、乾燥状態のハ
ニカム構造体に前記のように矯正波動を印加して、生理
活性を付与した後、そのハニカム構造体を10lの水
(中野区の水道水)を入れた容器内に浸漬させ、2時間
で約40ターンの循環を繰り返した後のサンプル水を波
動計測し、その結果を示す表である。又、参考例として
矯正波動を印加しないハニカム構造体を用いた場合の結
果と、比較例としての中野区の水道水の結果も併記して
ある。この表から分かるように、水道水の判定数値より
ハニカム構造体(矯正波動なし)の判定数値の方が明ら
かに改善されているが、矯正波動を印加したハニカム構
造体の場合は、その判定数値が更に向上している。これ
により、生体系のマイナス数値であった部位の数値は矯
正され、各部位に弊害をもたらすことのない機能活性水
として飲用に供することができる。
In FIG. 8, based on the results of FIG. 7, after the corrective wave was applied to the dried honeycomb structure to give physiological activity, the honeycomb structure was treated with 10 l of water (Nakano). It is a table showing the results of wave measurement of the sample water after being immersed in a container containing tap water) and repeatedly circulating for about 40 turns in 2 hours. Further, as a reference example, the results of using a honeycomb structure to which no correction wave is applied and the results of tap water in Nakano Ward as a comparative example are also shown. As can be seen from this table, the judgment value of the honeycomb structure (without correction wave) is clearly improved over the judgment value of tap water, but in the case of the honeycomb structure to which the correction wave is applied, the judgment value is Is further improving. As a result, the numerical value of the part of the biological system, which is a negative value, is corrected, and it can be used for drinking as functional active water that does not cause any adverse effect on each part.

【0022】[0022]

【発明の効果】以上説明したように、本発明のハニカム
構造体では、飲用水として用いる場合には、水(水道
水)に浸漬させ、水を一定時間循環させた後、生理活性
水として用いる。水を循環させる間に、ハニカム構造体
を構成する石英斑岩(天然鉱石)中に含まれるミネラル
や微量元素が水に溶出して水和イオン化し、安全で且つ
健康保持に必要な飲用機能活性水を提供できる。従っ
て、飲用水は勿論のこと、農業(カット野菜の褐変防止
等)、獣医(競争馬における生体調節等)、畜産(養鶏
における飼料効率の向上や養豚における肉質の均一向上
等)、その他、工業、化学、食品等、用途は広範であ
り、各分野に必要な機能活性水として選択的に利用する
ことができる。
As described above, when the honeycomb structure of the present invention is used as drinking water, it is immersed in water (tap water), circulated for a certain period of time, and then used as physiologically active water. . While circulating water, minerals and trace elements contained in the quartz porphyry (natural ore) that compose the honeycomb structure are eluted into water and hydrated and ionized, which is a drinking functional activity that is necessary for safe and healthy maintenance. Can provide water. Therefore, not only drinking water, but also agriculture (preventing browning of cut vegetables, etc.), veterinarians (biological regulation in competitive horses), livestock (improving feed efficiency in poultry raising, improving meat quality even in pig raising, etc.), and other industries It has a wide range of uses, such as chemicals, foods, etc., and can be selectively used as functional active water required for each field.

【0023】本発明の製造方法は、上記のような利点を
有するハニカム構造体を製造することができる。又、製
造方法において、電解質ミネラルの化合物からなる鉱石
を微細粉末にし、この粉末を石英斑岩の微細粉末と1対
9の割合で混合することにより、多岐利用に対応したハ
ニカム構造体を製造できる。
The manufacturing method of the present invention can manufacture a honeycomb structure having the above advantages. Further, in the manufacturing method, an ore made of a compound of an electrolyte mineral is made into a fine powder, and this powder is mixed with a fine powder of quartz porphyry at a ratio of 1: 9, whereby a honeycomb structure suitable for various uses can be produced. .

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

【図1】一実施例に係るハニカム構造体の斜視図であ
る。
FIG. 1 is a perspective view of a honeycomb structure according to an example.

【図2】別実施例に係るハニカム構造体の斜視図であ
る。
FIG. 2 is a perspective view of a honeycomb structure according to another embodiment.

【図3】図1及び図2に示すハニカム構造体の寸法例を
示す表である。
FIG. 3 is a table showing an example of dimensions of the honeycomb structure shown in FIGS. 1 and 2.

【図4】石英斑岩(麦飯石)の300メッシュ粉末の蛍
光X線解析による結果を示す表である。
FIG. 4 is a table showing the results of fluorescent X-ray analysis of 300-mesh powder of quartz porphyry (barite stone).

【図5】500℃及び900℃で焼成したハニカム構造
体を用いた場合の生体各部位に対する判定結果を示す表
である。
FIG. 5 is a table showing the determination results for each part of a living body when a honeycomb structure fired at 500 ° C. and 900 ° C. is used.

【図6】試験用蒸留水と、試験用蒸留水にハニカム構造
体を浸漬させ、5分間煮沸、並びに1時間、3時間及び
5時間循環曝気を行った後の水質検査結果を示す表であ
る。
FIG. 6 is a table showing test water and water quality test results after the honeycomb structure was immersed in the test distilled water, boiled for 5 minutes, and subjected to circulation aeration for 1 hour, 3 hours, and 5 hours. .

【図7】普通の水道水と、水道水に500℃で焼成した
ハニカム構造体を浸漬させ、1時間循環曝気を行った後
の生体各部位に対する判定結果を示す表である。
FIG. 7 is a table showing the judgment results for each part of the living body after ordinary tap water and a honeycomb structure fired at 500 ° C. were immersed in tap water and subjected to circulation aeration for 1 hour.

【図8】普通の水道水と、水道水に500℃で焼成した
矯正波動なしのハニカム構造体と矯正波動ありのハニカ
ム構造体を浸漬させ、共に2時間循環曝気を行った後の
生体各部位に対する判定結果を示す表である。
[Fig. 8] Ordinary tap water, and a living body structure after immersing a honeycomb structure without correction wave and a honeycomb structure with correction wave baked at 500 ° C in tap water, and performing aeration and circulation for 2 hours together It is a table showing the determination result for.

【符号の説明】[Explanation of symbols]

1,3 ハニカム構造体 2,4 孔(セル) 1,3 Honeycomb structure 2,4 Hole (cell)

フロントページの続き (51)Int.Cl.6 識別記号 庁内整理番号 FI 技術表示箇所 C04B 38/00 304 C04B 38/00 304Z (72)発明者 浅川 正名 千葉県松戸市小金原5−27−2 清水マン ション102 (72)発明者 粟野 順二郎 大阪府門真市大字門真1006番地 松下電器 産業株式会社内Front page continuation (51) Int.Cl. 6 Identification number Office reference number FI Technical indication location C04B 38/00 304 C04B 38/00 304Z (72) Inventor Masana Masakawa 5-27-2 Koganehara, Matsudo City, Chiba Prefecture Shimizu Mansion 102 (72) Inventor Junjiro Awano 1006 Kadoma, Kadoma City, Osaka Prefecture Matsushita Electric Industrial Co., Ltd.

Claims (3)

【特許請求の範囲】[Claims] 【請求項1】アルカリ長石と石英を主成分とする石英斑
岩の微細粉末を混練・成形・焼成してなり、多数の孔
(セル)をハニカム状に有すると共に、生体の恒常性を
維持するための矯正波動を印加してなることを特徴とす
るハニカム構造体。
1. A mixture of alkali feldspar and fine quartz porphyry powder containing quartz as a main component, which is kneaded, shaped and fired, and has a large number of pores (cells) in a honeycomb shape and maintains the homeostasis of a living body. A honeycomb structure characterized by being applied with a correction wave.
【請求項2】アルカリ長石と石英を主成分とする石英斑
岩を微細粉末にし、この粉末に焼結用バインダーを加え
て混練し、混練したものを多数の孔(セル)を有するハ
ニカム形状体に成形し、このハニカム形状体を500〜
640℃の温度で焼成し、焼成したハニカム形状体に生
体の恒常性を維持するための矯正波動を一定の磁性下で
印加することを特徴とするハニカム構造体の製造方法。
2. A honeycomb shaped body having a large number of pores (cells), which is made by finely pulverizing quartz porphyry containing alkali feldspar and quartz as a main component, adding a sintering binder to the powder, and kneading the mixture. And the honeycomb shaped body is molded into
A method for manufacturing a honeycomb structure, comprising: firing at a temperature of 640 ° C .; and applying a correction wave for maintaining homeostasis of a living body to the fired honeycomb-shaped body under constant magnetism.
【請求項3】電解質ミネラルの化合物からなる鉱石を微
細粉末にし、この粉末を前記石英斑岩の微細粉末と1対
9の割合で混合することを特徴とする請求項2記載のハ
ニカム構造体の製造方法。
3. A honeycomb structure according to claim 2, wherein ore made of a compound of an electrolyte mineral is made into a fine powder, and this powder is mixed with the fine powder of the quartz porphyry in a ratio of 1: 9. Production method.
JP16168495A 1995-06-28 1995-06-28 Honeycomb structure and production thereof Pending JPH0910776A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP16168495A JPH0910776A (en) 1995-06-28 1995-06-28 Honeycomb structure and production thereof

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP16168495A JPH0910776A (en) 1995-06-28 1995-06-28 Honeycomb structure and production thereof

Publications (1)

Publication Number Publication Date
JPH0910776A true JPH0910776A (en) 1997-01-14

Family

ID=15739889

Family Applications (1)

Application Number Title Priority Date Filing Date
JP16168495A Pending JPH0910776A (en) 1995-06-28 1995-06-28 Honeycomb structure and production thereof

Country Status (1)

Country Link
JP (1) JPH0910776A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2002068920A (en) * 2000-08-29 2002-03-08 Keikosha:Kk Biofunction-activating material
EP1462163A1 (en) * 2001-12-25 2004-09-29 Wellness Co., Ltd. Field converter and fluid processing device using the converter

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2002068920A (en) * 2000-08-29 2002-03-08 Keikosha:Kk Biofunction-activating material
EP1462163A1 (en) * 2001-12-25 2004-09-29 Wellness Co., Ltd. Field converter and fluid processing device using the converter
EP1462163A4 (en) * 2001-12-25 2005-04-27 Wellness Co Ltd Field converter and fluid processing device using the converter
US7449159B2 (en) 2001-12-25 2008-11-11 Wellness Co., Ltd Liquid processing device and method of manufacturing processed liquid

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