JP2012201570A - Composite memory material and production method - Google Patents

Composite memory material and production method Download PDF

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JP2012201570A
JP2012201570A JP2011069604A JP2011069604A JP2012201570A JP 2012201570 A JP2012201570 A JP 2012201570A JP 2011069604 A JP2011069604 A JP 2011069604A JP 2011069604 A JP2011069604 A JP 2011069604A JP 2012201570 A JP2012201570 A JP 2012201570A
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Han-Tang Fu
傅瀚禾唐
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Abstract

PROBLEM TO BE SOLVED: To provide a composite memory material and a method for producing it by synthesis and sintering.SOLUTION: This composite memory material 1 includes specific ores, quartz and jade which are various natural microelements and minerals necessary for the human body and produced by mixing them utilizing a special production process and sintering at a high temperature, then applying a wave tunneling effect treatment using a quantum instrument and a microwave energy information code which can improve human health is transferred to the composite memory material 1. If the composite memory material 1 is used as a filter for filtering water, the natural mineral, the microelement and the energy information beneficial for the human body via nano level production process and quantization are dissolved in water and the human body can resist the oxidation phenomenon of body constitution which is incurred by free radicals and improper drinking and eating.

Description

本発明は複合記憶材料製造方法に関し、特に複合記憶材料に用いる材料を合成し、焼成する方法である複合記憶材料と製造方法に関する。   The present invention relates to a composite memory material manufacturing method, and more particularly to a composite memory material and a manufacturing method which are methods for synthesizing and firing materials used for a composite memory material.

21世紀の今日、台湾では、国民に日常生活に用いる水を供給するために、早くから上水道管を用いた方式による各家庭への給水が広く普及している。しかし、上水道水の清潔で衛生的な水質と適度な酸/アルカリ度を確保するため、上水道水の製造過程では、ミョウバンが加えられている。これにより、水中の雑物と顆粒状に凝結し、沈殿させることで濾過することができる。この後には、塩素を加え、消毒、殺菌を行う。最後に、石灰水を加えて、酸/アルカリ度を調節する。そのため、上水道水の多くには、塩素消毒により生じた化学物質と水中の有機物などの発ガンの恐れがある汚染物が含まれている。このため、多くの家庭では、浄水/ろ過設備を設置している。しかし、現在市販されている浄水器の内部濾過材は、上水道水を簡易に濾過、殺菌するだけで、水中の不純物、或いは有害物質を完全に除去、吸着することができない。しかも、人体が必要とするミネラル及び微量元素を、水中に増やすことができず、また人体に、より吸収され易い微小分子である水分子構造を提供することができない。
本発明は、従来の複合記憶材料と製造方法の上記した欠点に鑑みてなされたものである。
Today in the 21st century, in Taiwan, water supply to households by using a water pipe has been widespread since early in order to supply water for daily life to the people. However, in order to ensure clean and sanitary water quality and moderate acid / alkalinity of tap water, alum is added in the process of making tap water. Thereby, it can be filtered by coagulating and precipitating with impurities in the water. After this, chlorine is added to disinfect and sterilize. Finally, lime water is added to adjust acid / alkalinity. Therefore, most tap water contains chemicals generated by chlorination and contaminants that may cause cancer such as organic substances in water. For this reason, many households have water purification / filtration facilities. However, the internal filter material of water purifiers currently on the market cannot completely remove or adsorb impurities or harmful substances in the water simply by filtering and sterilizing tap water. In addition, minerals and trace elements required by the human body cannot be increased in water, and a water molecule structure that is a micromolecule that is more easily absorbed cannot be provided to the human body.
The present invention has been made in view of the above-described drawbacks of conventional composite memory materials and manufacturing methods.

本発明が解決しようとする課題は、人体が必要とする多種の天然微量元素及びミネラルである特定の鉱石、水晶、ヒスイを含み、特殊な製造工程を利用して混合し、高温で焼成して、複合記憶材料を形成し、量子機器を用いて波動トンネル効果処理を施すことで、人体の健康を改善することができる微波動エネルギー情報コードを複合記憶材料に移転し、複合記憶材料を水質を濾過する濾過材に使用すると、ナノレベル製造工程と量子化を経た天然ミネラル、微量元素、人体に有益なエネルギー情報が水中に溶け込み、これにより人体は、フリーラジカル及び不適当な飲食が招く体質の酸化現象に対抗することができる複合記憶材料と製造方法を提供することである。   Problems to be solved by the present invention include various natural trace elements and minerals required by the human body, including specific ores, crystals, and jade, mixed using a special manufacturing process, and fired at a high temperature. By forming a composite memory material and applying a wave tunnel effect treatment using a quantum device, the microwave energy information code that can improve human health is transferred to the composite memory material, and the water quality of the composite memory material is reduced. When used in filtration media, nano-level manufacturing processes and quantized natural minerals, trace elements, and energy information beneficial to the human body dissolve in the water, which causes the human body to develop free radicals and inappropriate food and beverages. It is to provide a composite memory material and a manufacturing method that can counter an oxidation phenomenon.

上記課題を解決するため、本発明は下記の複合記憶材料と製造方法を提供する。
複合記憶材料製造方法は、以下のステップを含み、
ステップ1:トルマリン、雲母、麦飯石、ゲルマナイト、方解石、琥珀、メノウ、陽起石、水晶、ヒスイを、それぞれナノレベル製造工程により、ナノ化した粉状構造とし、
ステップ2:相対比率で、8%のトルマリン粉、12%の雲母粉、16%の麦飯石粉、4%のゲルマナイト粉、9%の方解石粉、8%の琥珀粉、10%のメノウ粉、12%の陽起石粉、15%の水晶粉、6%のヒスイ粉を混合し、低温冷凍下で、衝突式研磨を行い、複合粉状構造を形成し、
ステップ3:有機陶土と該複合粉状構造を、適当な比率で混合し、特定の圧力下で、高圧成型して、固体構造とし、
ステップ4:該固体構造を、摂氏1349度で焼き、顆粒構造を形成し、しかも、該顆粒構造は、複数の微細孔隙を備える。
In order to solve the above problems, the present invention provides the following composite memory material and manufacturing method.
The composite memory material manufacturing method includes the following steps:
Step 1: Tourmaline, mica, barleystone, germanite, calcite, cocoon, agate, positive stone, crystal, jade are each made into a nano-structured powder structure by a nano-level manufacturing process,
Step 2: 8% tourmaline powder, 12% mica powder, 16% barleystone powder, 4% germanite powder, 9% calcite powder, 8% bran powder, 10% agate powder in relative proportions, Mixing 12% propetite powder, 15% crystal powder and 6% jade powder, and performing collision-type polishing under low temperature freezing to form a composite powdery structure,
Step 3: Organic porcelain clay and the composite powder structure are mixed at an appropriate ratio and subjected to high-pressure molding under a specific pressure to obtain a solid structure.
Step 4: The solid structure is baked at 1349 degrees Celsius to form a granular structure, and the granular structure comprises a plurality of micropores.

本発明の複合記憶材料と製造方法は、人体が必要とする多種の天然微量元素及びミネラルである特定の鉱石、水晶、ヒスイを含み、特殊な製造工程を利用して混合し、高温で焼成して、複合記憶材料を形成し、量子機器を用いて波動トンネル効果処理を施すことで、人体の健康を改善することができる微波動エネルギー情報コードを複合記憶材料に移転し、複合記憶材料を水質を濾過する濾過材に使用すると、ナノレベル製造工程と量子化を経た天然ミネラル、微量元素、人体に有益なエネルギー情報が水中に溶け込み、これにより人体は、フリーラジカル及び不適当な飲食が招く体質の酸化現象に対抗することができる。   The composite memory material and the manufacturing method of the present invention include various kinds of natural trace elements and minerals required by the human body, including specific ores, crystals, and jade, mixed using a special manufacturing process, and fired at a high temperature. By forming a composite memory material and applying a wave tunnel effect treatment using a quantum device, the microwave energy information code that can improve the health of the human body is transferred to the composite memory material, and the composite memory material is When it is used as a filter material for filtration, natural minerals, trace elements, and energy information beneficial to the human body are dissolved in water through the nano-level manufacturing process and quantization, which causes the human body to experience free radicals and inappropriate eating and drinking. Can counteract the oxidation phenomenon.

複合記憶材料製造方法のフローチャートである。It is a flowchart of a composite memory material manufacturing method. 複合記憶材料の立体図である。It is a three-dimensional view of a composite memory material. 複合記憶材料の断面図である。It is sectional drawing of a composite memory material. 顆粒構造の立体図である。It is a three-dimensional view of a granule structure. 複合記憶材料の使用状態模式図である。It is a use condition schematic diagram of a composite memory material.

以下に図面を参照しながら本発明を実施するための最良の形態について詳細に説明する。   The best mode for carrying out the present invention will be described in detail below with reference to the drawings.

図1〜5に示す、本発明複合記憶材料製造方法は、複合記憶材料1の製造に応用する。さらに、量子機器により、複合記憶材料1に波動トンネル効果処理を施すことで、人体の健康を改善することができる微波動エネルギー情報コードを複合材料1に移転することができる。   The composite memory material manufacturing method according to the present invention shown in FIGS. Furthermore, the wave energy effect code which can improve the health of a human body can be transferred to the composite material 1 by applying the wave tunnel effect processing to the composite memory material 1 with a quantum device.

複合記憶材料1の製造方法は、以下の通りである。
ステップ1:トルマリン、雲母、麦飯石、ゲルマナイト、方解石、琥珀、メノウ、陽起石、水晶、ヒスイを、それぞれナノレベル製造工程により、ナノ化した粉状構造とする。
ステップ2:相対比率で、8%のトルマリン粉、12%の雲母粉、16%の麦飯石粉、4%のゲルマナイト粉、9%の方解石粉、8%の琥珀粉、10%のメノウ粉、12%の陽起石粉、15%の水晶粉、6%のヒスイ粉を混合し、低温冷凍下で、衝突式研磨を行い、複合粉状構造42を形成する。
ステップ3:陶土41と複合粉状構造42を、適当な比率で混合し、特定の圧力下で、高圧成型して、固体構造とする。
ステップ4:上記の固体構造を、摂氏1349度の高温で焼き、顆粒構造3を形成する。しかも、顆粒構造3は、複数の微細孔隙31を備えている。
ステップ5:顆粒構造3の表面をさらに、ナノ化した銀粉2で均一に覆い、さらに特定の温度で焼いて成型する。
The manufacturing method of the composite memory material 1 is as follows.
Step 1: Tourmaline, mica, barley stone, germanite, calcite, coral, agate, positive stone, crystal, and jade are each made into a nano-structured powder structure by a nano-level manufacturing process.
Step 2: 8% tourmaline powder, 12% mica powder, 16% barleystone powder, 4% germanite powder, 9% calcite powder, 8% bran powder, 10% agate powder in relative proportions, A composite powdery structure 42 is formed by mixing 12% elite stone powder, 15% crystal powder, and 6% jade powder, and performing collision-type polishing under low-temperature freezing.
Step 3: The porcelain clay 41 and the composite powder structure 42 are mixed at an appropriate ratio, and high-pressure molded under a specific pressure to obtain a solid structure.
Step 4: The above solid structure is baked at a high temperature of 1349 degrees Celsius to form the granular structure 3. Moreover, the granule structure 3 includes a plurality of fine pores 31.
Step 5: The surface of the granule structure 3 is further uniformly covered with the nano-sized silver powder 2 and further baked and molded at a specific temperature.

複合記憶材料1は、多種の天然ミネラル、及びゲルマニウム、セレン、亜鉛、銅、マンガン、鉄、クロム、コバルト、カルシウム、カリウムなどの微量元素を含む。そのため、複合記憶材料1を、濾芯管5内部の水質を濾過する濾過材に使用すると、天然ミネラルと微量元素が放射され、水中に溶け込む。これにより、一般の人が日常に必要な天然ミネラルと微量元素を補うことができ、これにより人体は、フリーラジカル及び不適当な飲食が招く体質の酸化現象に対抗することができる。   The composite memory material 1 contains various natural minerals and trace elements such as germanium, selenium, zinc, copper, manganese, iron, chromium, cobalt, calcium, and potassium. For this reason, when the composite memory material 1 is used as a filter medium for filtering the water quality inside the filter core tube 5, natural minerals and trace elements are emitted and dissolved in water. Thereby, a general person can supplement natural minerals and trace elements necessary for daily life, and thus the human body can counter the oxidative phenomenon caused by free radicals and inappropriate food and drink.

濾過水が複合記憶材料1を通過することで溶け込む天然ミネラルと微量元素の、人体に対する作用は、以下の通りである。
クロムCr インシュリンと結合して血糖を低下させ、炭水化物と脂肪の代謝を活性化し、血糖を安定させ、中性脂肪とコレステロールを低下させる。
カルシウムCa PH値のバランスを維持し、血糖を安定させ、骨粗しょう症を予防し、カルシウムとマグネシウムのバランスを取ることで精神を安定させ、骨と歯を強化し、血液の凝固を助ける。
マグネシウムMg PH値のバランスを維持し、血糖を安定させ、炭水化物の代謝を助け、心臓病を防止し、うつ病に効果があり、腎臓結石と胆石を予防し、便秘を改善する。
亜鉛Zn 血糖のバランスをとり、低血糖の発生を回避し、免疫システムを増強し、前立腺肥大と男性不妊症を予防し、傷の治りを促進する。
マンガンMn 血糖のバランスをとり、低血糖の発生を回避し、酵素を活性化し、炭水化物、脂肪、タンパク質の代謝を活性化し、骨の生成を促進する。
有機ゲルマニウムGe(特殊微量元素) 希少元素であるため非常に高価。ガンを予防し、B型肝炎ウィルスを治療し、免疫機能を活性化してインターフェロンを発生し、細胞の酸素含有量を増やし、身体の毒素排出と抗酸化を助ける。
セレンSe 重金属水銀を吸着でき、無機ヒ素に対応でき、対外に排出し、細胞組織の酸化を防止し、ガンを防止し、抗老化作用を備え、心臓血管疾病を予防し、免疫能力を増やし、化学療法薬物の毒性を低下させることができる。水銀は、脂肪分解酵素の分解と脂肪の燃焼を妨げ、減量失敗の最大の元凶となるものである。
ナトリウムNa カリウムとバランスをとり、水分と血液の酸/アルカリ値を調節する。
カリウムK 細胞内外のカリウム/ナトリウムバランスをとり、血圧を調整し、正常な筋肉の収縮を助け、心臓の鼓動を安定させ、低血糖の発生を回避する。
鉄Fe 赤血球中のヘモグロビンの成分で、酸素を全身に供給し、酸欠による鉄欠乏性貧血を予防する。
コバルトCo B12を構成する元素で、悪性貧血を防止し、神経過敏と注意力及び記憶力の減退を予防する。
銅Cu ヘモグロビンの合成を促進し、鉄の吸収を助け、コラーゲンの形成を促進する。
ケイ素Si コラーゲンが必要とするカルシウムを留め、結合組織を強化し、アルミニウム毒素と結合して体外へと排出する。
ニッケルNi 尿素分解に必要な酵素の構成要素で、尿の分解を促進し、鉄の吸収を値高める。
The action of natural minerals and trace elements dissolved by passing filtered water through the composite memory material 1 on the human body is as follows.
Chromium Cr binds to insulin to lower blood sugar, activate carbohydrate and fat metabolism, stabilize blood sugar, lower neutral fat and cholesterol.
Maintains calcium Ca PH level balance, stabilizes blood sugar, prevents osteoporosis, balances calcium and magnesium, stabilizes the mind, strengthens bones and teeth, and helps blood clot.
Maintain the balance of magnesium Mg PH level, stabilize blood sugar, help carbohydrate metabolism, prevent heart disease, be effective in depression, prevent kidney stones and gallstones, improve constipation.
Zinc Zn Balances blood sugar, avoids hypoglycemia, strengthens the immune system, prevents prostate enlargement and male infertility, and promotes wound healing.
Manganese Mn Balances blood sugar, avoids hypoglycemia, activates enzymes, activates carbohydrate, fat and protein metabolism and promotes bone formation.
Organic germanium Ge (special trace element) Very rare because it is a rare element. Prevents cancer, treats hepatitis B virus, activates immune function to generate interferon, increases cellular oxygen content, helps the body excrete toxins and antioxidants.
Selenium Se can adsorb heavy metal mercury, can respond to inorganic arsenic, excrete to the outside, prevent the oxidation of cell tissues, prevent cancer, have anti-aging action, prevent cardiovascular disease, increase immune capacity, It can reduce the toxicity of chemotherapeutic drugs. Mercury is the biggest cause of weight loss failure, hindering the degradation of lipolytic enzymes and fat burning.
Sodium Na Balance with potassium to adjust water and blood acid / alkaline values.
Potassium K Balances potassium / sodium inside and outside cells, regulates blood pressure, helps normal muscle contraction, stabilizes heartbeat, and avoids hypoglycemia.
Iron Fe A hemoglobin component in erythrocytes that supplies oxygen throughout the body and prevents iron deficiency anemia due to oxygen deficiency.
It is an element constituting cobalt Co B12, which prevents pernicious anemia and prevents deterioration of irritability and attention and memory.
It promotes the synthesis of copper Cu hemoglobin, helps iron absorption and promotes the formation of collagen.
It retains the calcium required by silicon-Si collagen, strengthens the connective tissue, binds to aluminum toxin, and excretes it outside the body.
Nickel Ni An enzyme component required for urea decomposition, promotes urine decomposition and increases iron absorption.

カルシウム、リン、マグネシウムは、骨の成長と発育を促進する。カリウム、ナトリウム、塩素は、体液のバランスを調節し、安定を促進する。カルシウム、リン、硫黄は、身体器官と組織細胞の必要成分である。マグネシウム、鉄、リンは、エネルギーの放射を担当する酵素システムの重要な成分である。ヨウ素は、甲状腺機能に影響を及ぼし、しかも発育と関係がある。銅、鉄は、赤血球組成の必要成分である。硫黄、コバルトは、体内で数種のビタミンの合成を助ける。亜鉛は、インシュリンの必要成分である。上記のように、すべてのミネラルは、人の健康に対して重大で、かつプラスの影響を及ぼすことができる。   Calcium, phosphorus and magnesium promote bone growth and development. Potassium, sodium, and chlorine regulate body fluid balance and promote stability. Calcium, phosphorus and sulfur are essential components of body organs and tissue cells. Magnesium, iron and phosphorus are important components of the enzyme system responsible for energy emission. Iodine affects thyroid function and is associated with development. Copper and iron are necessary components of the red blood cell composition. Sulfur and cobalt help the body synthesize several vitamins. Zinc is a necessary component of insulin. As noted above, all minerals can have a significant and positive impact on human health.

複合記憶材料1は、大量の天然ミネラルと微量元素を豊富に含むだけでなく、量子共鳴分析器により波動トンネル効果処理を施すため、材料内部の分子は量子化される。よって、濾過水流が複合記憶材料1を通過すると、水の分子構造は、超微粒子状に新たに配列され、3〜6個の小さな分子に分割される。これは、一般的な水の分子に比べ、より容易に、細胞の層を次々に通り貫け、分子層、原子層へと進み、最後には、量子層へと深く達し、人体に吸収される。これにより、人体の栄養素溶解、毒素と老廃物の排除、新陳代謝率の向上を助け、こうして活力と生命力を回復することができる。波動トンネル効果処理を行う際には、人体健康を改善できる微波動エネルギー情報コードを、複合記憶材料1に移転することができ、これにより複合記憶材料1が濾過水と接触する時にそれを放射し、水中に溶け込ませることができる。こうして、分子の小さな水はすべて、健康を改善する情報コードを帯びることになり、人体に吸収され易くなるばかりか、抵抗力を高め、薬物及び食品栄養の吸収を助け、野菜と果物中の農薬と重金属を分解し、心と体の特性を改善することができる。   The composite memory material 1 not only contains a large amount of a large amount of natural minerals and trace elements, but also performs a wave tunnel effect treatment by a quantum resonance analyzer, so that the molecules inside the material are quantized. Therefore, when the filtered water flow passes through the composite memory material 1, the molecular structure of water is newly arranged in the form of ultrafine particles and divided into 3 to 6 small molecules. Compared to the general water molecule, this is easier to penetrate the cell layer one after another, proceed to the molecular layer, the atomic layer, and finally reach the quantum layer and be absorbed by the human body. . This helps to dissolve nutrients in the human body, eliminate toxins and waste products, improve the metabolic rate, and thus restore vitality and vitality. When performing the wave tunnel effect treatment, a micro wave energy information code that can improve human health can be transferred to the composite memory material 1, thereby radiating it when the composite memory material 1 comes into contact with filtered water. Can be dissolved in water. Thus, all small water molecules carry an information code that improves health and are not only easily absorbed by the human body, but also increase resistance, help absorption of drugs and food nutrients, pesticides in vegetables and fruits And can decompose heavy metals and improve the mind and body characteristics.

よって、家庭に供給される上水道水は、複合記憶材料1を内部に含む濾芯管5を装置する多重濾過装置による濾過を経ることで浄化され、自然な甘味がありおいしく、微小水分子を備える天然アルカリ性活性水となる。しかも、それは天然ミネラルと微量元素を豊富に含み、微波動エネルギー情報コードを備えるため、人体に水分を補充する他、人体の健康を改善することができる優れた飲料水である。   Therefore, the tap water supplied to the home is purified by filtration through a multiple filtration device having a filter core tube 5 containing the composite memory material 1 therein, and has a natural sweet taste and natural nature with minute water molecules. It becomes alkaline active water. Moreover, since it contains abundant natural minerals and trace elements and includes a microwave energy information code, it is an excellent drinking water that can replenish the human body and improve the health of the human body.

上記の本発明名称と内容は、本発明技術内容の説明に用いたのみで、本発明を限定するものではない。本発明の精神に基づく等価応用或いは部品(構造)の転換、置換、数量の増減はすべて、本発明の保護範囲に含むものとする。   The above-mentioned names and contents of the present invention are only used for explaining the technical contents of the present invention, and do not limit the present invention. All equivalent applications or parts (structures) conversion, replacement and increase / decrease in quantity based on the spirit of the present invention shall be included in the protection scope of the present invention.

本発明は特許の要件である新規性を備え、従来の同類製品に比べ十分な進歩を有し、実用性が高く、社会のニーズに合致しており、産業上の利用価値は非常に大きい。   The present invention has the novelty that is a requirement of patents, has sufficiently advanced as compared with conventional similar products, has high practicality, meets the needs of society, and has a great industrial utility value.

1 複合記憶材料
2 銀粉
3 顆粒構造
31 孔隙
41 陶土
42 複合粉状構造
5 濾芯管
DESCRIPTION OF SYMBOLS 1 Composite memory material 2 Silver powder 3 Granule structure 31 Pore 41 Porcelain clay 42 Composite powder-like structure 5 Filter core tube

Claims (9)

複合記憶材料製造方法において、複合記憶材料の製造に応用し、さらに量子機器により、前記複合記憶材料に波動トンネル効果処理を施すことで、人体の健康を改善することができる微波動エネルギー情報コードを前記複合材料に移転することができ、
前記複合記憶材料の製造方法は、以下のステップを含み、
ステップ1:トルマリン、雲母、麦飯石、ゲルマナイト、方解石、琥珀、メノウ、陽起石、水晶、ヒスイを、それぞれナノレベル製造工程により、ナノ化した粉状構造とし、
ステップ2:前記トルマリン粉、前記雲母粉、前記麦飯石粉、前記ゲルマナイト粉、前記方解石粉、前記琥珀粉、前記メノウ粉、前記陽起石粉、前記水晶粉、前記スイ粉を、適当な割合で混合し、低温冷凍下で、衝突式研磨を行い、複合粉状構造を形成し、
ステップ3:有機陶土と前記複合粉状構造を、適当な比率で混合し、特定の圧力下で、高圧成型して、固体構造とし、
ステップ4:前記固体構造を、高温で焼き、顆粒構造を形成し、しかも、前記顆粒構造は、複数の微細孔隙を備えることを特徴とする複合記憶材料製造方法。
In the composite memory material manufacturing method, a microwave energy information code that can be applied to the manufacture of a composite memory material and further improves the health of the human body by applying a wave tunnel effect treatment to the composite memory material with a quantum device. Can be transferred to the composite material,
The method for manufacturing the composite memory material includes the following steps:
Step 1: Tourmaline, mica, barleystone, germanite, calcite, cocoon, agate, positive stone, crystal, jade are each made into a nano-structured powder structure by a nano-level manufacturing process,
Step 2: The tourmaline powder, the mica powder, the barley stone powder, the germanite powder, the calcite powder, the straw powder, the agate powder, the erectite powder, the crystal powder, and the water powder at an appropriate ratio Mix and perform collision-type polishing under low temperature freezing to form a composite powder structure,
Step 3: Organic porcelain clay and the composite powder structure are mixed at an appropriate ratio, and are molded under high pressure under a specific pressure to obtain a solid structure.
Step 4: The solid structure is baked at a high temperature to form a granule structure, and the granule structure has a plurality of fine pores.
前記複合記憶材料製造方法はさらに、以下を含み、
ステップ5:前記顆粒構造の表面をさらに、ナノ化した銀粉で均一に覆い、さらに特定の温度で焼いて成型することを特徴とする請求項1に記載の複合記憶材料製造方法。
The composite memory material manufacturing method further includes:
Step 5: The method for producing a composite memory material according to claim 1, wherein the surface of the granule structure is further uniformly covered with nano-sized silver powder and further baked and molded at a specific temperature.
前記複合粉状構造の成分比率は、8%のトルマリン粉、12%の雲母粉、16%の麦飯石粉、4%のゲルマナイト粉、9%の方解石粉、8%の琥珀粉、10%のメノウ粉、12%の陽起石粉、15%の水晶粉、6%のヒスイ粉を含むことを特徴とする請求項1或いは2に記載の複合記憶材料製造方法。   The component ratio of the composite powdery structure is 8% tourmaline powder, 12% mica powder, 16% barleystone powder, 4% germanite powder, 9% calcite powder, 8% koji powder, 10% The method for producing a composite memory material according to claim 1 or 2, comprising agate powder, 12% erection stone powder, 15% crystal powder, and 6% jade powder. 前記顆粒構造は、前記固体構造を、摂氏1349度の高温で焼き形成することを特徴とする請求項1或いは2に記載の複合記憶材料製造方法。   3. The method of manufacturing a composite memory material according to claim 1, wherein the granular structure is formed by baking the solid structure at a high temperature of 1349 degrees Celsius. 前記複合粉状構造の成分比率は、8%のトルマリン粉、12%の雲母粉、16%の麦飯石粉、4%のゲルマナイト粉、9%の方解石粉、8%の琥珀粉、10%のメノウ粉、12%の陽起石粉、15%の水晶粉、6%のヒスイ粉を含むことを特徴とする請求項4に記載の複合記憶材料製造方法。   The component ratio of the composite powdery structure is 8% tourmaline powder, 12% mica powder, 16% barleystone powder, 4% germanite powder, 9% calcite powder, 8% koji powder, 10% 5. The method for producing a composite memory material according to claim 4, comprising: agate powder, 12% erectite powder, 15% crystal powder, and 6% jade powder. 複合記憶材料は、有機陶土とナノ化した少なくとも1個の粉状構造を備え、
前記陶土と前記粉状構造とは、適当な比率で混合し、高温で焼成して顆粒構造とし、
しかも、前記顆粒構造は、複数の微細孔隙を備えており、
前記粉状構造は、トルマリン粉、雲母粉、麦飯石粉、ゲルマナイト粉、方解石粉、琥珀粉、メノウ粉、陽起石粉、水晶粉、ヒスイ粉であることを特徴とする複合記憶材料。
The composite memory material comprises at least one powdered structure that is nano-sized with organic clay,
The porcelain clay and the powdered structure are mixed at an appropriate ratio and fired at a high temperature to form a granular structure.
Moreover, the granular structure has a plurality of fine pores,
The composite memory material, wherein the powdery structure is tourmaline powder, mica powder, barley stone powder, germanite powder, calcite powder, cocoon powder, agate powder, positive stone powder, crystal powder, and jade powder.
複合記憶材料は、有機陶土とナノ化した複数の粉状構造を備え、
前記陶土と前記各粉状構造とは、適当な比率で混合し、高温で焼成して顆粒構造とし、
しかも、前記顆粒構造は、複数の微細孔隙を備えており、
前記各粉状構造は、トルマリン粉、雲母粉、麦飯石粉、ゲルマナイト粉、方解石粉、琥珀粉、メノウ粉、陽起石粉、水晶粉、ヒスイ粉であることを特徴とする複合記憶材料。
The composite memory material has a plurality of powdered structures made of organic porcelain and nano-
The porcelain clay and each of the powdery structures are mixed at an appropriate ratio and fired at a high temperature to form a granular structure.
Moreover, the granular structure has a plurality of fine pores,
Each of the powdery structures is tourmaline powder, mica powder, barley stone powder, germanite powder, calcite powder, cocoon powder, agate powder, positive stone powder, crystal powder, and jade powder.
前記各粉状構造の相互間の相対比率は、8%のトルマリン粉、12%の雲母粉、16%の麦飯石粉、4%のゲルマナイト粉、9%の方解石粉、8%の琥珀粉、10%のメノウ粉、12%の陽起石粉、15%の水晶粉、6%のヒスイ粉であることを特徴とする請求項7に記載の複合記憶材料。   The relative proportions between the powdery structures are 8% tourmaline powder, 12% mica powder, 16% barleystone powder, 4% germanite powder, 9% calcite powder, 8% potato powder, The composite memory material according to claim 7, wherein the composite memory material is 10% agate powder, 12% sunlite powder, 15% crystal powder, and 6% jade powder. 前記顆粒構造の表面をさらに、ナノ化した銀粉で均一に覆うことを特徴とする請求項6或いは7或いは8に記載の複合記憶材料。   9. The composite memory material according to claim 6, 7 or 8, wherein the surface of the granular structure is further uniformly covered with nano-sized silver powder.
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