JPS63270787A - Far infrared radiator - Google Patents

Far infrared radiator

Info

Publication number
JPS63270787A
JPS63270787A JP62104784A JP10478487A JPS63270787A JP S63270787 A JPS63270787 A JP S63270787A JP 62104784 A JP62104784 A JP 62104784A JP 10478487 A JP10478487 A JP 10478487A JP S63270787 A JPS63270787 A JP S63270787A
Authority
JP
Japan
Prior art keywords
far
radiator
far infrared
infrared
synthetic rubber
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
JP62104784A
Other languages
Japanese (ja)
Inventor
Noriyuki Tabata
田端 宣之
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.)
TANABE SHOKO KK
Original Assignee
TANABE SHOKO KK
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 TANABE SHOKO KK filed Critical TANABE SHOKO KK
Priority to JP62104784A priority Critical patent/JPS63270787A/en
Publication of JPS63270787A publication Critical patent/JPS63270787A/en
Pending legal-status Critical Current

Links

Abstract

PURPOSE:To provide a far infrared radiator which permits ready preparation of a product having a large radiation area by the use of a small amt. of a raw material, is so flexible that cutting, etc., are facile, does not break when let fall and is free from water absorption and bacterium invasion, and which comprises a synthetic rubber and, blended therein, a powdery ceramic material capable of radiating far infrared rays. CONSTITUTION:A fine powder of a ceramic material capable of radiating far infrared rays is blended in a synthetic rubber in the blending step of the synthetic rubber manufacturing process, and subjected to procedures similar to those customary for preparing sheet-form synthetic rubbers, thereby obtaining a sheet-form far infrared radiator comprising the synthetic rubber and, blended therein, fine powder of the ceramic material. Due to the sheet form, the far infrared radiator provides a large radiation area by the use of a small amt. of a raw material. Also, the radiator can be cut or blanked into any desirable size and shape with extreme readiness. The radiator does not break when let fall, and is hygienic since it is free from water absorption and bacterium invasion. The radiator has high heat resistance, so that a radiator article stable at a temp. as high as about 200 deg.C can be produced.

Description

【発明の詳細な説明】 〔産業上の利用分野〕 本発明は、遠赤外線を放射するシート状の遠赤外線放射
体に関する。
DETAILED DESCRIPTION OF THE INVENTION [Industrial Field of Application] The present invention relates to a sheet-shaped far-infrared radiator that emits far-infrared rays.

〔従来の技術〕[Conventional technology]

遠赤外線とは、赤外線のうちの波長の長いものを言う。 Far-infrared rays refer to infrared rays with longer wavelengths.

今のところ一般には、具体的にどの範囲の波長の赤外線
を遠赤外線と言うかは必ずしも統一されていないが、本
明細書では、4〜50μの波長の範囲の電磁波を遠赤外
線と言うものとする。
Currently, it is not generally agreed upon which wavelength range of infrared rays is referred to as far infrared rays, but in this specification, electromagnetic waves in the wavelength range of 4 to 50μ are referred to as far infrared rays. do.

熱が温度の高い物質から低い物質へ移るには、(a)伝
導、(b)対流、(c)放射(輻射)の3つの方式があ
る。伝導と対流においては、固体、液体または気体を媒
体として熱が伝わるのに対して、放射では、媒体を必要
とせず熱が伝わる。赤外線は、このような放射により伝
熱を行う作用がある。
There are three ways heat can be transferred from a substance with a high temperature to a substance with a low temperature: (a) conduction, (b) convection, and (c) radiation. Conduction and convection transfer heat through a solid, liquid, or gas medium, whereas radiation transfers heat without the need for a medium. Infrared rays have the effect of transferring heat through such radiation.

すなわち、赤外線は相手物質の分子運動と共振すると吸
収されて熱になる性質を有する。例えば、水は1μ以上
の赤外線をほとんど吸収して加熱されるし、大部分の高
分子や有機化合物は3〜25μの遠赤外線を選択的に吸
収して加熱される。しかし、赤外線は酸素や窒素等、空
気の主成分には全く吸収されないので、熱源から離れた
物体に対しても、途中の空気を暖めることなく、直接相
手物質に吸収されて相手物質に熱を伝えることができる
That is, infrared rays have the property of being absorbed and turning into heat when they resonate with the molecular motion of the other substance. For example, water absorbs almost all infrared rays of 1μ or more and is heated, and most polymers and organic compounds selectively absorb far infrared rays of 3 to 25μ and are heated. However, infrared rays are not absorbed at all by the main components of air, such as oxygen and nitrogen, so even for objects that are far away from the heat source, they are directly absorbed by the other object and transfer heat to the other object without warming the air on the way. I can tell you.

特に、遠赤外線(中でも波長5〜14μ程度の遠赤外線
)は、物質の内部にまで浸透して物質を内部から加熱す
る作用があり、種々の分野において極めて有用であるこ
とが近年分ってきた。
In particular, far infrared rays (particularly far infrared rays with a wavelength of about 5 to 14 microns) have the ability to penetrate deep into materials and heat them from within, and have recently been found to be extremely useful in a variety of fields. .

さて、物質の中には、上述のような遠赤外線を放射する
物質があり、この種の物質は絶対温度K(273℃+X
 ”C)の熱エネルギを絶えず吸収しながら、その熱エ
ネルギを遠赤外線の放射エネルギに変えている。この種
の物質の具体例としては、セラミックスが従来よりよく
知られている。
Now, among substances, there are substances that emit far infrared rays as mentioned above, and this type of substance has an absolute temperature of K (273℃ + X
While constantly absorbing the thermal energy of "C), it converts the thermal energy into far-infrared radiant energy. Ceramics are well known as a specific example of this type of material.

このため、従来より、遠赤外線放射体として、セラミッ
ク体のみの成形品や、セラミックの粉末または繊維を主
成分として紙状に加工したもの等が開発されている。
For this reason, conventional far-infrared radiators have been developed, such as molded products made only of ceramic bodies, and products processed into paper shapes containing ceramic powder or fiber as a main component.

[発明が解決しようとする問題点] しかしながら、前記従来のセラミック体のみの成形品の
遠赤外線放射体においては、 (イ)硬いため、任意の寸法、任意の形状に切断したり
、打ち抜いたりすることが不可能である。
[Problems to be solved by the invention] However, in the conventional far-infrared radiator, which is a molded product made only of ceramic bodies, (a) it is hard and cannot be cut or punched into arbitrary dimensions and shapes; It is impossible.

(ロ)硬いため、落とすと割れる虞がある。(b) Because it is hard, there is a risk of it breaking if dropped.

(ハ)この種の遠赤外線放射体の中には、素焼きの陶製
品状としたものがあるが、このようなものにおいては、
細菌が内部に浸入したり、洗剤で洗うと、洗剤が内部に
染み込んだりする。
(c) Some far-infrared radiators of this type are shaped like unglazed ceramics, but in such cases,
Bacteria can get inside, and when you wash it with detergent, the detergent can seep into the inside.

等の問題点があった。There were problems such as.

また、前記従来の紙状の遠赤外線放射体においては、 (ニ)丈夫でない。Furthermore, in the conventional paper-like far-infrared radiator, (d) Not durable.

(ホ)前記(ハ)の場合と同じ問題を生じる。(e) The same problem as in case (c) above occurs.

等の問題点があった。There were problems such as.

〔発明の目的〕[Purpose of the invention]

本発明は、前記従来の問題点に鑑みてなされたもので、
少量の原料で放射面積の大きな製品を作ることができ、
柔軟であって所望の寸法および形状に容易に切断あるい
は打ち抜くことができ、落としても割れることがなく、
吸水性がなく、内部に細菌が侵入したり、洗剤等の有害
な液体が染み込む虞がなく、しかも製造が容易で、温度
に対して安定な遠赤外線放射体を提供することを目的と
する。
The present invention has been made in view of the above-mentioned conventional problems, and
Products with a large radiation area can be made with a small amount of raw materials.
It is flexible, can be easily cut or punched into desired dimensions and shapes, and will not break if dropped.
To provide a far-infrared radiator that does not absorb water, has no fear of bacteria entering the interior or penetration of harmful liquids such as detergent, is easy to manufacture, and is stable with respect to temperature.

〔問題点を解決するための手段〕[Means for solving problems]

本発明による遠赤外線放射体は、遠赤外線を放射するセ
ラミック材料の粉末を合成ゴム−に混合し+1.−ザ□ てなるものである。
The far-infrared radiator according to the present invention is produced by mixing powder of a ceramic material that emits far-infrared rays with synthetic rubber. -The □ is what it is.

〔作用〕[Effect]

本発明の遠赤外線放射体は、シート状をなしているので
、少量の原料で放射面積を大きくすることができる。
Since the far-infrared radiator of the present invention is in the form of a sheet, the radiation area can be increased with a small amount of raw material.

また、この遠赤外線放射体はゴムシート状なので、薄い
ものから厚いものまで柔軟な遠赤外線放射体を作ること
ができ、極めて容易に任意の寸法や任意の形状に切断あ
るいは打抜くことができ、落としても割れることがない
In addition, since this far-infrared radiator is in the form of a rubber sheet, it is possible to make flexible far-infrared rays from thin to thick, and it can be extremely easily cut or punched into any size or shape. It won't break even if you drop it.

また、この遠赤外線放射体はゴムシート状なので、吸水
性がなく、内部に細菌が侵入したり、液が染み込んだり
しないので、衛生的である。
Furthermore, since this far-infrared radiator is in the form of a rubber sheet, it does not absorb water, and bacteria will not enter the body or liquid will seep into it, making it hygienic.

また、合成ゴムはプラスチックと異り、耐熱性も高く、
200℃前後の温度に対しても安定な遠赤外線放射体を
作ることができる。
Also, unlike plastic, synthetic rubber has high heat resistance.
It is possible to create a far-infrared radiator that is stable even at temperatures around 200°C.

また、合成ゴムへのセラミックス材料の混合は、例えば
合成ゴムの練り工程において、容易に均一に行うことが
できる。そして、この工程は小規模生産から大量生産に
至るまで同じく作業性が極めてよい。
Further, the ceramic material can be easily and uniformly mixed into the synthetic rubber, for example, in the process of kneading the synthetic rubber. Moreover, this process has extremely good workability from small-scale production to mass production.

さらに、ゴムはプラスチックと比較して極めて小規模か
ら製造することが可能であるので、この遠赤外線放射体
は、少量多品種の製造にも非常によく適合する。
Furthermore, since rubber can be manufactured on a much smaller scale than plastics, this far-infrared radiator is very well suited to the production of a wide variety of products in small quantities.

〔実施例〕〔Example〕

以下、本発明を図面に示す実施例に基づいて説明する。 Hereinafter, the present invention will be explained based on embodiments shown in the drawings.

通常の合成ゴムの製造工程における練り工程において、
セラミック材料の微粉(平均粒径2μ)を混合し、その
後、通常のシート状の合成ゴムの製造工程と同様の工程
を行うことにより、合成ゴムにセラミック材料の微粉が
混合されたシート状の遠赤外線放射体を作成した。第1
図および2図はこの遠赤外線放射体1を示す。
In the kneading process in the normal synthetic rubber manufacturing process,
By mixing fine powder of ceramic material (average particle size 2μ) and then performing the same process as the manufacturing process of ordinary sheet-like synthetic rubber, a sheet-like material containing fine powder of ceramic material mixed with synthetic rubber is produced. Created an infrared emitter. 1st
Figures 1 and 2 show this far-infrared radiator 1.

前記合成ゴムとしては、シリコンゴム、ブチルゴム、ふ
っ素ゴム、その他の各種の合成ゴムを用途に応じて用い
ることができる。
As the synthetic rubber, silicone rubber, butyl rubber, fluororubber, and other various synthetic rubbers can be used depending on the purpose.

前記セラミック材料としては、例えば、ケイ石、ケイ砂
、ケイ藻土、木節粘土、蛙目粘土、カオリン、カオリナ
イト、ハロイサイト、モンモリロナイト、ボーキサイト
、ベントナイト、ゼオライト、リン鉱石、ダイアスボア
、ギブサイト、粘土状雲母(セリサイト、イライト、バ
ーミキュライト)、雲母、酸性白土、陶石、ろう石、長
石、石灰石、ケイ灰石、石膏、ドロマイト、マグネサイ
ト、滑石、山皮等の天然の無機物、水酸化アルミニウム
、水酸化マグネシウム、水酸化第二鉄等の金属水酸化物
、およびトベルモライト、ゾノトライト等のケイ酸カル
シウム系水和物またはカルシウムアルミネート水和物、
カルシウムスルホアルミネート水和物等の各種酸化物の
水和物またはアルミナ、シリカ、マグネシア、カルシア
、ジルコニア、ドリア、ベリリア、酸化チタン、スピネ
ル、合成コージライト、合成ムライト、合成ゼオライト
、クロム質、クロムマグネシア質、マグネシアクロム質
、合成炭酸カルシウム、リン酸カルシウム、その他各種
炭化物(’ricSZrC,HfC,VC%T a C
1N b CSW C1B 4 CSS t C等)、
窒化物(TtN、VN、NbN5TaN、HfN。
Examples of the ceramic materials include silica stone, silica sand, diatomaceous earth, kibushi clay, frog's eye clay, kaolin, kaolinite, halloysite, montmorillonite, bauxite, bentonite, zeolite, phosphate rock, diasbore, gibbsite, clay-like Natural inorganic substances such as mica (sericite, illite, vermiculite), mica, acid clay, pottery stone, waxite, feldspar, limestone, wollastonite, gypsum, dolomite, magnesite, talc, mountain bark, aluminum hydroxide, Metal hydroxides such as magnesium hydroxide and ferric hydroxide, and calcium silicate-based hydrates or calcium aluminate hydrates such as tobermolite and xonotlite,
Hydrates of various oxides such as calcium sulfoaluminate hydrate, or alumina, silica, magnesia, calcia, zirconia, doria, beryllia, titanium oxide, spinel, synthetic cordierite, synthetic mullite, synthetic zeolite, chromium, chromium Magnesia, magnesia chromium, synthetic calcium carbonate, calcium phosphate, and other various carbides ('ricSZrC, HfC, VC%T a C
1N b CSW C1B 4 CSS t C etc.),
Nitride (TtN, VN, NbN5TaN, HfN.

AbN、BN、S t3N4等)、酸化第一鉄、酸化第
二鉄、酸化鉛、酸化亜鉛、酸化ニッケル、二酸化マンガ
ン、酸化第二銅、酸化コバルト、炭酸バリウム、炭酸マ
ンガン、チタン酸金属塩(チタン酸カリウム、チタン酸
カルシウム、チタン酸マグネシウム、チタン酸アルミニ
ウム、チタン酸ストロンチウム、チタン酸バリウム等)
、黒鉛、活性炭、カーボンブラックまたは各種無機顔料
等の人工無機質粉体等を必要に応じて1種または2種類
以上使用することができる。
AbN, BN, S t3N4, etc.), ferrous oxide, ferric oxide, lead oxide, zinc oxide, nickel oxide, manganese dioxide, cupric oxide, cobalt oxide, barium carbonate, manganese carbonate, metal titanate ( potassium titanate, calcium titanate, magnesium titanate, aluminum titanate, strontium titanate, barium titanate, etc.)
, graphite, activated carbon, carbon black, or artificial inorganic powders such as various inorganic pigments can be used one or more types as required.

なお、地球上に存在する水と全ての有機化合物の遠赤外
線吸収スペクトルは6〜14μに集約されているので、
この6〜14μの範囲の波長の遠赤外線を効率よく放射
するようにセラミック材料を選定することが好ましい。
Furthermore, the far-infrared absorption spectra of water and all organic compounds existing on the earth are concentrated in the range of 6 to 14μ.
It is preferable to select a ceramic material so as to efficiently radiate far-infrared rays having a wavelength in the range of 6 to 14 microns.

この遠赤外線放射体は、シート状をなしているので、少
量の原料で放射面積を大きくすることができる。
Since this far-infrared radiator is in the form of a sheet, the radiation area can be increased with a small amount of raw material.

また、この遠赤外線放射体はゴムシート状なので、薄い
ものから厚いものまで柔軟な遠赤外線放射体を作ること
ができ、極めて容易に任意の寸法や任意の形状に切断あ
るいは打抜くことができ、落としても割れることがない
In addition, since this far-infrared radiator is in the form of a rubber sheet, it is possible to make flexible far-infrared rays from thin to thick, and it can be extremely easily cut or punched into any size or shape. It won't break even if you drop it.

また、この遠赤外線放射体はゴムシート状なので、吸水
性がなく、内部に細菌が侵入したり、液が染み込んだり
しないので、衛生的である。
Furthermore, since this far-infrared radiator is in the form of a rubber sheet, it does not absorb water, and bacteria will not enter the body or liquid will seep into it, making it hygienic.

また、合成ゴムはプラスチックと異り、耐熱性も高く、
200℃前後の温度に対しても安定な遠赤外線放射体を
作ることができる。
Also, unlike plastic, synthetic rubber has high heat resistance.
It is possible to create a far-infrared radiator that is stable even at temperatures around 200°C.

また、合成ゴムへのセラミックス材料の混合は、例えば
本実施例におけるように合成ゴムの練り工程において、
容易に均一に行うことができる。そして、この工程は小
規模生産から大量生産に至るまで同じく作業性が極めて
よい。
Furthermore, the mixing of the ceramic material into the synthetic rubber can be done, for example, in the synthetic rubber kneading process as in this example.
It can be done easily and uniformly. Moreover, this process has extremely good workability from small-scale production to mass production.

さらに、ゴムはプラスチックと比較して極めて小規模か
ら製造することが可能であるので、この遠赤外線放射体
は、少量多品種の製造にも非常によく適合する。
Furthermore, since rubber can be manufactured on a much smaller scale than plastics, this far-infrared radiator is very well suited to the production of a wide variety of products in small quantities.

次に、この遠赤外線放射体の具体的な使用例およびその
効果を列挙する。
Next, specific examples of use of this far-infrared radiator and its effects will be listed.

いけす、水槽等にこの遠赤外線放射体を入れると、濾過
バクテリアを活性化して水の浄化を促進し、魚の動きが
活発になる。
When this far-infrared emitter is placed in a fish tank or aquarium, it activates filtering bacteria, promotes water purification, and increases fish movement.

この遠赤外線放射体上に刺身等を置くと、ドリップの流
出を防止し、鮮度を保持でき、味の低下を防止できる。
Placing sashimi or the like on this far-infrared radiator prevents drips from flowing out, maintains freshness, and prevents deterioration of taste.

また、この遠赤外線放射体を箱の内面に貼り付け、その
箱内に刺身を収容すると、冷蔵庫内で長時間鮮度を保ち
、ドリップの流出を防止する。
Furthermore, by pasting this far-infrared radiator on the inner surface of a box and storing sashimi in the box, the sashimi will stay fresh for a long time in the refrigerator and prevent drips from flowing out.

炊飯器内の研がれた米の上にこの遠赤外線放射体を置い
てから、炊飯を開始すると、澱粉のアルファー化促進し
、非常にふっくらと粘りのある、美味なごはんが炊きあ
がる。また、ごはんが長時間変色しないで美味に保たれ
る。なお、このように炊飯に用いるときは、第3図およ
び4図に示されるように、遠赤外線放射体1を布袋(特
に合成繊維製の布袋が好ましい)で包んで置くと、ごは
んが炊き上ったとき、遠赤外線放射体1に米粒が付着し
ない。
When you place this far-infrared radiator on top of polished rice in a rice cooker and start cooking, it promotes alpha conversion of starch, resulting in extremely fluffy, sticky, and delicious rice. Also, the rice stays delicious for a long time without discoloring. When using it for cooking rice in this way, as shown in Figures 3 and 4, if you wrap the far-infrared radiator 1 in a cloth bag (especially preferably a cloth bag made of synthetic fibers), the rice will be cooked. When this occurs, rice grains do not adhere to the far-infrared radiator 1.

麺類や野菜等をゆであげる際、ゆであげ用の水の中にま
ずこの遠赤外線放射体を入れてから加熱し、沸騰させる
と、次のような優れた効果が得られる。
When boiling noodles, vegetables, etc., if you first put this far-infrared radiator in the boiling water and then heat it to bring it to a boil, the following excellent effects can be obtained.

(a)うどん・そばの場合 麺のドリップが保持できるので、角がくずれず、ノロが
少くなる。また、麺に粘りが出ておいしくなり、腰が強
く、のび難くなる。さらに、ゆで上がり時間が約20%
早くなる。
(a) In the case of udon and soba noodles, the drippings of the noodles can be retained, so the corners will not collapse and there will be less slag. In addition, the noodles become sticky and delicious, and become chewy and difficult to spread. Furthermore, the boiling time is about 20%
It gets faster.

(b)緑色の野菜(はうれん草・さやえんどう・枝豆・
小松菜等)の場合 低温でゆで上がるので、葉緑素を壊さないため、鮮やか
な緑色に上がり、ビタミンCの破壊もなく、野菜本来の
味が出せる。
(b) Green vegetables (spinach, snow peas, edamame,
In the case of vegetables such as Komatsuna (Japanese mustard spinach), they are boiled at a low temperature so that the chlorophyll is not destroyed, resulting in a bright green color. Vitamin C is not destroyed and the natural flavor of the vegetable can be brought out.

(c)だし汁またはめんつゆの場合 だしの本来の味がよく溶は出して、短時間にでき上がり
、非常にまろやかな味になる。
(c) In the case of dashi soup or noodle soup, the original taste of the dashi is well dissolved, the soup is ready in a short time, and it has a very mellow taste.

豆類・蓮根・いも類等を煮る際、この遠赤外線放射体を
入れて煮ると、芯まで早く煮える。
When boiling beans, lotus roots, potatoes, etc., if you add this far-infrared emitter and boil them, you can quickly boil them to the core.

肉を煮る際、この遠赤外線放射体を入れて煮ると、柔か
く煮え、時間がたっても固ぐならない。
If you add this far-infrared emitter when boiling meat, it will be soft and will not harden over time.

煮込みやおでんの場合は、煮上がる時間が半分になり、
だしがよく浸み込む。
When making stews or oden, the boiling time is halved.
The soup stock soaks in well.

このような煮物の際、遠赤外線を吸収した水分子は結合
格子が強くなり、静電結合力が強化されて水分が分離し
ないようになるため、大根のような柔かいものも形くず
れしない。
When boiled in this way, the bonding lattice of water molecules that absorb far-infrared rays becomes stronger, strengthening electrostatic bonding forces and preventing water from separating, so even soft foods like daikon radish retain their shape.

うどん、そばの練り水にこの遠赤外線放射体を入れると
、従来の単なる塩水の練り水の場合は12時間も要して
いたのに、30分で仕上る。また、うどんをこねる力が
少なくて済み、水和性がよくなる。
When this far-infrared radiator is added to the kneading water for udon and soba noodles, the noodles can be prepared in 30 minutes, compared to the 12 hours required with conventional salt water kneading water. In addition, less force is required to knead the udon noodles, resulting in better hydration.

うどん玉を熟成する際、この遠赤外線放射体の上にうど
ん玉を載せて置くと、通常3時間位かかる熟成が約30
分位で完了する。
When ripening udon balls, if you place them on top of this far-infrared ray emitter, the ripening process, which normally takes about 3 hours, will last for about 30 minutes.
Complete in quantiles.

この遠赤外線放射体を入れて漬けものを漬けると、材料
が早く漬かり、さらに新鮮さが長期間持続する。また、
天然塩のカラ味がとれて、まろやかな味になる。
When pickled foods are soaked in this far-infrared radiator, the ingredients will pickle quickly and stay fresh for a long time. Also,
The color of natural salt is removed and the taste becomes mellow.

水道水を入れた容器にこの遠赤外線放射体を入れておく
と、水道水がカルキ臭の消えた美味な水になる。水道水
を入れたコツプをこの遠赤外線放射体の上に1〜2分置
くだけでも、カルキ臭が消えて美味しい水になる。
If you put this far-infrared emitter in a container containing tap water, the tap water will become delicious and free of chlorine odor. Just by placing a pot filled with tap water on top of this far-infrared ray emitter for a minute or two, the chlorine odor disappears and the water becomes delicious.

常温で1時間位、味噌、醤油、塩辛、ハム等をこの遠赤
外線放射体の上に置いたり、この遠赤外線放射体を貼ら
れた箱の中に収容して置くと、これらの食品の塩のカド
が取れ、まろやかな味になる。
If you place miso, soy sauce, salted fish, ham, etc. on this far-infrared emitter for about an hour at room temperature, or if you place it in a box with this far-infrared emitter attached, the salt in these foods will be removed. The bitterness is removed and the taste becomes mellow.

また、酢、マヨネーズ等もまろやかな風味となる。椎茸
、煮干し、昆布、わかめ、海苔等も風味が増し、長期保
存でも品質が劣化しなくなる。米、小麦は活性化して新
鮮になる。パン、菓子も保存がよくなる。ラッキョー、
梅干し、福神漬、白菜等の漬物も鮮度が長持ちする。お
茶も、保存がよくなり、味と香りも増す。
Vinegar, mayonnaise, etc. also have a mellow flavor. Shiitake mushrooms, dried sardines, kelp, wakame, seaweed, etc. also have an enhanced flavor and do not deteriorate in quality even after long-term storage. Rice and wheat are activated and become fresh. Bread and sweets also store better. Rakkyo,
Pickles such as pickled plums, Fukujinzuke, and Chinese cabbage also stay fresh for a long time. Tea also keeps better and has more flavor and aroma.

日本酒、ウィスキー、ワイン、ブランデー等の酒類は熟
成が進み、まろやかになる。例えば、このような酒゛類
をグラスに入れてこの遠赤外線放射体の上に置くだけで
も、たちまちまろやかな味に変わる。ワインの場合、底
の平らなグラスに入れてこの遠赤外線放射体の上に置く
と2〜3分で熟成が急速に進み、マイルドなワインにな
る。特に赤ワインの場合は独特のシブミがとれる。
Alcoholic beverages such as sake, whisky, wine, and brandy become more mellow as they age. For example, just by placing such alcoholic beverages in a glass and placing it on top of this far-infrared radiator, the taste will instantly change to a mellow taste. In the case of wine, if you put it in a flat-bottomed glass and place it on top of this far-infrared radiator, it will rapidly age in 2 to 3 minutes, resulting in a milder wine. Red wine in particular has a unique sibumi flavor.

また、煙草をこの遠赤外線放射体の上で3〜4回ゆっく
り転がすと、たちまちニコチン刺激が除かれてまろやか
な味になる。
Also, if you slowly roll a cigarette over this far-infrared emitter three or four times, the nicotine stimulation is immediately removed and the taste becomes mellower.

お茶、コーヒーを飲む際、先ず水の中にこの遠赤外線放
射体を入れてから加熱し沸騰させ、ポットにお湯を保存
するときもこの遠赤外線放射体を入れておけば、お茶や
コーヒーのエツセンスがお湯によく抽出されるので、ま
ろやかな風味になり、非常に美味になる。また、ポット
にこの遠赤外線放射体を入れておくと、熱エネルギを蓄
えているので従来よりも冷めにくくなる。
When drinking tea or coffee, first put this far-infrared emitter in water and then heat it to boil. If you also put this far-infrared emitter when storing hot water in a pot, you can enjoy the essence of tea or coffee. Because it is well extracted into hot water, it has a mellow flavor and is very delicious. Also, if you put this far-infrared radiator in the pot, it will store heat energy, making it harder to cool down than before.

カイロと併用すると、体の芯まで温熱効果が浸達するの
で、体がよく暖まり、血行がよくなり、疲労回復の効果
がある。
When used in conjunction with a body warmer, the thermal effect penetrates to the core of the body, which warms the body, improves blood circulation, and has the effect of relieving fatigue.

寝具のシーツの下に敷いて置くと、自己体温によって足
元に遠赤外線の放射があり、はどよく暖かさが保てる。
If you place it under your bed sheets, your own body heat will emit far-infrared rays to your feet, keeping you warm.

生花が約2倍長もちする。Fresh flowers last about twice as long.

浴槽の中にこの遠赤外線放射体を入れれば(浴槽に水を
入れるときからこの遠赤外線放射体を浴槽にセットして
置くとよい)、この遠赤外線放射体は水や人体に最もよ
く吸収される5、5〜10μの波長の遠赤外線を効率よ
く放射させることができるので、浴槽の湯は遠赤外線を
吸収して、まろやかな肌ざわりの湯となり、人体は活性
化した湯から放射される遠赤外線を体内4cm位の深部
まで充分に吸収して、体の芯までよく暖まる。40℃位
のぬるめのお湯で約10分の入浴で体の芯までよく暖ま
り、血管が拡げられ、血液の循環を促進し、自立神経の
機能調整ができる。そして、不感知性発汗作用を伴って
、体内の疲労素や老廃物を排泄することができる(皮膚
の下の皮質より内部が38℃以上に暖まると、体温を調
節するために体の深部の微細な血管まで血行がよくなり
、発汗作用も起こる)。
If you place this far-infrared emitter in the bathtub (it is a good idea to set this far-infrared emitter in the bathtub from the time you fill the bathtub with water), this far-infrared emitter will be best absorbed by water and the human body. It can efficiently radiate far-infrared rays with a wavelength of 5, 5 to 10 microns, so the hot water in the bathtub absorbs the far-infrared rays and has a mellow texture, and the human body absorbs the far-infrared rays emitted from the activated water. It fully absorbs infrared rays up to about 4cm deep inside the body, warming you to the core. A 10-minute bath in lukewarm water at around 40 degrees Celsius warms the body to its core, expands blood vessels, promotes blood circulation, and regulates the function of the autonomic nervous system. It also excretes fatigue and waste products from the body through insensible sweating. (When the inside of the body warms up to 38 degrees Celsius or higher than the cortex beneath the skin, the deep part of the body is secreted to regulate body temperature.) Blood circulation improves to the minute blood vessels, causing sweating.)

〔発明の効果〕〔Effect of the invention〕

以上のように本発明による遠赤外線放射体は、少量の原
料で放射面積の大きな製品を作ることができ、柔軟であ
って所望の寸法および形状に容易に切断あるいは打ち抜
くことができ、落としても割れることがなく、吸水性が
なく、内部に細菌が侵入したり、洗剤等の有害な液体が
染み込む虞がなく、しかも製造が容易で、温度に対して
安定であるという優れた効果を得られるものである。
As described above, the far-infrared radiator according to the present invention can be made into a product with a large radiation area using a small amount of raw materials, is flexible, can be easily cut or punched into desired dimensions and shapes, and can be easily dropped. It does not crack, does not absorb water, has no risk of bacteria entering the interior, or harmful liquids such as detergent seeping into it, is easy to manufacture, and is stable against temperature. It is something.

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

第1図は本発明による遠赤外線放射体の一実施例を示す
平面図、第2図は前記実施例を示す側面図、第3図は前
記実施例を炊飯用の袋内に収容した状態を示す平面図、
第4図は第3図のrV−rV線における断面図である。 、1・・・遠赤外線放射体、2・・・袋。
Fig. 1 is a plan view showing an embodiment of the far-infrared radiator according to the present invention, Fig. 2 is a side view showing the embodiment, and Fig. 3 shows the embodiment housed in a rice cooking bag. A plan view showing,
FIG. 4 is a sectional view taken along the line rV-rV in FIG. 3. , 1... far infrared ray emitter, 2... bag.

Claims (1)

【特許請求の範囲】[Claims] 遠赤外線を放射するセラミック材料の粉末を合成ゴムに
混合してなるシート状の遠赤外線放射体。
A sheet-shaped far-infrared radiator made by mixing powder of a ceramic material that emits far-infrared rays with synthetic rubber.
JP62104784A 1987-04-30 1987-04-30 Far infrared radiator Pending JPS63270787A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP62104784A JPS63270787A (en) 1987-04-30 1987-04-30 Far infrared radiator

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP62104784A JPS63270787A (en) 1987-04-30 1987-04-30 Far infrared radiator

Publications (1)

Publication Number Publication Date
JPS63270787A true JPS63270787A (en) 1988-11-08

Family

ID=14390096

Family Applications (1)

Application Number Title Priority Date Filing Date
JP62104784A Pending JPS63270787A (en) 1987-04-30 1987-04-30 Far infrared radiator

Country Status (1)

Country Link
JP (1) JPS63270787A (en)

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH01150527A (en) * 1987-12-08 1989-06-13 Seiji Asai Far infrared radiation resin molding
JPH02145653A (en) * 1988-11-25 1990-06-05 Sankyo Kasei Kk Synthetic resin composition produced by mixing far infrared radiation substance and magnetic substance
JPH02112215U (en) * 1989-02-21 1990-09-07
JP2006160587A (en) * 2004-12-10 2006-06-22 Yamada Fumitaka Far-infrared emitter
JP2012130624A (en) * 2010-12-24 2012-07-12 Shin-Etsu Chemical Co Ltd Cooking container for microwave oven
CN106188724A (en) * 2014-12-31 2016-12-07 主颖生技有限公司 Elastomer with high content of far infrared ray and its production process

Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH01150527A (en) * 1987-12-08 1989-06-13 Seiji Asai Far infrared radiation resin molding
JPH02145653A (en) * 1988-11-25 1990-06-05 Sankyo Kasei Kk Synthetic resin composition produced by mixing far infrared radiation substance and magnetic substance
JPH02112215U (en) * 1989-02-21 1990-09-07
JPH0520258Y2 (en) * 1989-02-21 1993-05-26
JP2006160587A (en) * 2004-12-10 2006-06-22 Yamada Fumitaka Far-infrared emitter
JP2012130624A (en) * 2010-12-24 2012-07-12 Shin-Etsu Chemical Co Ltd Cooking container for microwave oven
CN106188724A (en) * 2014-12-31 2016-12-07 主颖生技有限公司 Elastomer with high content of far infrared ray and its production process

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