JPS60153784A - Refreshing of food - Google Patents

Refreshing of food

Info

Publication number
JPS60153784A
JPS60153784A JP811984A JP811984A JPS60153784A JP S60153784 A JPS60153784 A JP S60153784A JP 811984 A JP811984 A JP 811984A JP 811984 A JP811984 A JP 811984A JP S60153784 A JPS60153784 A JP S60153784A
Authority
JP
Japan
Prior art keywords
food
shellfish
fish
stored
grains
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
JP811984A
Other languages
Japanese (ja)
Inventor
Michio Yamakita
山北 教夫
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.)
YAMAKITA FOOD KK
Original Assignee
YAMAKITA FOOD 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 YAMAKITA FOOD KK filed Critical YAMAKITA FOOD KK
Priority to JP811984A priority Critical patent/JPS60153784A/en
Publication of JPS60153784A publication Critical patent/JPS60153784A/en
Pending legal-status Critical Current

Links

Abstract

PURPOSE:To refresh the aged and degraded food such as cereal, fish, shellfish, etc. stored for a long period to the quality of the just harvested or processed food, by passing high-voltage weak electrical current through the food. CONSTITUTION:Cereal such as wheat, soybean, rice, etc. or dried bonito or other dried fish or shellfish etc. stored for a long period after harvest or processing, is packaged and placed on a metallic plate or put into a metallic container, and is subjected to the electrical current of 0.1-2.0mA, preferably 0.5+ or -0.1mA under a potential of 15,000+ or -12,000V using the Yamakita-type refreshing apparatus ''Freshtron''.

Description

【発明の詳細な説明】 本発明は、穀類、魚貝類などの蘇生方法、更に詳しくは
、小麦、大豆、米などの穀類やかつお節魚貝乾物類など
を、包装した状態でしかも、水に濡らすことなく、これ
に高電圧で旦微少電流を通じることにより、長期貯蔵し
て古くなり、劣化。
[Detailed Description of the Invention] The present invention provides a method for resuscitating grains, fish and shellfish, etc., more specifically, a method for resuscitating grains, fish and shellfish, etc., and more specifically, a method for resuscitating grains, fish and shellfish, etc. By passing a small amount of current through it at high voltage, it can be stored for a long period of time, becoming old and deteriorating.

老化した穀類又は魚貝類などを収穫時又は加工時と同一
の品位に蘇生させる食品類の蘇生方法に関する。
This invention relates to a food resuscitation method for resuscitating aged grains, fish and shellfish to the same quality as when harvested or processed.

従来食品原料の蘇生の方法として、公知公用に供されて
いるものは、山北式の食品原料蘇生装置「フレッシュト
ロン」を用いて、マグロなどの鮮魚に100ポルl−0
,5ミリアンペア−の電気を通じることにより、鮮度が
落ちて退色したマグロの鮮度を蘇生させる方法や、大豆
を水に浸漬してこれに150〜200ボルト、l、5ミ
リアンペア−の電流を通じて大豆を蘇生させる方法が公
知公用とされている。
The conventional method for resuscitating food raw materials that is publicly available is using a Yamakita-style food raw material resuscitation device called "Freshtron" to resuscitate fresh fish such as tuna at 100 por l-0.
There is a method of reviving the freshness of tuna that has lost its freshness and discoloration by passing electricity of 150 to 200 volts, l, 5 milliamps to the soybeans by soaking them in water. Methods for resuscitation are known and publicly available.

これら公知公用の方法は、高い含水率を有する鮮魚や、
水に浸漬しである程度含水した大豆を用いることが特徴
であり、その使用範囲は限定され、装置も大がかりにな
り、食品原料を、全く包装容器から取り出してこれを行
なわなければならず、しかも水分や湿度の高い所で通電
することにより、感電レヨツクによる事故が多発し、そ
の蘇生率もひくいなどの多くの欠点を有しているため、
著るしく普及するに至っていない。
These publicly known methods are suitable for fresh fish with high moisture content,
It is characterized by the use of soybeans that have been soaked in water and have a certain degree of moisture content, which limits the scope of their use, requires large-scale equipment, and requires the food raw materials to be completely removed from their packaging containers. It has many disadvantages, such as frequent electric shock accidents due to electricity being applied in places with high humidity and high humidity, and the resuscitation rate is low.
It has not yet become significantly popular.

本発明者は、以上に述べた欠点を全て解決すべく鋭意研
究を重ねた結果、15000±12000ボルトの電圧
下0.1〜2.0ミリアンペア−ζ好マしくは0.5±
o、iミリアンペア−の電流を流すことにより、包装し
たまま、しかも乾燥したままの穀類や、かつお節などの
節類、その他乾燥食品類を収穫時又は加工時と同一のレ
ベ′ルにまで蘇生させることができることを見出し、本
発明を完成するにいたった。
As a result of intensive research in order to solve all of the above-mentioned drawbacks, the inventor of the present invention has found that under a voltage of 15,000±12,000 volts, 0.1 to 2.0 milliamperes - ζ preferably 0.5±
By applying an electric current of o, i milliampere, it resuscitates packaged and dried grains, knots such as bonito flakes, and other dried foods to the same level as when harvested or processed. They discovered that it is possible to do this and completed the present invention.

すなわち、本発明は、収穫後長期に貯蔵された穀類や魚
貝類、加工食品類などの組織2組成を構成している蛋白
質、炭水化物、脂肪とくに蛋白質と脂肪(油脂)成分の
劣化したものを分子レベルすなわち分子間5分子内レベ
ルで再生することにより、収穫時又は、加工時と同一の
レベルにまでム生させるものであり、しかも、乾燥した
水分の少ない長期貯蔵した食品を、包装した状態でその
まま蘇生するものである。
In other words, the present invention removes degraded proteins, carbohydrates, and fats, especially proteins and fats (oils) that make up the tissue composition of grains, fish and shellfish, processed foods, etc. that have been stored for a long time after harvesting. By regenerating the food at the five-molecule level, it is possible to regenerate the moisture to the same level as at the time of harvest or processing, and it also allows dry, low-moisture food that has been stored for a long time to be regenerated in a packaged state. It is something that can be revived.

以下に本発明を更に具体的に説明すると、たとえば、小
麦粉を長期間、包装袋中で貯蔵しこれを用いて麺類やパ
ン類をつくると、収穫し粉砕した新らしいものに比べ、
しこつきや延伸性が低下し、サバサバした舌触りの悪い
ものになる。これは貯蔵中に小麦粉の構成成分のグルテ
ンやデンプイ分子の劣、化変質に起因するものであり、
グルテンを構成する蛋白質主成分は、グリアジンとグル
テニンであり、前者は分子内ジスルフィド結合(=S−
s=結合)が多く、後者は多数の分子間−5−S−2結
合によって巨大分子化しておりこれらが、小麦粉狐得の
粘弾性を示すものであり、一方炭水化物を構成するデン
粉分子は、アミロースとアミロペクチンよりなり、貯蔵
期聞中に分子間および分子内の水素結合が増強され、ミ
セル化現象を生じ、アルファーデンプンはベーターデン
プンに転移し、変化する。このような現象は、大豆や米
のような穀類の蛋白質、デン粉にも同様のことが言える
もので、魚貝類、肉頻についても類似するものである。
To explain the present invention in more detail below, for example, when flour is stored in a packaging bag for a long period of time and used to make noodles or bread, compared to fresh flour that has been harvested and crushed,
Stiffness and stretchability are reduced, resulting in a dry and unpleasant texture. This is due to the deterioration and deterioration of the gluten and starch molecules that make up the flour during storage.
The main protein components that make up gluten are gliadin and glutenin, and the former has intramolecular disulfide bonds (=S-
The latter is made into a macromolecule by numerous intermolecular -5-S-2 bonds, and these show the viscoelasticity of wheat flour, while the starch molecules that make up the carbohydrates are , is composed of amylose and amylopectin, and during storage, inter- and intramolecular hydrogen bonds are strengthened, resulting in micellization, and alpha starch is transferred and transformed into beta starch. This phenomenon is similar to grain proteins such as soybeans and rice, and starch, and is also similar to fish, shellfish, and meat.

これらの長期貯蔵食品類は、その貯蔵安定性をはかるた
め、含水率を低くする加工を行ない、殆んどが包装して
貯蔵される。これら穀類、魚貝類の乾物、肉類の乾物を
包装のまま、100ボルトの電圧下、1.OミlJアン
ペア−程度の塵電処理を行なっても、殆んど蘇生効果は
なく、水に浸漬するか、含水率の高い状態で処理するか
してはじめて、ある程度の蘇生効果を与えることができ
る程度である。然し、本発明の方法すなわち15000
ボルト程度の電圧下に0.5ミ!Jアンペア−レベルの
通電を行なうと、包装したそのままで完全に近く蘇生を
完遂することが可能で、たとえば、小麦粉の場合、上述
したグアニジンの分子内−5−S−結合および、グルテ
リンの分子間の−5−8−結合が、長期貯蔵中に劣化(
老化)を起す時、分子内又は分子間で、ラジカル的に水
素・引抜が行なわれ、−5−5−+2. C−H)−、
−5H+H5−が生じ、次第に粘弾性を失ない、アルフ
ァーデンプンは、ベーターデンプンに転移するが、これ
を包装したまま、上述の高電圧で微少の電流を流すこと
により、小麦粉全体および、その粒子一つ一つに均一に
電場が形成され電子の移動を活発にすることにより、電
子的に酸化還元転移を生じやすい。−5H。
In order to ensure storage stability, these long-term storage foods are processed to lower their moisture content, and most of them are packaged and stored. These grains, dried fish and shellfish, and dried meat were placed in their packaging under a voltage of 100 volts, 1. Even if dust electrolysis treatment is carried out at a level of 0 mil J amperes, there is almost no resuscitation effect, and a certain degree of resuscitation effect can only be achieved by immersing it in water or treating it in a state with a high moisture content. As much as possible. However, the method of the present invention, i.e. 15,000
0.5 mi under a voltage of about volt! When electricity is applied at J ampere level, it is possible to resuscitate almost completely in the packaged form.For example, in the case of wheat flour, the above-mentioned intramolecular -5-S-bonds of guanidine and intermolecular bonds of glutelin are activated. -5-8-bond deteriorates during long-term storage (
aging), hydrogen and abstraction occur radically within or between molecules, resulting in -5-5-+2. C-H)-,
-5H+H5- is formed, and the alpha starch gradually loses its viscoelasticity and transforms into beta starch. By passing a small current at the above-mentioned high voltage while it is packaged, the entire flour and its particles are transformed. A uniform electric field is formed one by one, which activates the movement of electrons, making it easier for electronic redox transitions to occur. -5H.

および−5−s−結合が、−5H+H,S −十e −
一5−S−のラジカル的転移を生じ、−5−S−結合に
完全にもどるため、新鮮な小麦粉が呈する粘弾性、しこ
つき、舌触りを取りもどすことすなわち、品質の蘇生を
もたらすのである。
and -5-s- bond is -5H+H,S -10e -
It causes a radical transition of -5-S- and completely returns to the -5-S- bond, thereby restoring the viscoelasticity, stickiness, and texture of fresh flour, in other words, reviving its quality. .

本発明を更に詳しく説明するために以下に実施例を示す
Examples are shown below to explain the present invention in more detail.

実施例−1 収穫後、製粉して袋中に3年貯蔵した小麦粉を20KF
I入り紙袋のままステンレス製の板にのせ、この板を接
地部で絶縁し、この板に白化式蘇生装置「フレッシュト
ロン」より、15000ボルト0.2間アンペア−の電
気を、通電した結果、収穫時に測定したグルテン価を1
00とした時、その経時的グルテン価の回復率は1時間
で409%5時間で80%8時間で98%であった。
Example-1 20KF of flour that was harvested, milled and stored in bags for 3 years
The paper bag containing I was placed on a stainless steel board, this board was insulated with a grounding part, and electricity was applied to this board from the bleaching resuscitation device "Freshtron" at a voltage of 15,000 volts and 0.2 amperes. The gluten value measured at the time of harvest is 1
00, the recovery rate of the gluten value over time was 409% at 1 hour, 80% at 5 hours, and 98% at 8 hours.

対照例−1 収穫後製粉して袋中に貯蔵した小麦粉を20Kg入り紙
袋のまま実施例−1と同一の装置を用いて、100ボル
トで、1ミリアンペア−の電気を通電した結果、グルテ
ン価は、24時間通電してわずかに1.5%回復する程
度であった。
Control Example-1 Flour that had been milled after harvesting and stored in a bag was used in a paper bag containing 20 kg, and electricity was applied at 100 volts and 1 milliampere using the same equipment as in Example-1. As a result, the gluten value was determined. , the recovery was only 1.5% after 24 hours of electricity.

実施例−2 収穫後紙袋に2年貯蔵したダイズを20Kg装入りのま
ま、白化式蘇生装置1フレッシュトロン」によって16
000ボルト、0.2 mmアンペア−の電気を2時間
通して処理した結果、4.2%のタンパク質即ちグロブ
リン含有率は、収穫時に測定した5、8%にまで回復し
た。
Example-2 Soybeans stored in paper bags for 2 years after harvesting were packed in 20 kg and were heated to 16 kg using the bleaching resuscitation device 1 Freshtron.
After 2 hours of electricity at 0.000 volts and 0.2 mm amperes, the protein or globulin content of 4.2% was restored to the 5.8% measured at harvest.

対照例−2 実施例−2で用いた大豆を用いて、出孔式蘇生装置「フ
レッシュトロン」により、150ボルト、2(リアンペ
アーで処理した結果、24時間処理してもそのタンパク
質即ちグロブリン含有率は殆んど変化を認めることがで
きなかった。
Control Example 2 The soybeans used in Example 2 were treated with a vent resuscitation device "Freshtron" at 150 volts and 2 ampere, and the protein or globulin content remained unchanged even after 24 hours of treatment. could hardly detect any changes.

実施例−3 実施例−1で蘇生した小麦粉と、対照例−1で処理した
小麦粉をそれぞれl Kgを用い、食塩1’02、水5
00meを加えて、それぞれ混練、ねかせ、混練、ねか
せを同一条件でくりかえし、圧延し、切断してうどんを
つくった結果、実施例=1で蘇生した小麦粉よりつくっ
たものは、しこつき、味。
Example-3 Using 1 Kg of the wheat flour resuscitated in Example-1 and the wheat flour treated in Control Example-1, 1 kg of salt and 5 ml of water were added.
As a result of adding 00me and repeating kneading, aging, kneading, and aging under the same conditions, rolling, and cutting to make udon noodles, the noodles made from the resuscitated flour in Example 1 had no stickiness and no taste. .

舌ざわりが著るしく向上し、新しい小麦粉と同一であっ
たが、対照例−1で処理した小麦粉を用いたものは、し
こつきがなく、さばさばとしており、うどんのひも切れ
がおこり、煮沸でのぐづれを生じ、品位は著るしく劣る
ものであった。
The texture of the udon noodles was significantly improved and was the same as that of new flour, but the flour treated in Control Example 1 did not have any stickiness and was mackerel-like, and the strings of the udon noodles broke and were difficult to boil. There was a slump, and the quality was extremely poor.

本発明は、以上のような実施態様からなりたっており、
本発明に用いた出孔式蘇生装置1−フレッシュトロン」
を用いて、穀類や魚貝類乾物を処理することにより、収
穫時や加工時の鮮度に蘇生するだけでなく、加工、貯蔵
の包装形態のまま、水に浸漬させることなく、安全にし
かも低コストに、無人に蘇生さすことができ、食品及び
食品原料の長期貯瓶を低コストで可能ならしめ、貯蔵庫
に収納されたまま、出庫時に処理することができ、筆・
舌に表しつくせない著るしい効果をもたらすもので、食
品工業にとって、又は食品流通業の革命につながる有効
な発明である。
The present invention consists of the above embodiments,
Vent type resuscitation device 1 used in the present invention - Freshtron”
By processing dried grains and fish and shellfish using this method, not only can they be restored to their freshness at the time of harvesting and processing, but they can also be processed and stored safely and at low cost without having to be immersed in water in their packaging form. It can be resuscitated unattended, food and food raw materials can be stored in bottles for a long time at low cost, and they can be disposed of while being stored in the storage room.
It brings about remarkable effects that cannot be expressed in words, and is an effective invention that will lead to a revolution in the food industry and food distribution industry.

以上は本発明の穀類及び魚貝類乾物の群生方法に関する
好ましい具体例について説明したが、本発明の精神を逸
脱しない範囲で、これに種々の変形を加えることも可能
であり、それらも本発明の範囲に属するものである。
Although preferred specific examples of the method for growing grains and dried fish and shellfish of the present invention have been described above, it is possible to make various modifications thereto without departing from the spirit of the present invention. It belongs to the range.

Claims (1)

【特許請求の範囲】[Claims] 小麦、大豆、米、などの穀類や、かつお節、魚貝類乾物
などを、包装したまま金属製のプレート上におくか、金
属製の容器に入れて、これに山北式蘇生装置「フレッシ
ュトロン」ヲ用いて、15000±12000ボルト、
好ましくは、15000±1000ボルトの電圧下に0
.1〜2.0ミリアンペア−1好ましくは0.5±0.
1ミリアンペア−の電流を流すことにより、長期貯蔵に
よって劣化又は老化した穀類や魚貝類などを水に浸漬す
ることなしに、乾燥品のまま、しかも、袋や容器に包装
したそのままで、収穫又は加工時と同一の品位に蘇生す
ることのできる食品類の蘇生方法。
Wheat, soybeans, rice, and other grains, dried bonito flakes, and dried fish and shellfish are placed on a metal plate or in a metal container, and the Yamakita-style resuscitation device ``Freshtron'' is placed in this container. using 15000±12000 volts,
Preferably 0 under a voltage of 15000±1000 volts
.. 1-2.0 mA-1 preferably 0.5±0.
By applying a current of 1 milliampere, grains, fish and shellfish that have deteriorated or aged due to long-term storage can be harvested or processed as dry products without immersing them in water, and even while they are still packaged in bags or containers. A resuscitation method for food that can be resuscitated to the same quality as before.
JP811984A 1984-01-20 1984-01-20 Refreshing of food Pending JPS60153784A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP811984A JPS60153784A (en) 1984-01-20 1984-01-20 Refreshing of food

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP811984A JPS60153784A (en) 1984-01-20 1984-01-20 Refreshing of food

Publications (1)

Publication Number Publication Date
JPS60153784A true JPS60153784A (en) 1985-08-13

Family

ID=11684394

Family Applications (1)

Application Number Title Priority Date Filing Date
JP811984A Pending JPS60153784A (en) 1984-01-20 1984-01-20 Refreshing of food

Country Status (1)

Country Link
JP (1) JPS60153784A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
EP1132012A1 (en) * 2000-03-03 2001-09-12 Barilla Alimentare S.P.A. A method for sanitizing food products

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
EP1132012A1 (en) * 2000-03-03 2001-09-12 Barilla Alimentare S.P.A. A method for sanitizing food products

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