JPH0331427B2 - - Google Patents

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Publication number
JPH0331427B2
JPH0331427B2 JP59189717A JP18971784A JPH0331427B2 JP H0331427 B2 JPH0331427 B2 JP H0331427B2 JP 59189717 A JP59189717 A JP 59189717A JP 18971784 A JP18971784 A JP 18971784A JP H0331427 B2 JPH0331427 B2 JP H0331427B2
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JP
Japan
Prior art keywords
noodles
noodle
dough
layer
water
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.)
Expired - Lifetime
Application number
JP59189717A
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Japanese (ja)
Other versions
JPS60149350A (en
Inventor
Hisashi Nagai
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.)
HOSHINO BUSSAN
Original Assignee
HOSHINO BUSSAN
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Filing date
Publication date
Application filed by HOSHINO BUSSAN filed Critical HOSHINO BUSSAN
Priority to JP59189717A priority Critical patent/JPS60149350A/en
Publication of JPS60149350A publication Critical patent/JPS60149350A/en
Publication of JPH0331427B2 publication Critical patent/JPH0331427B2/ja
Granted legal-status Critical Current

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Classifications

    • AHUMAN NECESSITIES
    • A23FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
    • A23LFOODS, FOODSTUFFS, OR NON-ALCOHOLIC BEVERAGES, NOT COVERED BY SUBCLASSES A21D OR A23B-A23J; THEIR PREPARATION OR TREATMENT, e.g. COOKING, MODIFICATION OF NUTRITIVE QUALITIES, PHYSICAL TREATMENT; PRESERVATION OF FOODS OR FOODSTUFFS, IN GENERAL
    • A23L7/00Cereal-derived products; Malt products; Preparation or treatment thereof
    • A23L7/10Cereal-derived products
    • A23L7/109Types of pasta, e.g. macaroni or noodles
    • A23L7/11Filled, stuffed or multilayered pasta

Description

【発明の詳細な説明】[Detailed description of the invention]

〔産業上の利用分野〕 本発明は、その1は改良に係る生地組成体の異
なる麺の製造方法に関し、その2は生地組成体の
異なる麺の製造装置に関するものである。(以下、
前述の各発明を説明の便宜上、第1発明および第
2発明と呼称する)。 〔従来の技術〕 そこで、以下第1発明から順を追つて説明する
こととする。 第1発明は、発明者が既に提案した特許第
947736号(昭和53年特許出願公告第24497号)の
特許請求の範囲の第1番目の発明(以下、第1番
基礎発明と称する。)について更に改良した発明
である。 〔物および方法の発明が解決しようとする問題
点〕 この基礎発明の要旨とするところは、二枚の麺
帯相互の中間層に圧延されていない麺生地を挿入
し生地組成体の異なる麺を得るための製造方法お
よびその装置に関するものであつたが、茹で時間
を更に短縮すること、またより一層美味なる乾麺
をはじめとする各種麺類の製法とその装置の出現
を強く望まれて来た。 〔問題点を解決するための手段〕 ところで、第1発明は第1番基礎発明に対しさ
らに改良を加え、第1番基礎発明で開示した圧延
されていない麺生地を中間層に挿入するという技
術思想に対し、単に圧延されていないだけでな
く、該麺生地を表面層麺生地に対してより多加水
であり、かつ該表面層より低蛋白またはと弱粘着
性な麺生地に改良し、又、より圧延度の少い成形
麺帯にすることにより、多加水、低蛋白の生地が
第1番基礎発明よりも容易に中間層として挿入さ
れ易いよう実施することにより、第1番基礎発明
よりもより一段と表面層が密であつて、中間層が
粗なる効果が大となり、それによつてより顕著な
生地組成体の異なる麺を得ることの目的を達成し
たものである。 上記第1発明の具体的な構成は、圧延ロールを
通過して形成せる二枚の表面層となる麺帯相互の
中間に、表面層よりも多加水であり、かつ該表面
層よりも低蛋白なまたは弱粘着性の麺生地を組み
合わせて、表面層の圧延ロールよりも低圧の成形
フイーダー・ロールを経て、展圧度の低い麺帯を
生成し、これを中間層として挿入することによ
り、三層麺となして重合し、更に、後続する既知
の各種圧延ロールおよび切出ロールを経由するこ
とによつて、表面層が密で中間層が粗となること
を特徴とする生地組成体の異なる麺の製造方法で
ある。第1番基礎発明による中間層が単なる圧延
されていない生地を挿入するのみの技術思想より
も、中間層について表面層よりも多加水、低蛋白
の麺生地にして比較的展圧度の低い成形麺帯とな
して挿入する方法に改良したことによつて、それ
は乾麺または即席麺を得る場合を例にとれば、第
1番基礎発明よりも中間層がより多く空洞化さ
れ、いわゆる表面層が密でかつ高蛋白、中間層が
一層粗でかつ低蛋白なる三層組成体を有すること
になるのである。その結果、従来乾麺の致命的な
欠点であつた茹で時間が、極端に短縮されて約1/
3の茹で時間で美味なる乾麺を得ることに成功し
たものである。 同様に、3分間もの湯もどし時間を要した即席
麺は1/3の1分間で喫食可能な即席麺を得るのに
成功したものである。 この様に、中間層に単なる圧延されない麺生地
を挿入するという点に特徴がある第1番基礎発明
よりも、多加水、低蛋白性麺生地を展圧度の低い
麺帯となして挿入することにより乾麺、即席麺あ
るいは生麺において何が故に、第1番基礎発明の
場合よりも、中間層が一層粗なる組織体となり、
茹で時間が短かくなるかとの理論的根拠は、後で
更めて図面と関連して説明する。 また、生麺の場合には、中間層が多加水で、低
蛋白であるので早茹の効果を得られるということ
の外に、中間層が多加水であることは、相対的に
表面層が低加水のため、公知の多加水麺の如く、
麺線相互の粘着防止のための手粉散布の必要がな
いということである。そして表面層が低加水であ
ること、すなわち竪ごねであつて、表面層の組織
体が密のため、いわゆるダレ、伸長が少なく、よ
く麺体を保持できる、麺線相互が粘着しない等の
流通上の効果が顕著で第1番基礎発明と比較しそ
の効果は大である。 〔作用〕 第1発明に従えば、従来、公知の多加水麺の欠
点とされていた麺線の粘着を防止するために実施
していた手粉も必要がないし、茹湯の濁りも少
く、麺体保持が容易で、然も茹で時間が早く、美
味なる手打麺の如き機械麺が能率よく生産できる
等の効果は真にすぐれたものである。 又、中間層の麺生地は、単に多加水であるばか
りでなく、該麺生地を表面層の麺生地と比較した
場合、より一段と低蛋白化していることの、多化
水との相乗効果により、第1番基礎発明よりも容
易に、表面層は密に、中間層は一層顕著に粗なる
三層組成体を有する麺を得ることに成功したもの
である。 その結果、例えば公知の腰の強い食感を要求さ
れる北海道本場のサツポロラーメン(生麺の表示
規格による呼称)の如き麺の場合、在来からの製
麺法では、高蛋白の強力粉を使用するため、普通
の中華麺よりも長時間の茹で時間をどうしても必
要とされていたのである。 これに対し、第1発明の場合、その中間層に
は、展圧度が低くかつ表面層よりも多加水で、か
つ低蛋白の麺生地が挿入されているため、茹で時
間が極端に短縮され、実施例に明記してある如
く、従来法では5分も要する茹で時間が、第1番
基礎発明では4分に短縮することに成功したが、
この第1発明によれば2分と約1/2の時間に短縮
でき、しかも表面層は高蛋白の麺生地のため、腰
の強いサツポロラーンを食膳に供することができ
るのである。そして、それは打粉を必要とせず、
又、早茹でのため茹湯の濁りも少いため、その経
済的効果は大である。 本発明の場合、中間層に多加水で、かつ、低蛋
白の麺生地を挿入することにより、中間層が多加
水のため茹で湯の浸透時間が早く、且つ低蛋白の
小麦粉を使用しているため、麺生地の結着力であ
るグルテン量が少く、従つて、麺生地組成は粗と
なり、展圧度の低い麺生地の挿入に伴なう効果と
相俟つて、その効果は相乗的に顕著にもたらされ
るものである。 上記した中間層に低蛋白または弱粘着性麺生地
を挿入することにより、それが低蛋白低粘着性麺
生地である程、グルテンによる結着力は弱く、前
記したいわば省圧延工程と相俟つて、その効果は
相乗的に顕著に現われるものなのである。この点
について、実験によれば、中間層を省圧延工程、
換言すれば、中間層の形態をととのえる程度の整
形を施しても、中間層に低蛋白粉と、多加水によ
るその効果により、第1番基礎発明よりもすぐれ
ていた。 即ち、本発明は、圧延ロール機を通過して形成
せる二枚の麺帯相互の中間層に、表面層よりも多
加水な麺生地であり、かつ該表面層より低蛋白な
麺生地(もしくはより一段と弱粘着性な麺生地)
を組み合わせて低圧のフイーダー・ロールを経
て、展圧度の低い麺帯を生成、挿入するものであ
り、これは表裏一体であつて、その一つが欠けて
も、本発明の効果は発揮できないことは言うまで
もない。 又、本発明によれば、例えばコーンスターチ、
粉乳、小麦胚芽や、よもぎ粉末等、動植物性の非
粘着性物質を小麦粉に混入することも可能とな
る。従来、この様な異種物混入麺は困難であつた
が、このような弱粘着性麺生地を中間層に挿入
し、また表面層には、高蛋白性麺生地となすこと
によつて、可能となつたのである。 次に、第1発明の場合、第1番基礎発明が中間
層に単なる圧延されない麺生地を挿入するという
思想であつたのと異なり、多加水で、かつ低蛋白
の麺生地を低圧のフイーダー・ロールを経て、展
圧度の低い麺帯を挿入することによつて、乾麺
や、即席麺、生麺において、中間層が一層粗なる
組織体となり、茹で時間または湯もどし時間が短
縮されることになる。その理由としては、例えば
乾麺の場合は多加水された水分が、生麺から乾麺
へと乾燥化される過程において、水分粒子が蒸発
し、その痕跡が微小な多孔化へとみちびかれて残
留されることにあつて、その現象は種々の実験に
おいて観察された。 第1図は、その水分粒子W1,W2が蒸発され、
その痕跡に、微小な空洞P1,P2が発生する過程
を説明図で示した。(この第1図aは加水量30%
の場合を、同図bは中間層の加水量50%、表面層
の加水量30%の場合をそれぞれ表現したものであ
り、図中、点線状の矢印は乾燥操作Dを示す)。 このように、第1発明は、中間層を多加水生地
にすることにより、乾麺への乾燥工程中に水分痕
跡が空洞化されることと、又、中間層が低蛋白化
しているため、グルテンの結着力が低く強固な生
地組成とならず、しかも低圧度の低い組成生成を
中間層として挿入することとの相乗効果により、
第1番基礎発明の技術思想のみの場合と比較した
場合、中間層がより一段と粗なる組織体となると
いう生地組成体の異なる麺の製法についての改良
発明の完成したのである。それは旧来の乾麺製法
に内在した最大の欠点たる長時間かかる茹で時間
について、その短縮化に成功したのである。 又、同様に、即席麺の場合においても、中間層
に多加水で低蛋白、低展圧の麺生地を挿入するこ
とにより、即席麺製造の油揚工程作業中に、中間
層により多く含有されている水分粒は、高温の油
揚処理の結果、高速に急激な発泡現象を起し、即
席麺の中間層がより多くの空洞化すなわちポーラ
ス状となる。こうした特徴を有する製品は喫食す
る際の湯戻しの所要時間が在来即席麺の約1/3と
いう短縮化に成功したものである。 又、実験によれば、本発明の如く中間層を多加
水層とせずに、従来公知の二層又は単層麺方式に
よる加水量を多くした即席麺は、油揚工程中にお
いて表面層も多加水であるがため急激な発泡現象
を来たして麺表面層部に、いわゆる“火ぶくれ”
と称せられる気泡痕を残しているため、湯戻しを
行い喫食すると、食感並びに調理性が著しく劣化
することがわかる。 しかるに、本発明の如く、中間層は多加水でし
かも低蛋白、並びに低展圧度の組成体のため、急
速な発泡現象による気泡群は、第1図dに説明図
で示した如く、麺帯の横サイドより放出してポー
ラス化し、一方表面層は低加水麺のため、いわゆ
る“火ぶくれ”が起らず、食味の低下、茹でにご
り等の食感並びに調理性が劣化することなく、か
つ中間層がよりポーラス化しているので熱湯の浸
透が早く、在来即席麺の1/3の調理時間で喫食が
可能となり、その効果は大である。 因みに、本発明によれば、従来3分間の茹で時
間を必要としていた即席中華麺においては1分間
で、又、5分間の湯戻しが必要とされたカツプラ
ーメン(お湯を注ぐだけで喫食出来るカツプ入り
即席麺)においても、1分30秒で喫食できる実験
結果を得た。 又、本発明を実施することにより、“和風太打
うどんカツプ”の如き8番切刃番手の太うどんも
即席性が可能となつた。 第1図のcは、従来公知の二層又は単層の即席
麺において、多加水(加水量50%。図中、Wは水
分粒子、Frは油揚操作を示す。)の生地とした場
合、その製造工程の油揚作業中発生する多加水の
発泡現象(図中、Pは発泡を示す)を説明図で示
したものであり、そこには麺の“火ぶくれ”現象
の起きる状態を示されている。第1図のdは、本
発明の方法による中間層が多加水(50%)であつ
て、表面層が低加水(30%)の即席麺について、
その油揚作業中に生じる発泡現象を説明図で示し
たものである。図面上、中間層は麺帯の横サイド
より気泡が放出して、ポーラス状になる一方、表
面層は低加水のため、“火ぶくれ”現象にならず、
麺の表面層は平滑である状態を示している。 なお、即席延のうち、非油揚麺の場合、その中
間層がポーラス状であつて、粗の組織体となる現
象の得られる理由は、第1図a並びにbと同様で
ある。 更に、生麺の場合においても、中間層に、多加
水麺生地を挿入することは、相対的に麺質の質量
は減少することを意味する。表面層が低加水であ
るということは、敷〓すれば多加水とした場合に
較べて、小麦粉としての質量が増加することを意
味する。従つて、第1番基礎発明のみの場合より
も、中間層が実質的に粗なる状態となり、多加水
効果および展圧度の低い効果と、低蛋白原料粉
(高アミロ粉)の使用と相俟つて、早茹での太麺
の製造が可能となつたのである。この生麺の場合
の効果は、単なる早茹効果のみならず、前述のよ
うに、表面層が低加水のため、麺線相互の粘着防
止のための手粉散布の必要がなく、又、表面層が
低加水で、組織体が密のため、ダレ、伸長が少
く、よく麺体を保持できる等の効果が顕著であ
り、第1番基礎発明よりもその効果は大である。
しかも従来公知の多加水麺に見られる如き欠点で
あつた粘着防止のための手粉も必要でなく、茹湯
の濁りも少く、麺体保持が容易で、しかも茹で時
間が早く、美味なる手打麺の如き機械麺が、能率
よく生産できる等の効果は絶大である。 更に、本発明に使用される連続ミキシング装置
について詳記する。 この装置は、第1番基礎発明で説明したトリプ
ル重合麺帯機構に供給される麺生地を生成するに
あたり、従来公知のミキサー使用による麺生地を
供給することに関するものである。しかして連続
ミキシング装置を使用することによつて、第1番
基礎発明において供給される麺生地よりも、より
ポーラス状の麺生地を供給することにあり、それ
は、第1番基礎発明と比較してより顕著に中間層
の粗なる三層組織体となした三層麺を得るための
改良発明である。 その具体的な構成は、原料粉を加水混捏して三
層構造体を調整する装置と圧延、截断する装置を
具備する三層麺の製造装置において、送り込み可
能なねじり付撹拌羽根を高速回転可能に内装し、
小麦粉の自動計量供給装置と捏水の自動定量供給
装置とを装備した高速ビーター瞬間混和機3台を
配置し、第1、第3高速ビーター瞬間混和機には
加水混捏した麺生地の出口に圧延ロールが連接さ
れ、第2高速ビーター瞬間混和機には多加水混捏
した麺生地の出口に低圧フイーダー・ロールが連
接され、前記第2高速ビーター瞬間混和機により
調製された多加水麺生地が前記第1、第3高速ビ
ーター瞬間混和機により調整された圧延麺生地の
中間に重合圧延されるように重合圧延ロールが配
置され、引続き重合された三層麺が圧延、截断装
置に送出できるように配備してなる生地組成体の
異なる麺の製造装置である。 ところで、発明者がすでに第1発明として詳述
した技術思想は、第1番基礎発明で開示した圧延
されていない麺生地を二枚の麺体相互の中間層に
挿入するという技術思想に対し、単に圧延されて
いないだけでなく、該麺生地を表面層麺生地と比
較して“より多加水な麺生地”であつて、かつ
“より低蛋白の麺生地”を組み合わせてなる麺生
地”を低圧の成形フイーダーロールを経て、“展
圧度の低い麺帯”に改良しこれを中間層として挿
入し、三層麺として重合実施することにある。そ
れ故に、第1番基礎発明よりも、より一段と表面
層が密であつて、中間層がより一段と粗なる効果
を得、その結果、より顕著な生地組成体の異なる
麺を得るという目的を達成するものなのである。 従つて、そうした目的を達成するための製法が
第1発明として、発明者が開示し提案したもので
ある。 そこで、更に、発明者は第2発明として、多加
水麺生地が低蛋白生地(または弱粘着性生地)で
あつても容易に、速やかに麺生成を生成でき、か
つよりポーラス状で、よりそぼろ状の麺生地を生
成することができ、その結果、中間層が組成の異
なる麺を得るための効果をもたらす連続ミキシン
グ装置の開発に成功したものである。 さて、本装置は、第1に既知の高速ビーター瞬
間混和機、第2にこれと連動する小麦粉連続自動
計量供給装置、第3に同じくこれと連動する捏水
自動定量ポンプとの3機構からなる麺生地瞬間生
成装置が3基装置され、中間層となる1期の麺生
地瞬間生成装置の麺生地出口に低圧フイーダーロ
ールが連接され、表面層となる2基の該装置出口
には圧延ロールが連接されて、二枚の表面層麺帯
に中間層麺帯が挿入される機構を装備した生地組
成の異なる麺の製造装置である。 既に知られているとおり、製麺の混捏工程で、
加水量を増すと、生地の粘着性は大となるから、
通常のミキサーで生地混捏すると、生地は大きな
塊状となり、次工程の製麺ロールへの供給が困難
となる。従つて、従来方式のミキサーでの多加水
麺製造(加水40%以上)は事実上不可能である。 しかるに、この連続ミキシング装置は、後述す
る作用原理により、多加水麺生地であつても、そ
ぼろ状の小さな粒状の混捏麺生地が得られるの
で、容易に製麺ロールへの供給が可能となり、生
地組成体の異なる麺の製造上、真に好都合な改良
となるものである。 又、本装置の高速ビーター瞬間混和機によれ
ば、小麦粉の微少な一粒一粒に粉霧状になつた捏
水が接触するので、瞬間的にグルテン形成が完成
するもので、従来公知の如く、麺生地のネカシと
称する水分の浸透を待つて“麩を出す”という、
いわゆる熟成時間の必要は全くなく、従つて低蛋
白(又は弱粘着性)であつても、生地生成と同時
に、製麺ロールに供給できるものである。 従つて、第2発明の第1機構である高速ビータ
ー瞬間混和機に、第2機構である小麦粉連続自動
計量機と、第3機構である捏水連続自動定量供給
ポンプとの3機構とを組合せることにより、従来
方式のミキサーの如くバツチ供給することなく、
第1番基礎発明のトリプル重合麺帯機構に、新鮮
なそぼろ状の麺生地が連続供給できるという三層
麺の改良効果と、連続生産できる経済上の効果は
きわめて大である。 次に、第2図に、本発明の高速ビーター瞬間混
和機の構成を示したので説明すると、11は電動
機、12はシリンダー状外円筒、13はねぢり状
翼付回転ビーター(Beater)、14は回転軸、1
5は軸受、16は小麦粉入口、17は捏水入口、
18は混捏されたそぼろ状生地の出口、19はカ
ツプリング(軸接手)を示す。 前記回転軸14は、カツプリング19を介して
電動機11と連結され、電動機と同速の1460R/
Mの回転が与えられる。 回転軸14にセツトされた送り込み可能なねじ
り付撹拌ビーター(羽根)13は、シリンダー状
外円筒2の内径に1mm程度のギヤツプを残して接
している。 一方、本高速ビーター瞬間混和機の入口側に小
麦粉入口16と、捏水入口17が装着され、また
出口側に本混和機で形成されたそぼろ状生地の出
口18が装着されている。 更に、連続ミキシング装置を有する本発明は、
以上のような構成をもつた高速ビーター瞬間混和
機に、自動計量供給装置により、小麦粉を定量連
続供給すると共に、定量供給ポンプによつて捏水
を定量連続供給する事を特徴としているのであ
る。 本発明は、以上説明して来た装置と、第2番基
礎発明とを連設した点に有意義な改良が行われた
ことにあるのである。次にその工程図を第3図と
して示す。 この第3図の前段工程は、第2番基礎発明のト
リプル重合麺帯機構のフイーダFに代えて前記連
続ミキシング装置を連設した点と、中間層となる
べき麺生地瞬間生成装置の生地出口部分に低圧フ
イーダー・ロール1Mに連接されたことに相違が
ある。 そして第3図の後段工程は、所要の番手に切出
された麺線Nが、掛機21は経て篠竹22に懸架
され、23のチエーン式装置移行装置で、乾燥室
24内を移行する。乾燥室の構造並びに乾燥方法
は、直接本発明と関係がないので、詳細は省略す
るが、乾燥室は、3室に区分して、第1乾燥室
は、エロヒンヒーターを経て発生した熱風(乾燥
空気)を室の上部よりタクトにより数ケ所におい
て放出し、一方、熱風放出風量と同一容量の床上
に設置した排風機で、生麺が水分を放出して多湿
となつた空気を排出して、又、第2乾燥室では温
度25〜30℃、湿度70〜80%に維持できるようにエ
アーコントロール可能なエアコンデイシヨナで、
加温、除温、加湿、除湿して、乾燥条件を維持
し、また第3乾燥室においても第2乾燥室と同様
なシステムで、最終水分13.0%の乾麺を得るよう
な設備となつている。 以下に、本件改良発明による実施例と、第1、
第2番基礎発明に加えた改良技術思想について、
実施パネル一覧等で解説をすすめることとする。 〔実施例〕 実施例 1 第1番基礎発明と比較して、それよりも中間層
がより粗であり、表面層がより密なる生麺並びに
乾麺の製造実施例。 第3図に示されている説明図に基づいて説明す
ると、小麦粉自動計量供給装置O1,O2,OM各々
に麺用一等小麦粉(手打のれん印(商標)。出願
人製品)を入れ、捏水(塩度ボーメ10度)を捏水
タンクE1,EM,E2各々に満たす。 次に、小麦粉自動供給装置O1の出量を156Kg/
H同じくOMの出量を312Kg/H、同じくO2の出量
を156Kg/Hのもとにそれぞれ調整する。 一方、捏水定量供給ポンプP1の出量を51.5
/H(小麦粉に対し33%の加水量)、同じくPM
の出量を156/H(小麦粉に対し、50%の加水
量)また同じくP2の出量を51.5/H(小麦粉に
対し33%の加水量)になるように運転開始に先立
つて、小麦粉並びに捏水の出量調整を施してお
く。 さて、以上の準備が完了したならば、小麦粉自
動計量供給装置O1,OM,O2、捏水定量供給ポン
プP1,P2,PM並びに高速ビーター瞬間混和機B1
BM,B2の起動スイツチを同時に入れる。 1〜2秒後に、各高速ビーター瞬間混和機の出
口より、そぼろ状になつた麺生地K1,KM,K2
流出し、表面層となる麺生地K1,K2は第1段圧
延ロール1a,1bに供給されて加圧圧延され、
一方、中間層となる麺生地KMは低圧の成形フイ
ーダー・ロール1Mに供給される。 このように、表面層に対する圧延及び中間層に
対して整形された三帯の麺帯は、第1および第2
番基礎発明として説明したトリプル重合麺帯機構
の圧延ロール2a,2b間に挿入され、三層麺M
を得る。 生成された三層麺は、中延のための圧延ロール
機3a,3b間で展延され、仕上げのための第4
圧延ロール4a,4b間で展延され、切刃8番ロ
ール5a,5bで所要番手に切出され、本発明の
三層麺の精製さた生麺Nを得た。 次に、この生麺は、掛機21を経て、篠竹22
に懸架され、23のチエーン式移行装置で、乾燥
室24内を移行する。乾燥室の構造並びに乾燥方
法はすでにのべたとおりである。 さて、このような乾燥システムを経て乾燥され
た麺は、前述のように、第1、第2番基礎発明の
組織体の異なる三層麺の技術思想と、本件改良発
明の表面層に較べて多加水麺生地による効果と、
低圧の成形フイーダー・ロールによる表面層と較
べて展圧度の低い麺帯を挿入する効果、更に加え
て第2発明であるよりポーラスな、よりそぼろ状
の麺生地供給が可能な装置により、表面層は密
に、中間層な顕著な粗なる構造を有する三層麺の
乾麺を得た。なお、実施例1は中間層と表面層は
同一種の小麦粉を使用した場合の一例である。 調理比較例 1 前記実施例1で得た麺Aと、第1番基礎発明の
製法による麺B、並びに一般公知の製法による麺
Cの三点について、調理テスト、並びに20名の試
食パネルによる試食結果を表−1の1および表−
1の2で示す。
[Industrial Field of Application] The first aspect of the present invention relates to an improved method for manufacturing noodles with different dough compositions, and the second aspect of the present invention relates to an apparatus for manufacturing noodles with different dough compositions. (below,
For convenience of explanation, the above-mentioned inventions are referred to as the first invention and the second invention). [Prior Art] Therefore, the first invention will be explained in order below. The first invention is the patent number already proposed by the inventor.
This invention is a further improvement of the first invention (hereinafter referred to as the first basic invention) claimed in No. 947736 (Patent Application Publication No. 24497 of 1978). [Problems to be solved by the invention of product and method] The gist of this basic invention is to insert unrolled noodle dough into the intermediate layer between two noodle strips to create noodles with different dough compositions. However, there has been a strong desire to further shorten the boiling time and to develop a method and apparatus for producing various types of noodles, including even more delicious dried noodles. [Means for solving the problem] By the way, the first invention further improves the first basic invention and uses the technology of inserting the unrolled noodle dough into the intermediate layer disclosed in the first basic invention. In line with this idea, the noodle dough is not only unrolled, but also has a higher amount of water than the surface layer of the noodle dough, and has a lower protein level or weaker stickiness than the surface layer. , by forming a noodle sheet with a lower degree of rolling, and by carrying out the process in such a way that high-hydration, low-protein dough can be inserted as an intermediate layer more easily than in the first basic invention, this invention is better than the first basic invention. The effect of having a denser surface layer and a rougher middle layer is greater, thereby achieving the objective of obtaining noodles with a more noticeable difference in dough composition. The specific configuration of the first invention is such that the noodle strips, which are formed by passing through a rolling roll and forming two surface layers, have more water added than the surface layer and have a lower protein content than the surface layer. By combining noodle dough with low or low adhesiveness and passing through a forming feeder roll with a lower pressure than the rolling roll of the surface layer, a noodle sheet with a low rolling pressure is produced, and this is inserted as an intermediate layer. Different dough compositions characterized by having a dense surface layer and a coarse middle layer by polymerizing as layered noodles and passing through various known rolling rolls and cutting rolls. This is a method of manufacturing noodles. Rather than the technical idea of simply inserting unrolled dough into the intermediate layer according to the first basic invention, the intermediate layer is formed with a higher hydration content and lower protein noodle dough than the surface layer, and the rolling pressure is relatively low. By improving the method of inserting noodle strips, for example when obtaining dry noodles or instant noodles, the middle layer is hollowed out more than the first basic invention, and the so-called surface layer is hollowed out. This results in a three-layer composition in which the middle layer is dense and high in protein, and the middle layer is coarser and low in protein. As a result, the boiling time, which was a fatal drawback of conventional dried noodles, has been drastically shortened to about 1/2.
We succeeded in obtaining delicious dried noodles in just 3 hours of boiling time. Similarly, the instant noodles that required 3 minutes of reheating time were successfully made into edible instant noodles in 1/3 of the time. In this way, rather than the first basic invention, which is characterized in that noodle dough that is simply not rolled is inserted into the intermediate layer, high-hydration, low-protein noodle dough is inserted as noodle strips with a low rolling pressure. For some reason, in dried noodles, instant noodles, or fresh noodles, the middle layer becomes a more coarse texture than in the case of the first basic invention.
The rationale for shortening the boiling time will be explained later in connection with the drawings. In addition, in the case of raw noodles, the middle layer has a high water content and is low in protein, so you can get the effect of quick boiling. Due to its low water content, it is similar to well-known high water content noodles.
This means that there is no need to sprinkle flour by hand to prevent the noodle strings from sticking to each other. The surface layer has a low water content, that is, it is a vertical knead, and the structure of the surface layer is dense, so there is little so-called sag and elongation, and the noodles can be held well, and the noodle strings do not stick to each other. The effect on distribution is remarkable, and the effect is greater than that of the first basic invention. [Function] According to the first invention, there is no need for hand flour, which was conventionally used to prevent the noodle strings from sticking, which was a drawback of known multi-hydro noodles, and the boiling water becomes less cloudy. It has truly excellent effects, such as being able to easily hold the noodles, have a quick boiling time, and efficiently produce delicious machine-made noodles similar to hand-made noodles. In addition, the noodle dough in the middle layer not only has a high amount of water, but also has a much lower protein content when compared to the noodle dough in the surface layer, due to the synergistic effect with the water content. , it was easier to obtain noodles having a three-layer composition in which the surface layer is dense and the middle layer is significantly rougher than in the first basic invention. As a result, for example, in the case of noodles such as Hokkaido's authentic Satsuporo Ramen (named according to the labeling standard for raw noodles), which requires a well-known chewy texture, traditional noodle-making methods require the use of strong protein-rich flour. Because of its use, it required a longer boiling time than regular Chinese noodles. On the other hand, in the case of the first invention, the noodle dough with a lower rolling pressure, higher water content than the surface layer, and low protein is inserted in the middle layer, so the boiling time is extremely shortened. As clearly stated in the examples, the first basic invention succeeded in shortening the boiling time, which required 5 minutes using the conventional method, to 4 minutes.
According to the first invention, the time can be shortened to about 1/2 of 2 minutes, and since the surface layer is a high-protein noodle dough, it is possible to serve firm satsupororan for meals. And it doesn't require dusting,
In addition, since it is boiled quickly, the boiling water is less cloudy, so the economic effect is great. In the case of the present invention, by inserting a noodle dough with high water content and low protein content into the middle layer, the middle layer has high water content, so that the boiling water penetrates quickly, and low protein flour is used. Therefore, the amount of gluten, which is the binding force of the noodle dough, is small, and the composition of the noodle dough is therefore coarse. Combined with the effect of inserting noodle dough with a low rolling pressure, this effect is synergistically significant. This is what is brought to the table. By inserting a low-protein or weakly sticky noodle dough into the above-mentioned intermediate layer, the lower the protein and low-adhesive noodle dough, the weaker the binding force due to gluten. The effects appear synergistically. In this regard, experiments have shown that the intermediate layer is
In other words, even though the intermediate layer was shaped to the extent that it was corrected, it was superior to the first basic invention due to the effect of the low protein powder in the intermediate layer and the high amount of water added. That is, the present invention provides a noodle dough (or (Noodle dough with even less stickiness)
The method uses a low-pressure feeder roll to generate and insert noodle strips with a low degree of rolling pressure, and these are two sides of the same coin, and even if one of them is missing, the effect of the present invention cannot be achieved. Needless to say. Further, according to the present invention, for example, cornstarch,
It is also possible to mix non-stick substances of animal or vegetable origin into flour, such as milk powder, wheat germ, or mugwort powder. In the past, it was difficult to make noodles with foreign substances mixed in like this, but it is now possible by inserting a weakly sticky noodle dough into the middle layer and using high protein noodle dough in the surface layer. It became. Next, in the case of the first invention, unlike the first basic invention, which was based on the idea of simply inserting unrolled noodle dough into the intermediate layer, the noodle dough with high water content and low protein was passed through a low-pressure feeder. By inserting a noodle strip with a low rolling pressure after rolling, the middle layer of dry noodles, instant noodles, and raw noodles becomes a structure with a coarser structure, and the boiling time or re-boiling time is shortened. become. The reason for this is, for example, in the case of dried noodles, water particles are evaporated during the drying process from raw noodles to dry noodles, and traces of the moisture are left behind, leading to minute porosity. In particular, the phenomenon was observed in various experiments. Figure 1 shows that the water particles W 1 and W 2 are evaporated,
An explanatory diagram shows the process by which minute cavities P 1 and P 2 are generated in the traces. (This figure 1 a shows the amount of water added at 30%.
Figure b represents the case where the amount of water added to the middle layer is 50%, and the amount of water added to the surface layer is 30%. In the figure, the dotted arrow indicates drying operation D). As described above, the first invention is characterized in that by making the middle layer a highly hydrated dough, traces of moisture are hollowed out during the drying process for dry noodles, and since the middle layer is low in protein, gluten Due to the synergistic effect of inserting a low pressure composition as an intermediate layer, the binding force of the fabric is low and the fabric composition is not strong.
When compared to the case using only the technical idea of the first basic invention, an improved invention has been completed regarding a method for manufacturing noodles with a different dough composition, in which the middle layer has a much coarser structure. This succeeded in shortening the long boiling time, which was the biggest drawback of the traditional dry noodle manufacturing method. Similarly, in the case of instant noodles, by inserting high-hydration, low-protein, and low-rolling-pressure noodle dough into the middle layer, it is possible to increase the amount of lactose contained in the middle layer during the frying process of instant noodle production. As a result of the high-temperature deep-frying process, the moisture particles present in the instant noodles undergo a rapid foaming phenomenon, and the middle layer of the instant noodles becomes more hollow, that is, becomes porous. Products with these characteristics have successfully shortened the time required for reconstitution in hot water before eating to about one-third that of conventional instant noodles. Furthermore, according to experiments, instant noodles in which the amount of water added using the conventional two-layer or single-layer noodle method was increased without using a middle layer with a high amount of water as in the present invention, the surface layer also had a high amount of water added during the deep-frying process. As a result, a rapid foaming phenomenon occurs and the so-called "blister" occurs on the surface layer of the noodles.
It can be seen that the texture and cookability deteriorate significantly when the food is rehydrated and eaten because it leaves traces of air bubbles. However, as in the present invention, since the intermediate layer is composed of a high amount of hydration, low protein content, and low expansion pressure, the bubble group due to the rapid foaming phenomenon is caused by the noodle formation as shown in the explanatory diagram in Fig. 1d. It is released from the side sides of the strip and becomes porous, while the surface layer is a low-hydration noodle, so so-called "blistering" does not occur, and there is no deterioration in taste, texture such as boiling cloudiness, and cooking performance. , and because the middle layer is more porous, hot water penetrates quickly, making it possible to eat it in 1/3 of the cooking time of conventional instant noodles, which is highly effective. Incidentally, according to the present invention, instant Chinese noodles, which conventionally required 3 minutes of boiling time, can be boiled in 1 minute, and cutlet ramen (katsu ramen, which can be eaten by simply pouring hot water), which requires 5 minutes of boiling, can be prepared in one minute. We also obtained experimental results for instant noodles that can be eaten in 1 minute and 30 seconds. Furthermore, by implementing the present invention, it has become possible to make thick udon noodles with a No. 8 cutting edge, such as "Japanese-style thick udon cup", on the spot. Fig. 1c shows conventionally known two-layer or single-layer instant noodles when the dough is made with a large amount of water added (the amount of water added is 50%. In the figure, W indicates water particles and Fr indicates the deep-frying operation). This is an explanatory diagram showing the foaming phenomenon (P in the diagram indicates foaming) that occurs during the deep-frying operation of the noodles, which occurs when the noodles are fried. has been done. Figure 1 d shows instant noodles prepared by the method of the present invention in which the middle layer has a high water content (50%) and the surface layer has a low water content (30%).
This is an explanatory diagram showing the foaming phenomenon that occurs during the frying operation. In the drawing, the middle layer is porous as air bubbles are released from the sides of the noodle strip, while the surface layer has a low water content, so it does not cause the "blister" phenomenon.
The surface layer of the noodles is shown to be smooth. In the case of instant rolled noodles that are not fried, the reason why the intermediate layer is porous and has a coarse structure is the same as shown in FIGS. 1a and 1b. Furthermore, even in the case of raw noodles, inserting highly hydrated noodle dough into the intermediate layer means that the mass of the noodle quality is relatively reduced. The fact that the surface layer has a low water content means that when it is spread, the mass of the flour increases compared to when it is coated with a high water content. Therefore, the intermediate layer becomes substantially coarser than in the case of only the first basic invention, and the effect of high hydration and low rolling pressure is compatible with the use of low protein raw material powder (high amyl powder). Eventually, it became possible to produce thick noodles by boiling them quickly. The effect of this type of raw noodles is not only the quick-boiling effect, but also, as mentioned above, because the surface layer has low water content, there is no need to sprinkle flour by hand to prevent the noodle strands from sticking to each other, and the surface layer Since the layer has a low water content and a dense texture, it has remarkable effects such as less sagging and elongation, and can hold the noodle well, which is even greater than the first basic invention.
In addition, there is no need for hand flour to prevent sticking, which was a drawback of conventional well-known hydrated noodles, the boiling water is less cloudy, the noodles are easy to hold, and the boiling time is quick, making them delicious. Mechanical noodles such as noodles can be produced efficiently, and the effects are tremendous. Further, the continuous mixing device used in the present invention will be described in detail. This device is related to supplying noodle dough using a conventionally known mixer in producing noodle dough to be supplied to the triple-polymerized noodle sheet mechanism described in the first basic invention. Therefore, by using a continuous mixing device, it is possible to supply noodle dough that is more porous than the noodle dough supplied in the first basic invention; This is an improved invention for obtaining a three-layer noodle having a three-layer structure with a significantly coarser middle layer. The specific configuration is a three-layer noodle manufacturing device that is equipped with a device for adding water and kneading raw material flour to prepare a three-layer structure, and a device for rolling and cutting, and is capable of rotating a feedable twisted stirring blade at high speed. interior and
Three high-speed beater instant mixers are equipped with an automatic measuring and feeding device for flour and an automatic fixed-quantity supply device for kneading water. A low-pressure feeder roll is connected to the second high-speed beater instant mixer at the outlet of the highly hydrated noodle dough, and the highly hydrated noodle dough prepared by the second high-speed beater instant mixer is transferred to the second high-speed beater instant mixer. 1. A polymerizing roll is placed in the middle of the rolled noodle dough prepared by the third high-speed beater instant mixer so as to be polymerized and rolled, and then the polymerized three-layer noodles are delivered to a rolling and cutting device. This is an apparatus for manufacturing noodles with different dough compositions. By the way, the technical idea already detailed by the inventor as the first invention is different from the technical idea of inserting unrolled noodle dough into the intermediate layer between two noodle bodies disclosed in the first basic invention. In addition to being simply unrolled, the noodle dough is a noodle dough with a higher water content compared to the surface layer noodle dough, and a noodle dough with a lower protein content. The purpose is to improve the "noodle strip with low rolling pressure" through a low-pressure forming feeder roll, insert this as an intermediate layer, and polymerize it to form three-layer noodles.Therefore, this invention is better than the first basic invention. This achieves the effect of having a denser surface layer and a coarser middle layer, thereby achieving the purpose of obtaining noodles with a more pronounced difference in dough composition. As the first invention, the inventor has disclosed and proposed a manufacturing method for achieving the above.Therefore, as a second invention, the inventor has further disclosed that the highly hydrated noodle dough is a low-protein dough (or weakly sticky dough). Noodles can be easily and quickly produced even when the noodle dough is more porous and crumbly, and as a result, the intermediate layer has the effect of obtaining noodles with different compositions. This device was developed by firstly using a known high-speed beater instant mixer, secondly by a continuous automatic metering and feeding device for wheat flour that was linked to this, and thirdly by using a continuous mixing device that was also similar to this. Three instant noodle dough generators are installed, each consisting of a three-mechanism linked to an automatic metering pump for shaking water. This is an apparatus for producing noodles with different dough compositions, which is equipped with a mechanism in which rolling rolls are connected to the exits of the two apparatuses forming layers, and an intermediate layer noodle strip is inserted into two surface layer noodle strips. As is known, in the kneading process of noodle making,
The more water you add, the more sticky the dough becomes.
If the dough is kneaded using a regular mixer, the dough will form large lumps, making it difficult to feed the dough to the noodle rolls in the next process. Therefore, it is virtually impossible to produce noodles with a large amount of added water (40% or more added water) using a conventional mixer. However, due to the working principle described below, this continuous mixing device can produce small crumbly granular kneaded noodle dough even if it is a highly water-added noodle dough, so it can be easily fed to the noodle rolls, and the dough can be easily fed to the noodle rolls. This is a truly advantageous improvement in the production of noodles with different compositions. In addition, according to the high-speed beater instant mixer of this device, the mixing water that has become a powder mist comes into contact with each minute grain of flour, so that gluten formation is completed instantaneously, which is different from conventionally known methods. Like, wait for the moisture in the noodle dough called nekashi to penetrate, and then ``take out the wheat gluten''.
There is no need for so-called aging time, and therefore even if the dough is low in protein (or weakly sticky), it can be fed to the noodle rolls at the same time as the dough is formed. Therefore, the first mechanism of the second invention, the high-speed beater instant mixer, is combined with three mechanisms: the second mechanism, a continuous automatic measuring machine for wheat flour, and the third mechanism, a continuous automatic metering pump for water mixing. By doing so, there is no need to feed in batches as with conventional mixers.
The triple-polymerized noodle belt mechanism of the first basic invention has the effect of improving three-layered noodles by being able to continuously supply fresh, crumbly noodle dough, and the economical effects of continuous production. Next, FIG. 2 shows the configuration of the high-speed beater instant mixer of the present invention, and will be explained. 11 is an electric motor, 12 is a cylindrical outer cylinder, 13 is a rotary beater with torsion-shaped wings, 14 is the rotation axis, 1
5 is the bearing, 16 is the flour inlet, 17 is the water mixing inlet,
Reference numeral 18 indicates an outlet of the kneaded dough, and reference numeral 19 indicates a coupling (shaft joint). The rotating shaft 14 is connected to the electric motor 11 through a coupling 19, and has the same speed as the electric motor.
A rotation of M is given. A feedable torsional stirring beater (vane) 13 set on the rotating shaft 14 is in contact with the inner diameter of the cylindrical outer cylinder 2 with a gap of about 1 mm left. On the other hand, a flour inlet 16 and a water-mixing inlet 17 are installed on the inlet side of this high-speed beater instant mixer, and an outlet 18 for the crumbly dough formed by this mixer is installed on the outlet side. Furthermore, the present invention having a continuous mixing device,
The high-speed beater instant mixer having the above-mentioned configuration is characterized by continuously feeding a fixed amount of flour by an automatic metering and feeding device, and by continuously feeding a fixed amount of water by a metering pump. The present invention is a significant improvement in that the device described above and the second basic invention are connected together. Next, the process diagram is shown in FIG. The first step in FIG. 3 is that the continuous mixing device is installed in place of the feeder F of the triple-polymerized noodle sheet mechanism of the second basic invention, and the dough outlet of the instant noodle dough generator that is to be the intermediate layer. The difference is that the parts are connected to a low pressure feeder roll 1M . In the latter step of FIG. 3, the noodle strings N cut to a desired size are suspended by a hanging machine 21, a Shinotake 22, and moved through a drying chamber 24 by a chain-type transfer device 23. The structure and drying method of the drying chamber are not directly related to the present invention, so the details will be omitted, but the drying chamber is divided into three chambers. Dry air) is discharged from the top of the chamber at several locations using tact, while a ventilator installed on the floor with the same volume as the hot air discharge volume discharges the air that has become humid due to the release of water from the raw noodles. In addition, the second drying room is equipped with an air conditioner that can control air to maintain the temperature at 25-30℃ and humidity at 70-80%.
The drying conditions are maintained by heating, removing heat, humidifying, and dehumidifying, and the third drying room is also equipped with the same system as the second drying room to obtain dried noodles with a final moisture content of 13.0%. . Examples according to the improved invention and the first,
Regarding the improved technical idea added to the second basic invention,
We will provide an explanation using a list of implementation panels, etc. [Examples] Example 1 An example of producing fresh noodles and dried noodles in which the intermediate layer is coarser and the surface layer is denser than the first basic invention. To explain based on the explanatory diagram shown in FIG. 3, first grade flour for noodles (handmade Noren seal (trademark), product of the applicant) is put into each of the flour automatic metering and feeding devices O 1 , O 2 , O M. , fill each of the washing tanks E 1 , E M , and E 2 with washing water (salinity of 10 degrees Baume). Next, the output amount of flour automatic feeder O 1 is 156Kg/
Adjust the O M output amount to 312 Kg/H and the O 2 output amount to 156 Kg/H. On the other hand, the output amount of the water refilling pump P1 is 51.5
/H (33% water added to wheat flour), also P M
Prior to the start of operation, the amount of P2 was adjusted to 156/H (50% water added to wheat flour) and the amount of P2 to 51.5/H (33% water added to flour). Also, adjust the amount of water being added. Now, once the above preparations have been completed, the flour automatic metering and feeding devices O 1 , O M , O 2 , the water macerating metering pumps P 1 , P 2 , PM and the high-speed beater instant mixing machine B 1 ,
Turn on the start switches of B M and B 2 at the same time. After 1 to 2 seconds, the crumbly noodle dough K 1 , K M , K 2 flows out from the outlet of each high-speed beater instant mixer, and the noodle dough K 1 , K 2 forming the surface layer is transferred to the first stage. It is supplied to rolling rolls 1a and 1b and is pressure rolled,
On the other hand, the noodle dough KM , which forms the middle layer, is fed to a low-pressure forming feeder roll 1M . In this way, the three-banded noodle strip that has been rolled for the surface layer and shaped for the middle layer is
The three-layer noodle M
get. The produced three-layer noodles are rolled between rolling roll machines 3a and 3b for middle rolling, and then rolled on a fourth rolling mill for finishing.
It was rolled out between rolling rolls 4a and 4b, and cut into a desired size with No. 8 cutting blade rolls 5a and 5b to obtain refined raw noodles N of the three-layered noodles of the present invention. Next, this raw noodles pass through a hanging machine 21 and then pass through a Shinotake 22
It is suspended in the drying chamber 24 and transferred through a chain-type transfer device 23. The structure of the drying chamber and the drying method are as described above. Now, as mentioned above, the noodles dried through such a drying system are different from the technical concept of three-layered noodles with different organizations in the first and second basic inventions and the surface layer of the improved invention. The effects of highly hydrated noodle dough,
The effect of inserting a noodle strip with a lower rolling pressure compared to the surface layer by the low-pressure forming feeder roll, and in addition, the second invention, which is a device capable of feeding more porous and crumbly noodle dough, improves the surface layer. Dry noodles of three-layered noodles having a dense layer and a noticeable coarse structure with an intermediate layer were obtained. Note that Example 1 is an example in which the same type of wheat flour is used for the middle layer and the surface layer. Comparative Cooking Example 1 A cooking test and a tasting panel of 20 people were conducted on three items: noodles A obtained in Example 1, noodles B manufactured by the manufacturing method of the first basic invention, and noodles C manufactured by a generally known manufacturing method. The results are shown in Table 1 and Table 1.
Shown as 1 of 2.

【表】【table】

【表】 上記調理比較例1から理解される優劣の判断結
果について、項目的に列記すると、次の通りであ
る。 (1) 生麺の状態としては、Aが最も茹で時間が早
いにかかわらず、手粉を必要としない。 (2) 生麺の表面層はAが最もしつかりして、伸
長、ダレ、麺線密着がなく、流通過程や、包装
上において難点がない。 (3) Aは、手粉のないことと、茹時間の早いこと
によつて、他のB、Cに較べ茹湯のにごりが極
めて少なく、茹湯の取換え頻度が少なくてす
み、省エネルギー効果もある。 (4) Aは乾麺の茹で時間について、公知の従来法
の1/3近くの茹で時間に短縮でき、第1番基礎
発明よりも、更に短縮できた。 (5) Aの場合、食感は腰があつて、ふつくらと
し、外観は鼓型で、パネル20名全員が、食感に
ついて優良である旨評価した。 実施例 2 第1番基礎発明よりも、茹で時間が早く、腰の
ある美味なサツポロラーメンの製造実施例。 第3図に示されている本発明工程図に基いて説
明すると、小麦粉自動計量供給装置O1,O2に強
力一等小麦粉(銀嶺印(商標)、出願人製品)を
入れ、一方小麦粉自動計量供給装置OMに中力麺
用一等小麦粉(手打のれん印(商標)、出願人製
品)を入れ、捏水(かん水ボーメ4度)を捏水タ
ンクE1,EM,E2各々に満たす。 次に、小麦粉自動供給装置O1,OM,O2の出量
を208Kg/Hなる如く調整し、一方、捏水定量供
給ポンプP1,P2の出量を73/H(小麦粉に対し
35%の加水量)に調整し、又、捏水定量供給ポン
プPMの出量を83/H(小麦粉に対し40%の加水
量)になるように運転開始に先立つて小麦粉並び
に捏水の出量を調整しておく。 さて、以上の準備が完了したならば、小麦粉自
動計量供給装置O1,OM,O2並びに高速ビーター
瞬間混和機B1,BM,B2の起動スイツチを同時に
入れる。 1〜2秒後に各高速ビーター瞬間混和機の出口
より、そぼろ状になつた麺生地K1,KM,K2が流
出し、各々第1段圧延ロール機1a,1bに供給
される。この第1段圧延ロール機で形成された三
枚の帯状の麺帯は、トリプル重合麺帯機構2a,
2bロール機間に挿入され、三層麺Mを得る。 形成された三層麺は、中延のための圧延ロール
機3a,3b間で展延され、仕上のための第4圧
延ロール機4a,4b間で展延され18番切刃ロー
ルで所要番手に切り出され、本件改良発明の意図
する“茹で時間が早く腰のある中華麺”を得た。
なお、実施例2は、中間層は表面層と較べ多加
水、且つ、低蛋白の小麦粉使用を組み合わせた場
合の一例である。 また、中間層に使用した小麦粉は、表面層に使
用した強力一等小麦粉(商品名:銀嶺印)よりも
低蛋白である中力麺用一等小麦粉(商品名:手打
のれん印)であり、その数値は次表の通り。
[Table] The results of the judgment of superiority and inferiority understood from Cooking Comparative Example 1 are listed in terms of items as follows. (1) Regarding raw noodles, A does not require hand flour, even though it takes the fastest boiling time. (2) A surface layer of raw noodles is the most firm, with no elongation, sagging, or noodle strings sticking together, and there are no problems in the distribution process or packaging. (3) Because A does not require hand flour and has a quick boiling time, the boiling water is extremely less cloudy than B and C, and the boiling water does not need to be replaced as often, resulting in energy-saving effects. There is also. (4) In A, the boiling time for dried noodles could be shortened to nearly 1/3 of the known conventional method, and even shorter than the first basic invention. (5) In the case of A, the texture was chewy and plump, and the appearance was drum-shaped, and all 20 panelists evaluated the texture as being excellent. Example 2 An example of producing Satsuporo ramen that takes less time to boil than the first basic invention and is chewy and delicious. The explanation will be based on the process diagram of the present invention shown in FIG . Put first-grade wheat flour for medium-strength noodles (handmade Noren-in (trademark), applicant's product) into the metering and feeding device O M , and add water (brine Baume 4 degrees) to each of the mixing tanks E 1 , E M , and E 2 . Fulfill. Next, the output amount of the flour automatic feeders O 1 , O M , O 2 was adjusted to 208 kg/H, while the output amount of the water mixing constant supply pumps P 1 , P 2 was adjusted to 73/H (relative to flour).
Prior to the start of operation, the flour and water were adjusted to 35% of the amount of water added, and the output of the mixing water metering pump P M was adjusted to 83/H (40% of the amount of water added to the flour). Adjust the output amount. Now, when the above preparations are completed, the automatic flour metering and feeding devices O 1 , O M , O 2 and the high-speed beater instant mixers B 1 , B M , B 2 are turned on at the same time. After 1 to 2 seconds, crumbled noodle dough K 1 , K M , K 2 flows out from the outlet of each high-speed beater instant mixer and is supplied to first-stage rolling mills 1 a and 1 b, respectively. The three strip-shaped noodle strips formed by this first stage rolling mill are triple-polymerized noodle strip mechanisms 2a,
2b is inserted between the roll machines to obtain three-layer noodles M. The formed three-layer noodles are rolled between rolling roll machines 3a and 3b for middle rolling, then rolled between fourth rolling roll machines 4a and 4b for finishing, and then rolled to the required thickness using a No. 18 cutting edge roll. As a result, "Chinese noodles with a quick boiling time and firmness" as intended by the improved invention were obtained.
In addition, Example 2 is an example in which the middle layer contains more water than the surface layer and uses low-protein wheat flour. In addition, the flour used for the middle layer is first-grade wheat flour for medium-strength noodles (product name: Handmade Noren-in), which has lower protein content than the first-grade strong wheat flour (product name: Ginrei-in) used for the surface layer. The numbers are shown in the table below.

【表】 調理比較例 2 前述の実施例2で得た“茹で時間が早く腰のあ
る中華麺”と、従来製法の中華麺、従来製法の多
加水麺をそれぞれ調理し試食した。 その結果を、表−2の1および表−2の2にま
とめた。
[Table] Comparative Cooking Example 2 The "Chinese noodles that are quick to boil and have a firm texture" obtained in Example 2, the Chinese noodles prepared using the conventional method, and the multi-hydrated noodles prepared using the conventional method were prepared and tasted. The results are summarized in Table 2-1 and Table-2-2.

【表】【table】

【表】 実施例2による中華麺は、従来法の強力粉のみ
を使用した中華麺よりも、腰が強く、茹で時間が
早く、食感がすぐれ、茹湯のにごりが少ない等の
優秀な優位差がみとめられた。 この優位差について、調理比較例2から理解さ
れた事柄を項目的に列記すると、次の通りであ
る。 すなわち、実施例2の中華麺は、 (1) 茹で時間は、従来製法の1/2以下の茹で時間
で、しかも食味が腰があり、且つ、アミロ値の
高い中力麺用粉を中間層に使用しているので粘
弾性があり、美味である。 (2) 多加水でありながら、手粉を必要としない。 (3) 生麺の外層が強固などで、保存、取扱い、流
通過程において、粘着、形くずれのおそれがな
い。 (4) 茹湯のにごりが極めて少く、茹湯の取換え頻
度が少なくてすみ、省エネルギー効果もある。 (5) 早茹効果と、生地組成の異なる三層麺のた
め、従来公知の二層麺に比較し、食感が極めて
良好である、 等の効果が確認できた。 実施例 3 第1番基礎発明と比較して、それよりも中間層
がより粗であり、表面層がより密で調理時間の短
い即席中華麺の製造実施例。 第4図aに示されている説明図に基づいて説明
すると、小麦粉自動計量供給装置O1,O2,OM
各々に即席中華麺製造の場合は中華麺用一等小麦
粉(双竜星印し商標)。出願人製品)を入れ、捏
水(かん水ボーメ2度)を捏水タンクE1,EM
E2各々に満たす。 次に、小麦粉自動計量供給装置O1の出量を156
Kg/H同じくOMの出量を312Kg/H同じくO2の出
量を156Kg/Hのもとにそれぞれ調整する。 一方、捏水定量供給ポンプP1の出量を46.8/
H(小麦粉に対し30%の加水量)、同じくPMの出
量を156/H(小麦粉に対し、50%の加水量)ま
た同じくP2の出量を46.8/H(小麦粉に対し30
%の加水量)になるように運転開始に先立つて、
小麦粉並びに捏水の出量調整を施しておく。 さて、以上の準備が完了したならば、小麦粉自
動計量供給装置O1,O2,OM捏水定量供給ポンプ
P1,PM,P2並びに高速ビーター瞬間混和機B1
BM,B2の起動スイツチを同時に入れる。 1〜2秒後に、各高速ビーター瞬間混和機の出
口より、そぼろ状になつた麺生地K1,KM,K2
流出し、表面層となる麺生地K1,K2は第1段圧
延ロール1a,1bに供給されて加圧圧延され、
一方、中間層となる麺生地KMは、低圧のフイー
ダ・ロール1Mに供給される。このように、表面
層に対する圧延及び中間層に対して整形された三
帯の麺帯は、第1番および第2番基礎発明として
説明したトリプル重合麺帯機構の圧延ロール2
a,2b間に挿入され、三層麺Mを得る。 生成された三層麺は、中延のための圧延ロール
機3a,3b間で展延され、仕上げのための第4
圧延ロール4a,4b間で展延され、切刃18番ロ
ール5a,5bで所要番手に切出され、本発明の
三層麺の精製された中華生麺RN1を得た。 次に、この中華生麺RN1は第4図bに示す公
知の蒸熱コンベヤCで、表面糊化され蒸し中華麺
RN2を得た。次に分割機Dで1食毎にカツトさ
れ、自動型詰機Kにより、リテナーRに蒸し中華
麺RN2を収容する。 次に公知の自動油揚機FMにおいて約155℃で
油揚されて、即席中華麺RN3を得た。 さて、このような工程を経て得られた本発明の
即席中華麺RN3は、前述のように、第1、第2
番基礎発明の組織体の異なる三層麺の技術思想
と、本件発明の中間層多加水麺生地による発泡効
果、更に加えて第2発明に拠つてより一層ポーラ
スな、よりそぼろ状の麺生地の供給装置により、
表面層は密に、中間層は顕著な粗なる構造を有す
る三層麺の即席中華麺を得た。 調理比較例 3 前記実施例3で得た即席中華麺Aと、第1番基
礎発明の製法により即席中華麺B、並びに一般公
知の製法による即席中華麺Cの三点について調理
テスト、並びに20名の試食パネスによる試食結果
を表−3の1および表−3の2で示す。
[Table] The Chinese noodles prepared in Example 2 have superior advantages over the traditional Chinese noodles made using only strong flour, such as firmness, faster boiling time, better texture, and less cloudiness in the boiling water. was recognized. Regarding this superiority difference, the things understood from Cooking Comparative Example 2 are listed as follows. In other words, the Chinese noodles of Example 2 were: (1) The boiling time was less than half of the boiling time of the conventional method, and the taste was firm, and medium-strength noodle flour with a high amyl value was used as the middle layer. It has viscoelastic properties and is delicious. (2) Although it contains a lot of water, it does not require hand flour. (3) The outer layer of raw noodles is strong, so there is no risk of them sticking or losing their shape during storage, handling, and distribution processes. (4) There is very little cloudiness in the boiling water, which means that the boiling water does not need to be replaced frequently, which also has an energy saving effect. (5) Due to the quick-boiling effect and the three-layered noodles with different dough compositions, the following effects were confirmed: compared to conventionally known two-layered noodles, the texture was extremely good. Example 3 Compared to the first basic invention, an example of manufacturing instant Chinese noodles having a rougher middle layer, a denser surface layer, and a shorter cooking time. To explain based on the explanatory diagram shown in Fig. 4a, the flour automatic metering and feeding devices O 1 , O 2 , O M
In the case of instant Chinese noodle production, first-grade flour for Chinese noodles (trademark with Ssangyong star) is used. (Applicant's product) and rinsed water (brine Baume 2 degrees) in the rinse tanks E 1 , EM ,
Fill E 2 each. Next, set the output amount of flour automatic metering and feeding device O 1 to 156
Kg/H Similarly, the O M output amount is adjusted to 312 Kg/H. Similarly, the O 2 output amount is adjusted to 156 Kg/H. On the other hand, the output of the water-dispensing metering pump P1 was set to 46.8/
H (30% water added to wheat flour), the amount of P M was 156/H (50% water added to wheat flour), and the amount of P 2 was 46.8/H (30% water added to wheat flour).
% water addition amount) prior to the start of operation.
Adjust the amount of flour and kneading water. Now, once the above preparations have been completed, the flour automatic metering and feeding device O 1 , O 2 , O M water mixing metering pump
P 1 , P M , P 2 and high speed beater instant mixer B 1 ,
Turn on the start switches of B M and B 2 at the same time. After 1 to 2 seconds, the crumbly noodle dough K 1 , K M , K 2 flows out from the outlet of each high-speed beater instant mixer, and the noodle dough K 1 , K 2 forming the surface layer is transferred to the first stage. It is supplied to rolling rolls 1a and 1b and is pressure rolled,
On the other hand, the noodle dough KM serving as the middle layer is fed to a low-pressure feeder roll 1M . In this way, the three-banded noodle strip that has been rolled for the surface layer and shaped for the middle layer is produced by the rolling roll 2 of the triple-polymerized noodle strip mechanism explained as the first and second basic inventions.
It is inserted between a and 2b to obtain three-layer noodles M. The produced three-layer noodles are rolled between rolling roll machines 3a and 3b for middle rolling, and then rolled on a fourth rolling mill for finishing.
It was rolled out between rolling rolls 4a and 4b, and cut into a desired size using rolls 5a and 5b with 18 cutting blades to obtain purified Chinese raw noodles RN1 of the three-layered noodles of the present invention. Next, the raw Chinese noodles RN1 are transferred to a known steaming conveyor C shown in FIG. 4b to gelatinize the surface and steam the Chinese noodles.
Obtained RN2. Next, each meal is cut by a dividing machine D, and the steamed Chinese noodles RN2 are stored in a retainer R by an automatic filling machine K. Next, the noodles were fried at about 155° C. in a known automatic frying machine FM to obtain instant Chinese noodles RN3. Now, the instant Chinese noodles RN3 of the present invention obtained through such a process are as described above.
Based on the technical concept of three-layer noodles with different organizations of the basic invention, the foaming effect of the middle layer multi-hydrated noodle dough of the present invention, and the second invention, a more porous and crumbly noodle dough is created. By the supply device,
Three-layered instant Chinese noodles having a dense structure in the surface layer and a significantly rough structure in the middle layer were obtained. Cooking Comparative Example 3 A cooking test was conducted on three items: instant Chinese noodles A obtained in Example 3, instant Chinese noodles B made by the manufacturing method of the first basic invention, and instant Chinese noodles C made by a generally known manufacturing method, and 20 people. The tasting results from the tasting panel are shown in Table 3-1 and Table-3-2.

【表】 実施例3による即席中華麺は、従来法の即席中
華麺よりも、湯もどし時間が1/3の1分間で完了
するというきわめてすぐれた即席麺を得た。 そして調理時間の短縮ばかりでなく、“火ぶく
れ”が少なく、スープ濁度もほんの僅かであり、
食感極めて優れている等の優位差が認められる
が、実施例3ならびに調理比較例3から理解され
る事柄について項目的に列記すると、次の通りで
ある。 (1) 茹で時間は、従来製法の1/3の茹で時間で、
しかも食味は腰があつて美味である。 (2) 多加水でありながら、麺の表面に“火ぶく
れ”が起きない。 (3) “火ぶくれ”がないので、食感はいわゆるダ
レルことなく、腰があつて美味である。 (4) “火ぶくれ”がないので、麺の茹で溶けがな
く、かつ調理時間が短いので、スープの濁りが
なく、透明なスープ感と、スープの呈味もよ
く、美味である。 (5) 調理茹で上げ時間の1/3で済むので、太打和
風麺のカツプスタイルも、開発可能となつた。 (6) 省エネルギー効果も大である、 等の効果が確認できた。
[Table] The instant Chinese noodles according to Example 3 were excellent in that the reheating time was completed in 1 minute, which was 1/3 of that of the conventional instant Chinese noodles. Not only does it shorten the cooking time, but there is also less ``blistering'' and the soup has only a slight turbidity.
Advantages such as extremely excellent texture are recognized, but the things understood from Example 3 and Cooking Comparative Example 3 are listed as follows. (1) The boiling time is 1/3 of the conventional method.
Moreover, the taste is firm and delicious. (2) Despite the high water content, "blistering" does not occur on the surface of the noodles. (3) Since there is no "blister", the texture is chewy and delicious without being so-called dull. (4) Since there is no "blistering", the noodles do not melt when boiled, and the cooking time is short, so the soup does not become cloudy, and the soup is clear and has a good taste, making it delicious. (5) Since the cooking time is only 1/3 of the boiling time, it has become possible to develop thick Japanese-style noodles in a cup style. (6) It was confirmed that the energy saving effect is also significant.

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

図面は、本発明の実施例を示し、第1図aは第
1番基礎発明に従つて得た三層麺において、水分
粒子が蒸発し、その痕跡に微小な空洞が発生する
過程を示す説明図であり、同図、bは第1発明に
従つて得た三層麺において、前記aと同様の過程
を示す説明図、同図cは従来公知の二層麺におい
て、多加水の生地を即席麺の構造工程たる油揚作
業を行つた場合に生じる発泡現象と火ぶくれ現象
を示したものであり、同図dは第1発明による即
席麺について、油揚作業中に生じる発泡現象を例
示した説明図、第2図aは高速ビーター瞬間混和
機の一部断面を表わした説明図、同図b,cはそ
れぞれ同図aの入口側断面図、同じく出口側断面
図、第3図は第2発明の工程説明図、第4図aは
本発明に係る即席中華麺の製造実施例としての製
造工程説明図であり、同図bは、第4図aの工程
によつて得た麺線が公知のスナツクめんの製造工
程へと導びかれて、最終製品の即席中華麺を得る
までの製造工程概要説明図である。 1a,1b,2a,2b,3a,3b,4a,
4b……圧延ロール機、1M……成形フイーダ
ー・ロール、5a,5b……切出しロール、G…
…案内部、g1,g2……短筒状部、M……麺生地、
m1,m2……麺帯、N……精製麺帯、11……電
動機、12……シリンダー状外円筒、13……ね
じり状翼付回転ビーター、14……回転軸、15
……軸受、16……小麦粉入口、17……捏水入
口、18……そぼろ生地の出口、19……カツプ
リング(軸接手)、21……掛機、23……チエ
ーン式移行装置、24……乾燥室、O1,O2,OM
……小麦粉自動計量供給装置、P1,P2,PM……
捏水定量供給ポンプ、B1,B2,BM……高速ビー
ター瞬間混和機、K1,K2……表面層となる麺生
地、KM……中間層となる麺生地。
The drawings show embodiments of the present invention, and FIG. 1a is an explanation showing the process in which water particles evaporate and minute cavities are generated in the traces of three-layer noodles obtained according to the first basic invention. FIG. 3B is an explanatory diagram showing the same process as a above in three-layer noodles obtained according to the first invention, and FIG. This figure shows the foaming phenomenon and blistering phenomenon that occur when frying, which is a structural process for instant noodles, is performed. Figure d illustrates the foaming phenomenon that occurs during the frying process for the instant noodles according to the first invention. Explanatory drawings, Fig. 2a is an explanatory drawing showing a partial cross section of the high speed beater instant mixer, Fig. 2b and c are respectively a sectional view of the inlet side and an outlet side sectional view of Fig. Fig. 4a is an explanatory drawing of the manufacturing process as an example of manufacturing instant Chinese noodles according to the present invention, and Fig. 4b is a diagram showing the noodle strings obtained by the process of Fig. 4a. is led to a known manufacturing process for snack noodles, and is a schematic explanatory diagram of a manufacturing process until instant Chinese noodles are obtained as a final product. 1a, 1b, 2a, 2b, 3a, 3b, 4a,
4b... Rolling roll machine, 1 M ... Forming feeder roll, 5a, 5b... Cutting roll, G...
...Guiding part, g1 , g2 ...Short cylindrical part, M...Noodle dough,
m 1 , m 2 ... Noodle belt, N ... Refined noodle belt, 11 ... Electric motor, 12 ... Cylindrical outer cylinder, 13 ... Rotating beater with twisted wings, 14 ... Rotating shaft, 15
... Bearing, 16 ... Flour inlet, 17 ... Water-soaking inlet, 18 ... Minced dough outlet, 19 ... Coupling (shaft joint), 21 ... Hanging machine, 23 ... Chain-type transfer device, 24 ... …Drying room, O 1 , O 2 , O M
... Flour automatic measuring and feeding device, P 1 , P 2 , P M ...
Water dispensing quantitative supply pump, B 1 , B 2 , B M ... High-speed beater instant mixer, K 1 , K 2 ... Noodle dough that will be the surface layer, K M ... Noodle dough that will be the middle layer.

Claims (1)

【特許請求の範囲】 1 圧延ロールを通過して形成せる二枚の表面層
となる麺帯相互の中間に、表面層よりも多加水で
あり、かつ該表面層よりも低蛋白なまたは弱粘着
性の麺生地を組み合わせて、表面層の圧延ロール
よりも低圧の成形フイーダー・ロールを経て、展
圧度の低い麺帯を生成し、これを中間層として挿
入することにより、三層麺となして重合し、更
に、後続する既知の各種圧延ロールおよび切出ロ
ールを経由することによつて、表面層が密で中間
層が粗となることを特徴とする生地組成体の異な
る麺の製造方法。 2 上記中間層について、表面層よりも多加水で
あり、かつ該表面層より低蛋白にして弱粘着性の
麺生地を組み合わせてなる特許請求の範囲第1項
記載の生地組成体の異なる麺の製造方法。 3 原料粉を加水混捏して三層構造体を調整する
装置と圧延、截断する装置を具備する三層麺の製
造装置において、送り込み可能なねじり付撹拌羽
根を高速回転可能に内装し、小麦粉の自動計量供
給装置と捏水の自動定量供給装置とを装備した高
速ビーター瞬間混和機3台を配置し、第1、第3
高速ビーター瞬間混和機には加水混捏した麺生地
の出口に圧延ロールが連接され、第2高速ビータ
ー瞬間混和機には多加水混捏した麺生地の出口に
低圧フイーダー・ロールが連接され、前記第2高
速ビーター瞬間混和機により調製された多加水麺
生地が前記第1、第3高速ビーター瞬間混和機に
より調製された圧延麺生地の中間に重合圧延され
るように重合圧延ロールが配置され、引続き重合
された三層麺が圧延、截断装置に送出できるよう
に配備してなる生地組成体の異なる麺の製造装
置。
[Scope of Claims] 1. Between the noodle strips forming two surface layers formed by passing through a rolling roll, a noodle strip containing more water than the surface layer and lower in protein or weaker adhesive than the surface layer. By combining different noodle doughs and passing through a forming feeder roll with a lower pressure than the rolling roll of the surface layer, a noodle strip with a low rolling pressure is produced, and this is inserted as an intermediate layer to form three-layer noodles. A method for producing noodles with a different dough composition, characterized in that the surface layer is dense and the middle layer is coarse, by polymerizing the dough and passing through various known rolling rolls and cut-out rolls. . 2. Noodles having different dough compositions according to claim 1, wherein the intermediate layer has a higher hydration content than the surface layer, and is made of a noodle dough with lower protein and weak adhesiveness than the surface layer. Production method. 3 In a three-layer noodle manufacturing device that is equipped with a device for adding water and kneading raw material flour to prepare a three-layer structure, and a device for rolling and cutting, the device is equipped with a feedable twisted stirring blade that can rotate at high speed. Three high-speed beater instant mixers equipped with an automatic metering and feeding device and an automatic fixed-quantity feeding device for mixing water are installed.
A rolling roll is connected to the high-speed beater instant mixer at the outlet of the noodle dough that has been kneaded with added water, and a low-pressure feeder roll is connected to the outlet of the noodle dough that has been kneaded with a high amount of water added to the second high-speed beater instant mixer. A polymerization rolling roll is arranged so that the highly hydrated noodle dough prepared by the high-speed beater instant mixer is polymerized and rolled between the rolled noodle dough prepared by the first and third high-speed beater instant mixers, and then polymerized. A device for producing noodles with different dough compositions, which is arranged so that the three-layered noodles can be delivered to a rolling and cutting device.
JP59189717A 1984-09-12 1984-09-12 Method and apparatus for preparation of noodles having different dough compositions Granted JPS60149350A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP59189717A JPS60149350A (en) 1984-09-12 1984-09-12 Method and apparatus for preparation of noodles having different dough compositions

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP59189717A JPS60149350A (en) 1984-09-12 1984-09-12 Method and apparatus for preparation of noodles having different dough compositions

Publications (2)

Publication Number Publication Date
JPS60149350A JPS60149350A (en) 1985-08-06
JPH0331427B2 true JPH0331427B2 (en) 1991-05-07

Family

ID=16246009

Family Applications (1)

Application Number Title Priority Date Filing Date
JP59189717A Granted JPS60149350A (en) 1984-09-12 1984-09-12 Method and apparatus for preparation of noodles having different dough compositions

Country Status (1)

Country Link
JP (1) JPS60149350A (en)

Families Citing this family (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0683644B2 (en) * 1986-03-27 1994-10-26 日清製粉株式会社 Three-layer noodle
JPH0246579U (en) * 1988-09-27 1990-03-30
JP2008259470A (en) * 2007-04-13 2008-10-30 Matsudai Soba Yoshiya:Kk Noodle and method for producing noodle
JP6215868B2 (en) * 2015-06-01 2017-10-18 さぬき麺機株式会社 Noodle making equipment

Also Published As

Publication number Publication date
JPS60149350A (en) 1985-08-06

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