JPH0239227B2 - - Google Patents

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Publication number
JPH0239227B2
JPH0239227B2 JP57054028A JP5402882A JPH0239227B2 JP H0239227 B2 JPH0239227 B2 JP H0239227B2 JP 57054028 A JP57054028 A JP 57054028A JP 5402882 A JP5402882 A JP 5402882A JP H0239227 B2 JPH0239227 B2 JP H0239227B2
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JP
Japan
Prior art keywords
drying
room
noodles
air
temperature
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
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JP57054028A
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Japanese (ja)
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JPS58170445A (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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Priority to JP57054028A priority Critical patent/JPS58170445A/en
Publication of JPS58170445A publication Critical patent/JPS58170445A/en
Publication of JPH0239227B2 publication Critical patent/JPH0239227B2/ja
Granted legal-status Critical Current

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Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B30/00Energy efficient heating, ventilation or air conditioning [HVAC]
    • Y02B30/52Heat recovery pumps, i.e. heat pump based systems or units able to transfer the thermal energy from one area of the premises or part of the facilities to a different one, improving the overall efficiency

Landscapes

  • Drying Of Solid Materials (AREA)
  • Noodles (AREA)

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、乾麺の製造、特に多加水麺の落麺を
防止し、省エネルギーを計り、活性を持続させ、
かつ製造管理が容易なる麺の乾燥方法及びその装
置に関するものである。 〔従来の技術〕 従来からの一般的な乾麺の製造工程を大別する
と、(A)製麺工程、(B)乾燥工程、(C)裁断、計量、包
装を行う仕上げ工程に分けられる。 通常、乾麺は、小麦粉に食塩水を加えて混ぜ合
せ、これをロールで圧延して麺帯にし、さらに切
出機で細い麺線となし、適当な乾燥方法で乾燥さ
せているのが現状である。 従来の一般的な乾燥方法は、麺線掛機にかかつ
た麺をしばらく日陰干しをしてから、屋外で天日
乾燥を行うとか、熱風または蒸気配管によつて乾
燥室を高温化して乾燥させている。 しかしながら、天日乾燥を急激に行うと麺がも
ろく折損しやすくなり、縦割れを生じたり、中心
部分の乾燥が不充分に終ることがあるので、強い
日射しを避け、また、一時的に行わずに時々日陰
干しをして、水分の均一化をはかる必要があり、
充分な配慮が要請されている。 このように、天日乾燥は不規則な天候の支配を
受けやすく、時間のロスをもたらすだけでなく、
均質な乾麺の量産に適さない欠点があつた。 また、前記した熱風または蒸気乾燥は、ある程
度進歩したものではあるものの、依然として作業
員の“勘”とか、簡単な温湿度計に頼つて乾燥操
作を行う関係上、ややもすると作業ミスが起こり
やすい難点があつた。 また、急速乾燥の場合は、縦割れを生じたり、
日なた臭を帯びたりするし、一方では、乾燥不足
の場合にカビ臭を起こしやすいものである。 しかも現在の日本農林規格(JAS)によると、
乾麺については厳しい規格が制定され、干しそ
ば、干しうどん、干しひらめん等のそれぞれにつ
いて定義を定め、それら製品の水分含量の最高が
定められ、特に、麺線の縦割れ、切損、ひび割れ
等は重要で、また外観、湯煮時の食味その他が定
められている。 こうした乾麺の規格(JAS)に合格し、それを
満足するに当たつて、技術的に最も難しいもの
は、すでに述べてきた乾燥工程であり、この工程
の良否が品質を決定し、取引上はもとより規格
(JAS)の合否を左右することになる。 しかるに、これほど重要であるにもかかわら
ず、前記乾燥方式が旧態依然として実施されてお
り、前述した問題点を抱えているのが現状であ
る。 そのため、ひとたび前記のごときクレーム事故
が発生すると、それが大量生産されたものである
場合には、その不良品化が由々しい問題であり、
その根本的な解決が強くのぞまれていた。 〔発明が解決しようとする問題点〕 発明者は永年研究の結果、前記問題点を解決
し、後記する効用をもたらす『乾麺の活性持続乾
燥方法およびその装置』なる麺の乾燥方法および
その装置の発明に成功した。 すなわち、該発明は、従来の天日乾燥、熱風ま
たは蒸気乾燥等による乾燥手段に代るものであつ
て、それは先に発明者が開示した特公昭56−
42255号公報(乾麺の活性持続乾燥方法およびそ
の装置。以下、関連先行技術という。)にその技
術思想を示し、従来法に比較して、極めて進歩し
た乾燥法であるが、関連先行技術にも解決すべき
問題点を知見したものである。 すなわち、 関連先行技術に間載の第1乾燥室の乾燥条件
は、室温30〜35℃、相対湿度70%以下の条件で
あるため、第1乾燥室に入る生麺は、含有水分
が最も多い場合(食味のよい乾麺を得るために
は、手打うどんと同様な加水率50%が必要であ
る)、このように高温下にある環境条件は、い
わば真夏の温度に相当するため、麺は軟弱とな
り、伸長して、いわゆるダレ(弛れ)を生じて
落麺を起こし易い欠点があつた。 次に、関連先行技術にも、その名称に「活性
持続」なる表現を用いているが、この活性持続
とは2つの意義を有し、 (a) 物理的には、生麺の乾燥が進行しても“縦
割れ”や“麺線のダレ”などの物性変化がな
く、すなわち物性が活きている状態を持続す
ることを言い、 (b) また、化学的には、小麦粉中の蛋白質が腐
敗することなく加水分解されることにより遊
離アミノ酸の増加などの呈味効果が活性化す
る結果、すなわち“熟成効果”が期待される
ことを意味するものである。 しかし、関連先行技術は、第1乾燥室の温度が
30〜35℃と、同技術以前の極めて高温とすること
を条件とする従来法に比べれば、比較的低温であ
るが、美味しい多加水麺製造の場合、初期乾燥工
程においての“麺線のダレ”による“落麺”と、
初期乾燥工程が30〜35℃といわば真夏の温度のた
め、生菌数の増加が多く、麺の“熟成効果”を阻
害するおそれがあつた。 〔問題を解決するための手段〕 そこで、発明者は、上記の問題点を解決するた
めの手段として、関連先行技術と比較した場合、
(a)物理的効果としては、40〜50%程度の多加水で
製麺する場合、関連先行技術の開示した“縦割れ
防止”を保持し、しかも、“落麺防止効果”をも
たらすためには、乾燥室内は、特に麺線が伸長し
やすいことを考慮して、比較的低温度である20〜
22℃の温度条件とすることにより麺線の伸長を防
止できる。しかし、この温度設定には精密な温度
管理が必要で、温度誤差2℃以内が好ましい。そ
こで、20〜22℃なる温度誤差が2℃以内でもクリ
ヤーできる精密な温度管理、および後述する温湿
度のコントロールが可能な空気調整装置を使用す
ることによつて、一定条件の温湿度を設定でき、
意図したとおりの目的を達成することができる発
明を完成したのである。更に、(b)化学的活性効果
としては、関連先行技術においては、第1乾燥室
の温度が30〜35℃の高温のため、加水分解による
遊離アミノ酸の増加は短時間で進むものの、生菌
数の増加が多くなりやすく、いわゆる、熟成の本
旨たる“腐敗することなく、加水分解による遊離
アミノ酸等の呈味成分を増加せしめる”効果が相
殺されたので、室温30℃を下まわる、20〜22℃な
る精密な温度管理が可能な方法及び装置を採用す
ることにより、従来法に比べ低温のため、“腐敗
進行のない熟成効果”を増大させ、かつ、相対湿
度を50〜52%になるよう設定することにより、効
率のよい乾燥進行も行い得ることを種々実験の結
果、知見したものである。 その方法・趣旨は、空気調整装置による乾燥方
式を採用し、特殊かつ漸新な条件のエアーコント
ロールを行うことによつて、特に、多加水の麺生
地よりなる最初の麺線を落麺することなく、か
つ、省エネルギーを計り麺生地を活性のまま安定
乾燥させ、縦割れ、カビ臭等がなく、食味佳良に
して品質が均一かつ優良な乾麺を得ると共に、乾
燥工程における落麺防止と、活性持続の可能な乾
燥方法及びその装置の提供を目的とするものであ
る。 上記の目的を達成するための本発明の具体的な
構成手段は、次のとおりである。 区分せる第1〜第4乾燥室の各乾燥工程および
仕上作業工程において、第1乾燥室では室温20〜
22℃で相対湿度50〜52%を保つように、調整空気
にてコントロールしつつ一部の排気を行い、次い
で以後は排気を行うことなく、第2乾燥室では室
温27〜30℃で相対湿度72〜75%、第3乾燥室では
室温25〜28℃で相対湿度68〜72%、第4乾燥室で
は室温25〜26℃で相対湿度65〜70%の各条件で、
加温、加湿、減温、減湿のもとにコントロールさ
れ、これら第1〜第4乾燥室を常法により製造さ
れた生麺を棒材に懸架させながら天井扇下に順次
移行せしめ、さらに前記第4乾燥室を経た麺を室
温20〜25℃で相対湿度60〜68%の条件下で仕上室
における仕上作業工程を経て乾燥せしめることを
特徴とする落麺を防止し、活性を持続させ、かつ
製造管理が容易なる麺の乾燥方法であり、 また、第2発明は、乾燥室を区分して第1〜第
4乾燥室とし、第1乾燥室に室温20〜22℃で相対
湿度50〜52%に保つ空気調整装置を設けると共
に、出口の排気の一部を前記空気調整装置へ還流
する排気ダクトを設け、第2乾燥室では室温27〜
30℃で相対湿度72〜75%、第3乾燥室では室温25
〜28℃で相対湿度68〜72%、第4乾燥室では室温
25〜26℃で相対湿度65〜70%の条件になるよう
に、各乾燥室に加温、加湿、減温、減湿の4段階
のもとにコントロールされる空気調整装置ならび
に天井扇をそれぞれ設け、これら乾燥室内を順次
連通する麺の移行装置を設けると共に、各乾燥室
の連通部を隔壁で区分し、さらに室温20〜25℃で
相対湿度60〜68%にコントロールされる仕上室を
前記第4乾燥室に連設せしめたことを特徴とする
落麺を防止し、活性を持続させ、かつ製造管理が
容易なる麺の製造装置である。 〔作用〕 本発明においては、 第1乾燥室の乾燥工程では、 含水成分の多い初期生麺のダレによる伸長、
落麺を防止し、活性を持続させ、かつ省エネル
ギーを計つて乾燥を進行させるために、室温20
〜22℃なる精密な温度管理が可能で、相対湿度
50〜52%を保つよう、気象条件に対応できる調
温・調湿装置を使用することにある。そして加
減温、加減湿、排気、及び一部リターンされた
空気の4段階のもとに、連続的に組合わせた調
整空気にて、自動コントロールされる環境下
で、常法により製造された生麺を懸架させなが
ら、天井扇下に順次移行させて、既知の高温下
における乾燥よりも低温湿化させること、 第2乾燥室以降の乾燥工程では、 前記の乾燥工程に引続いて、それ以降の第
2ないし第4乾燥室、及び引続き裁断、計量、
包装を行う仕上室においては、室内空気を外部
に排出することなく、第2乾燥室では、室温27
〜30℃、相対湿度72〜75%、第3乾燥室では室
温25〜28℃、相対湿度68〜72%、第4乾燥室で
は室温25〜26℃、相対湿度65〜70%の各条件
で、加湿、加温、減温、減湿の4段階のもとに
コントロールされ、かつこれら乾燥室内の環境
下において、前記生麺を懸架させながら天井扇
下に順次移行せしめ、さらに、前記工程を経た
麺について、室20〜25℃、相対湿度60〜68℃の
条件下で、裸麺を一定寸法に裁断、計量、包装
等を行う仕上室を経て、乾麺を製造するもので
ある。 〔実施例〕 まず、本発明の麺の乾燥装置を図面について説
明すると、次のとおりである。 図面は実施の一例たる乾麺工場の設備、機器の
配置概略を示し、第1図は第1、第2乾燥室、第
2図は第3、第4乾燥室、第3図は仕上室の各平
面図、第4図は第1図ないし第3図A−A線断面
図、第5図は第1図ないし第3図のB−B線断面
図であり、第6図aは第1乾燥室の要部断面部分
図で、加減温、加減湿、排気および一部リターン
された空気の4段階を連続的に組み合わせた空気
調整方式を示し、第6図bは第2ないし第4乾燥
室の要部断面部分図で、加温、加湿、減温、減湿
の4段階を組み合わせた循環式のリサイクル空気
調整装置による乾燥方式を示すものである。 図示例は製麺室1及び第1、2乾燥室DR1
DR2を3階に、第3、4乾燥室DR3,DR4を2階
に、仕上室兼包装室(以下、仕上室という。)2
を1階に設けた装置例であり、G1は懸架された
状態のまま、第2乾燥室DR2から第3乾燥室DR3
へ移行するための乾麺M2の下降案内装置であり、
G2は第4乾燥室DR4から包装室2へと導く下降
案内装置である。 3は各乾燥室DR1,DR2,DR3,DR4に設けら
れた天井扇、4a,4bは排気用送風機、5aは
空気調整装置、5b,5c,5d,5eはそれぞ
れパツケージ型エアーコンデイシヨナ、5fは冷
水装置、6a,6b,6c,6d,6eは給気ダ
クト、7はその吹出口である。8a,8bは排気
ダクト、9はその吸込口である。10は乾燥空
気、11は調温、調湿した空気である。12は電
動ダンパである。 図中、Lは移行装置、M1は生麺、M2は乾燥さ
れるに至るまでの麺を指し、E1は棒材(篠竹等)
14に懸架された状態のまま第2乾燥室DR2から
第3乾燥室DR3へ移行するための麺M2の下降出
口、E2は第4乾燥室DR4から仕上室2へ移行する
ための下降出口を、15は各室の出入口をそれぞ
れ示す。また、13はペア・ガラス、16は露点
温度検出器、17は指示調節計、18は挿入型温
度調節器(比例式)、19は蒸気用電動弁、20
は室内型温度調節器(比例式)、21はエアーフ
イルター、22はモジユトロールモータ、Fはフ
アン、HCは加熱コイル、CCは冷水用冷却コイ
ル、SSは蒸気スプレー式加湿器、DXは直膨冷却
器、COは圧縮器、Cは冷却水、Pは循環ポンプ、
Wは屋外に排出されるドレンを示す。 次に、上記実施例に基づき、図面を参照しなが
ら本発明を更に詳しく説明すると、3階に設定し
た製麺室1で製造された生麺M1は多数の棒材1
4に懸架され、移行装置Lにより第1乾燥室DR1
に入る。 生麺M1は、乾燥室内に配設したチエーンまた
はハンガー式の移行装置Lによつて、第1乾燥室
DR1から第2乾燥室DR2、2階の第3乾燥室DR3
から第4乾燥室DR4へと順次巡行し、乾燥され
て、1階の仕上室2へと移行する。 各乾燥室の天井下には、既知の天井扇3が適宜
数取付けられ、各乾燥室内の空気を攪拌して乾燥
効用を促進している。 第1乾燥室DR1には、温度調節器と連動する蒸
気自動弁を有する加熱コイルHC、自動制御機器
B及び冷水装置5fに連結する冷水コイルを備え
た空気調整装置5aによつて、乾燥空気10が給
気ダクト6a、天井吹出口7より乾燥室DR1の天
井部より吹出されている。 また第1乾燥室DR1には床上に吸込口9を有す
る排気ダクト8a,8bが設けられ、それぞれに
排気用フアン4a,4bが設置されている。排気
ダクト8bは分岐し、空気調整装置5aとフアン
4bにそれぞれ温度調節器と連動する電動ダンパ
12を介して連結されている(第6図a)。第1
乾燥室DR1内の空気の50〜70%は排気ダクト8a
から屋外に排出され、第1乾燥室出口端側の空気
は排気ダクト8bを経て電動ダンパ12の調整下
に一部は空気調整装置に供給され、残部は送風機
4bにより屋外に排出される。 第1乾燥室は、空気調整装置5aにより外気と
導出空気が適宜割合に混合され調温、調湿下に送
給され、従来実施されていた前述の極めて高い室
温を下まわる20〜22℃という精密な温度管理を可
能として、相対湿度50〜52%に保たれる。上記室
内空気の一部調整量を循環することにより外気の
温度及び湿度が変動しても所定条件が容易に保持
され、しかも空気調整装置5aの負荷が低減され
て所要エネルギーの節減が計られる。 ところで、発明者が先に開示した関連先行技術
(特公昭56−42255号公報)に示される第1乾燥室
の乾燥条件の場合においては、前記のとおりの欠
点が未解決のままであつた。 しかるに、本発明に従えば、第1乾燥室の室温
は、精密な温度としての20〜22℃と低温化が可能
なため、しかもまた相対湿度も50〜52%に調整す
るので、前記した麺の伸長がなくなり、従つて落
麺防止の効果が大となるものである。 これによつて、乾麺製造の生産性並びに歩留ま
りが向上し、乾麺の製造上、量産に資することに
なるものである。 以上述べた事柄に関し、敷行して具体的に述べ
ると次のとおりである。すなわち、外部の気象状
況と、それに対応する本発明の第1乾燥室におけ
る落麺防止の効果と、関連先行技術の中でのべた
第1乾燥室の乾燥方法のそれとを比較した場合、
大きな相違をもたらしているのである。 そこで、前記関連先行技術において提案された
「第1乾燥室では、室温30〜35℃、相対湿度70%
以下になるよう、加熱乾燥空気を生成し、生麺よ
り蒸発されて高温になつた空気を屋外に排出す
る」とある方法による場合と、本発明による方法
が、いかなる気象状況にあつても適合し、また多
加水麺生地のダレ、すなわち麺線の伸長による落
麺が防止できるかについて、機器の作動原理の説
明と共に、そして省エネルギーに寄与するという
画期的な第1乾燥室の効果について以下順を追つ
て説明する。 まず、本発明装置として採用された機器の作動
原理に関し、第5図ならびに第6図を参考に、外
部の気象条件により、いかに本機器が作動するか
を説明する。 (A) 夏期における温度35℃、湿度70%の外気条件
の場合。 空気調整装置5aの入り口よりフアンFによ
り導入された外気は、エアーフイルター21に
より濾過され、露点温度検出器16より、冷水
装置5f、循環ポンプP及び冷水用冷却コイル
CCによつて温度20〜22℃で相対湿度50〜52%
に減温、減湿され、給気ダクト6a、吹出口7
から室内に放出される。 第1図に示した製麺室1より導入された生麺
は、この調整空気により水分が放出され、多湿
化された空気は、第5図に示す如く排気ダクト
8a、フアン4aにより屋外に排気される。 次に、第1乾燥室終末部分の空気は、排気ダ
クト8bを経て、室内型温度調節器(比例式)
20と連動する電動ダンパ12で自動開閉され
(モジユトロールモーター22によつて作動さ
れる)、一部の空気は、空気調整装置5aに還
元され、残部の空気はフアン4bによつて屋外
に排出される。第1乾燥室の空気調整装置5a
により、外気と室内空気が適宜に混合され、調
温、調湿下で送給されて、室温を20〜22℃なる
精密な温度管理を可能としながら、湿度50〜52
%に保たれるので落麺防止に役立つこととな
る。 以上の場合において、室内空気の一部を再循
環させることにより、導入外気の温、湿度条件
が変動しても、室内空気条件は大きく変動する
ことなく、かつ空気調整装置5aの加熱コイル
HCの負荷が軽減され、省エネルギーが計られ
る。 (B) 冬期における外気温度3℃、湿度25%の外気
条件の場合。 空気調整装置5aの入口よりフアンFにより
導入された空気は、エアーフイルター21によ
り濾過され、空気調整装置5aに組込まれた加
熱コイルHCにより、加温され、給気ダクト6
a、吹出口7から室内に放出される。 なお、加熱コイルHCに流入される蒸気量
は、給気ダクト6aの内部に組込まれた挿入型
温度調節機18と、これに連動する蒸気用電動
弁19により、自動調節される。 製麺室1より導入された生麺M1は、前記調
整空気により水分が放出され、多湿化された空
気は排気ダクト8a、送風機4aにより屋外に
排出される。 次に、第1乾燥室終末部分の空気は、排気ダ
クト8bを経て室内型温度調節器20と連動す
る電動ダンパ12で自動開閉され、一部の空気
は空気調整装置5aに還元され、残部の空気は
送風機4bによつて、屋外に排出される。な
お、冬期においては、空気調整装置5aの加熱
コイルHCの能力を十分に保持することによつ
て、所要の室内条件を適正に保つことができ
る。しかも、冬期のため冷水コイルCCの作動
は少なく、そのため電力消費の節減が計れる。 (C) 春期または秋期の場合。 外気条件が、稼動日の気象条件により、第1
乾燥室の精密なる温度たる温度20〜22℃、湿度
50〜52%の条件に近い場合は、前述した夏期な
らびに冬期における作動順序と同様であるが、
冷水装置5f、循環ポンプP、冷水コイルCC
及び加熱コイルHCの稼動率は、夏期及び冬期
よりも低下し、そのためエネルギーの軽減は最
大となり、四季を通じて、この期間はもつとも
省エネルギーが計れることになる。この点は、
既知の高温乾燥で常時行なう乾燥方法とは大き
く異なる特徴である。 次に、第2乾燥室DR2、第3乾燥室DR3、第
4乾燥室DR4にはそれぞれ加温、加湿、減温、
減湿機能を有するパツケージ型エアーコンデイ
シヨナ5b,5c,5dを設け、天井部に設定
した給気ダクト6b,6c,6dの複数吹出口
7より調温、調湿した空気11を吐出させる。
乾燥室の中央部にはそれぞれ既知の温度調節
器、湿度調節器が設置され、前記送給空気によ
り第2乾燥室DR2内は室温27〜30℃、相対湿度
72〜75%、第3乾燥室DR3内は室温25〜28℃、
相対湿度68〜72%、第4乾燥室DR4内は室温25
〜26℃、相対湿度65〜70%の温湿度条件に調整
される。 第2、第3、第4乾燥室のパツケージ型エア
ーコンデイシヨナ5b,5c,5dは、加熱コ
イル、蒸気スプレー式加湿器等を組み込み、自
動制御によつて加温、加湿減温、減湿が行なわ
れるパツケージ型のエアーコンデイシヨナであ
る。 仕上室2は、パツケージ型エアーコンデイシ
ヨナ5e及び給気ダクトeが設置され室温20〜
25℃、相対湿度60〜68%にエアコントロールさ
れている。 本発明によれば、製麺装置で製造され棒材14
に懸架された生麺M1は、移行装置Lにより乾燥
室内を移動し、第1乾燥室において精密な温度管
理としての室温20〜22℃、相対湿度50〜52%に室
内を維持するように天井吹出口7より調温、調湿
された空気の吹出す第1乾燥室DR1内を麺道ライ
ン(乾燥工程下にある麺の通過する直下範囲の通
路を指し、作業員等の歩行通路と峻別した帯状の
行程部分)を巡行して水分を蒸発させ、水分約40
%から30%程度の半乾、中生麺になる。 本発明者の種々の実験によれば、麺の乾燥は、
上記第1乾燥室の乾燥条件で水分約30%までは前
述の縦割れ、亀裂を起こすことがなく、素早い足
止めで、生麺の伸長を防止し、第1乾燥を終了さ
せるので落麺が防止される特徴を有するものであ
る。 第2乾燥室において、前記の素早い足止めによ
り得た半乾、中生麺が、室温27〜30℃、相対湿度
72〜75%の第2乾燥室DR2で縦割れ、亀裂の生じ
ない乾麺を得るための第2の乾燥工程が行なわれ
る。 この工程は肌理細かい乾燥が必要であり、前記
パツケージ型エアーコンデイシヨナ5bにより常
時27〜30℃、相対湿度72〜75%にコントロールさ
れた第2乾燥室内を巡行した麺M2は、第2乾燥
室DR2入口における水分約30%から出口における
水分22.5%程度まで低下する。 第3乾燥室において前記第1、第2乾燥室を経
由した麺M2は第2乾燥室DR2と同様の空気調整
装置5cにより室温25〜28℃、相対湿度68〜72%
に調整された第3乾燥室DR3で麺の水分が16%程
度まで乾燥される。 第4乾燥室において、前記第1、第2、第3乾
燥室を経由した麺M2は前記第2乾燥室DR2と同
様の空気調整装置5dにより室温25〜26℃、相対
湿度65〜70%に調整された第4乾燥室DR4内で麺
の水分が13%程度に乾燥される。 第4乾燥室DR4を出た麺M2は、仕上室を兼ね
た包装室2へ移送され、20〜25℃、相対湿度60〜
68%の条件下で、適宜の包装材にて所望形態のも
とに最終製品たる乾麺として仕上げられる。 なお、本発明の技術思想に従えば、前記第1な
いし第4乾燥室の構成に代えて、第1ないし第3
乾燥室と設計変更することも容易である。 上記本発明の装置の好ましい条件およびその設
備機器の概要は次の第1表に示される。
[Industrial Application Field] The present invention aims to produce dried noodles, especially to prevent the dropping of noodles with high water content, to save energy, to maintain activity,
The present invention also relates to a method for drying noodles and an apparatus therefor, which facilitates manufacturing control. [Prior Art] The conventional dry noodle production process can be roughly divided into (A) noodle making process, (B) drying process, and (C) finishing process of cutting, measuring, and packaging. Normally, dried noodles are made by adding salt water to flour, mixing it, rolling it into noodle strips with rolls, cutting it into thin noodle strips with a cutting machine, and drying it using an appropriate drying method. be. Conventional general drying methods include drying the noodles on a noodle string hanging machine in the shade for a while and then drying them outdoors in the sun, or heating the drying room to a high temperature with hot air or steam piping. I'm letting you do it. However, if you dry the noodles too quickly in the sun, they may become brittle and break easily, causing vertical cracks or drying in the center may be insufficient, so avoid strong sunlight and avoid drying the noodles temporarily. It is necessary to dry it in the shade from time to time to even out the moisture content.
Sufficient consideration is required. In this way, solar drying is susceptible to irregular weather conditions, which not only results in a loss of time, but also
It had a drawback that it was not suitable for mass production of homogeneous dried noodles. In addition, although the hot air or steam drying methods described above have made some progress, they still rely on the "intuition" of workers and simple thermohygrometers for drying operations, making it easy for work errors to occur. There was a problem. In addition, in the case of rapid drying, vertical cracks may occur,
It can smell like sunlight, and on the other hand, if it's not dry enough, it can easily develop a musty smell. Moreover, according to the current Japanese Agricultural Standards (JAS),
Strict standards have been established for dried noodles, defining the respective definitions for dried soba noodles, dried udon noodles, dried flounder noodles, etc., and specifying the maximum moisture content of these products. is important, and the appearance, taste when boiled, and other aspects are determined. In order to pass and satisfy these dried noodle standards (JAS), the most technically difficult step is the drying process, which I have already mentioned.The quality of this process determines the quality, and the commercial Of course, it will determine whether the standard (JAS) is passed or not. However, despite being so important, the drying method is still being practiced in an outdated manner, and currently suffers from the problems described above. Therefore, once a complaint like the one mentioned above occurs, if the product is mass-produced, it becomes a serious problem that the product becomes defective.
There was a strong desire for a fundamental solution. [Problems to be Solved by the Invention] As a result of many years of research, the inventor has developed a method and device for drying noodles, ``method and device for drying dried noodles with sustained activity,'' which solves the above-mentioned problems and provides the benefits described below. succeeded in inventing it. That is, the invention replaces the conventional drying means such as solar drying, hot air drying, or steam drying, and it is based on the method disclosed in Japanese Patent Publication No. 1983-1992, which was previously disclosed by the inventor.
The technical concept is disclosed in Publication No. 42255 (method and device for drying dried noodles with continuous activity. Hereinafter referred to as related prior art), and although it is a drying method that is extremely advanced compared to conventional methods, there are also some related prior art. This is the knowledge of the problems that need to be solved. In other words, since the drying conditions of the first drying chamber mentioned in the related prior art are a room temperature of 30 to 35°C and a relative humidity of 70% or less, the raw noodles entering the first drying chamber have the highest moisture content. (In order to obtain delicious dried noodles, a water addition rate of 50% is required, which is the same as for hand-made udon noodles.) These high-temperature environmental conditions correspond to midsummer temperatures, so the noodles become soft. This has the disadvantage that the noodles tend to elongate and cause so-called sag (looseness), resulting in falling noodles. Next, related prior art also uses the expression "sustaining activity" in its name, but this "sustaining activity" has two meanings: (a) Physically, the drying of raw noodles progresses; (b) Also, chemically, the protein in flour This means that by being hydrolyzed without spoilage, flavor effects such as an increase in free amino acids are activated, that is, a "ripening effect" is expected. However, in the related prior art, the temperature of the first drying chamber is
The temperature is 30-35℃, which is relatively low compared to the conventional method that required an extremely high temperature prior to this technology. “Rachimen” by “
Because the initial drying process was carried out at temperatures of 30 to 35 degrees Celsius, comparable to midsummer temperatures, the number of viable bacteria increased significantly, which could impede the "ripening effect" of the noodles. [Means for Solving the Problem] Therefore, as a means for solving the above problems, the inventor has proposed the following when compared with the related prior art:
(a) In terms of physical effects, when making noodles with a high water content of about 40 to 50%, it is possible to maintain the "prevention of vertical cracking" disclosed in related prior art, and also to bring about the "effect of preventing falling noodles". The temperature inside the drying room is relatively low, from 20 to
By setting the temperature condition to 22°C, elongation of the noodle strings can be prevented. However, this temperature setting requires precise temperature control, and a temperature error of 2° C. or less is preferable. Therefore, by using precise temperature control that can clear temperature errors of 20 to 22 degrees Celsius even within 2 degrees Celsius, and by using an air conditioning device that can control temperature and humidity (described later), it is possible to set temperature and humidity under certain conditions. ,
They have completed an invention that can achieve the intended purpose. Furthermore, as for the (b) chemical activity effect, in the related prior art, the temperature of the first drying chamber is as high as 30 to 35°C, so although the increase in free amino acids due to hydrolysis progresses in a short time, viable bacteria The number tends to increase significantly, and the so-called effect of aging, which is ``increasing flavor components such as free amino acids through hydrolysis without spoiling'', is offset, so when the temperature is lower than 30℃, 20~ By adopting a method and equipment that can precisely control the temperature at 22℃, the temperature is lower than that of conventional methods, increasing the ``ripening effect without progressing spoilage,'' and keeping the relative humidity at 50-52%. As a result of various experiments, it has been found that by setting the drying temperature as described above, efficient drying can be carried out. The method and purpose of this method is to use a drying method using an air conditioning device and perform air control under special and progressive conditions to drop the first noodle string made of noodle dough with a high amount of water. It is possible to stably dry the noodle dough while keeping it active while saving energy, and to obtain dried noodles with good taste, uniform quality, and no vertical cracks or mold odor, and to prevent noodles from falling in the drying process. The object of the present invention is to provide a sustainable drying method and device. The specific configuration means of the present invention for achieving the above object are as follows. In each drying process and finishing work process in the divided first to fourth drying rooms, the room temperature in the first drying room is 20 to
In order to maintain a relative humidity of 50 to 52% at 22℃, a portion of the air is evacuated while controlling it with conditioned air.Then, without further evacuation, the relative humidity is maintained at a room temperature of 27 to 30℃ in the second drying room. 72 to 75%, the third drying room has a room temperature of 25 to 28°C and a relative humidity of 68 to 72%, and the fourth drying room has a room temperature of 25 to 26°C and a relative humidity of 65 to 70%.
Controlled under heating, humidification, temperature reduction, and dehumidification, these first to fourth drying chambers are sequentially moved under a ceiling fan while the raw noodles produced by conventional methods are suspended on rods, and then The noodles that have passed through the fourth drying chamber are dried through a finishing process in a finishing chamber at a room temperature of 20 to 25°C and a relative humidity of 60 to 68% to prevent falling noodles and maintain activity. In addition, the second invention is a method for drying noodles that facilitates manufacturing control, and the second invention is such that the drying chamber is divided into first to fourth drying chambers, and the first drying chamber is heated at a room temperature of 20 to 22°C and a relative humidity of 50°C. In addition to providing an air conditioning device to maintain the air temperature at ~52%, an exhaust duct is also provided to recirculate a portion of the exhaust gas from the outlet to the air conditioning device.
Relative humidity 72-75% at 30℃, room temperature 25% in the third drying room
~28℃ and relative humidity 68-72%, room temperature in the fourth drying room
Each drying room is equipped with an air conditioning device and a ceiling fan that are controlled in four stages: heating, humidification, temperature reduction, and dehumidification, to maintain conditions of 25 to 26℃ and relative humidity of 65 to 70%. In addition to providing a noodle transfer device that sequentially communicates these drying chambers, the communication section of each drying chamber is divided by a partition wall, and a finishing chamber that is controlled at a room temperature of 20 to 25 degrees Celsius and a relative humidity of 60 to 68% is provided. This is a noodle manufacturing device that prevents dropped noodles, maintains activity, and facilitates manufacturing control, characterized in that the device is connected to a fourth drying chamber. [Function] In the present invention, in the drying process in the first drying chamber, the initial raw noodles with a high water content are elongated due to sag,
In order to prevent noodles from falling, maintain their activity, and save energy, drying should be done at room temperature of 20°C.
Precise temperature control of ~22℃ and relative humidity
The goal is to use temperature and humidity control equipment that can adapt to weather conditions to maintain a temperature of 50 to 52%. The raw material is produced using conventional methods in an automatically controlled environment using conditioned air that is continuously combined in four stages: temperature control, humidification, exhaust air, and partially returned air. While suspending the noodles, the noodles are sequentially moved under a ceiling fan to be moistened at a lower temperature than the known drying at high temperatures. 2nd to 4th drying room, and subsequent cutting, weighing,
In the finishing room where packaging is performed, indoor air is not discharged to the outside, and the second drying room maintains a room temperature of 27°C.
~30℃, relative humidity 72-75%; in the third drying room, room temperature 25-28℃, relative humidity 68-72%; in the fourth drying room, room temperature 25-26℃, relative humidity 65-70%. , the raw noodles are suspended and moved under the ceiling fan in sequence under the four-stage environment of humidification, heating, temperature reduction, and dehumidification in the drying room environment, and the above steps are further carried out. The dried noodles are passed through a finishing room where the naked noodles are cut to a certain size, weighed, packaged, etc. under conditions of a room temperature of 20 to 25°C and a relative humidity of 60 to 68°C to produce dried noodles. [Example] First, the noodle drying apparatus of the present invention will be described with reference to the drawings. The drawings schematically show the layout of equipment and equipment in a dry noodle factory, which is an example of implementation. A plan view, FIG. 4 is a sectional view taken along the line A-A in FIGS. 1 to 3, FIG. 5 is a sectional view taken along the line B-B in FIGS. 1 to 3, and FIG. This is a partial cross-sectional view of the main part of the chamber, showing an air adjustment system that continuously combines four stages of temperature control, humidification and dehumidification, exhaust air, and partially returned air. Figure 6b shows the second to fourth drying chambers. This is a partial sectional view of the main part of the drying method using a circulating air conditioning device that combines four stages of heating, humidification, temperature reduction, and dehumidification. The illustrated example is the noodle making room 1 and the first and second drying rooms DR1 ,
DR 2 on the 3rd floor, 3rd and 4th drying rooms DR 3 and DR 4 on the 2nd floor, finishing room and packaging room (hereinafter referred to as finishing room) 2
This is an example of a device in which G1 is installed on the first floor, and G1 remains in a suspended state and is connected from the second drying room DR2 to the third drying room DR3 .
It is a descending guide device for dry noodles M2 to move to
G 2 is a descending guide device leading from the fourth drying chamber DR 4 to the packaging chamber 2. 3 is a ceiling fan installed in each drying room DR 1 , DR 2 , DR 3 , DR 4 , 4a and 4b are exhaust blowers, 5a is an air conditioning device, and 5b, 5c, 5d, and 5e are packaged air conditioners, respectively. The issuer, 5f is a chilled water device, 6a, 6b, 6c, 6d, 6e are air supply ducts, and 7 is its outlet. 8a and 8b are exhaust ducts, and 9 is an inlet thereof. 10 is dry air, and 11 is air whose temperature and humidity have been controlled. 12 is an electric damper. In the figure, L refers to the transfer device, M 1 refers to the raw noodles, M 2 refers to the noodles until they are dried, and E 1 refers to the bar material (such as Shinotake).
A downward exit for the noodles M2 to move from the second drying room DR2 to the third drying room DR3 while being suspended in the drying room E2, and E2 to move from the fourth drying room DR4 to the finishing room 2 15 indicates the descending exit of the chamber, and 15 indicates the entrance and exit of each chamber. In addition, 13 is a pair of glass glasses, 16 is a dew point temperature detector, 17 is an indicating controller, 18 is an insertion type temperature controller (proportional type), 19 is an electric valve for steam, 20
is an indoor temperature controller (proportional type), 21 is an air filter, 22 is a modular troll motor, F is a fan, HC is a heating coil, CC is a cold water cooling coil, SS is a steam spray humidifier, DX is a direct Expansion cooler, CO is compressor, C is cooling water, P is circulation pump,
W indicates drain discharged outdoors. Next, to explain the present invention in more detail based on the above embodiment and referring to the drawings, the raw noodles M 1 manufactured in the noodle making room 1 set on the third floor are made of a large number of bars 1.
4, and the first drying chamber DR 1 is suspended by the transfer device L.
to go into. The raw noodles M1 are transferred to the first drying chamber by a chain or hanger type transfer device L installed in the drying chamber.
DR 1 to 2nd drying room DR 2 , 3rd drying room DR 3 on the 2nd floor
From there, it goes to the fourth drying room DR 4 , where it is dried, and then moves to the finishing room 2 on the first floor. An appropriate number of known ceiling fans 3 are installed under the ceiling of each drying chamber to agitate the air in each drying chamber and promote the drying effect. In the first drying room DR 1, dry air is supplied to the first drying room DR 1 by an air conditioning device 5a equipped with a heating coil HC having an automatic steam valve linked to a temperature controller, an automatic control device B, and a chilled water coil connected to a chilled water device 5f. 10 is blown out from the ceiling of the drying room DR 1 through the air supply duct 6a and the ceiling outlet 7. Further, the first drying room DR 1 is provided with exhaust ducts 8a and 8b having suction ports 9 on the floor, and exhaust fans 4a and 4b are installed in each of them. The exhaust duct 8b is branched and connected to the air conditioning device 5a and the fan 4b via electric dampers 12 that operate in conjunction with temperature regulators (FIG. 6a). 1st
50-70% of the air in drying room DR 1 is exhausted from exhaust duct 8a
Part of the air on the exit end side of the first drying chamber is supplied to the air conditioning device through the exhaust duct 8b under the control of the electric damper 12, and the remaining part is discharged outdoors by the blower 4b. In the first drying room, outside air and discharged air are mixed in an appropriate ratio by an air conditioning device 5a, and the temperature and humidity are controlled. The relative humidity is maintained at 50-52%, allowing for precise temperature control. By circulating a partially adjusted amount of the indoor air, predetermined conditions can be easily maintained even if the temperature and humidity of the outside air fluctuate, and the load on the air conditioning device 5a is reduced, thereby reducing the required energy. By the way, in the case of the drying conditions of the first drying chamber shown in the related prior art (Japanese Patent Publication No. 56-42255) previously disclosed by the inventor, the above-mentioned drawbacks remained unsolved. However, according to the present invention, the room temperature of the first drying chamber can be lowered to a precise temperature of 20 to 22 degrees Celsius, and the relative humidity can also be adjusted to 50 to 52%, so that the above-mentioned noodles The elongation of the noodles is eliminated, and the effect of preventing noodles from falling is great. This improves the productivity and yield of dry noodle production, and contributes to mass production of dry noodles. Regarding the matters mentioned above, the following can be explained in detail. That is, when comparing the external weather conditions and the corresponding effect of preventing dropped noodles in the first drying chamber of the present invention with that of the drying method of the first drying chamber described in the related prior art,
It makes a big difference. Therefore, as proposed in the related prior art, "In the first drying room, the room temperature is 30 to 35 degrees Celsius, and the relative humidity is 70%."
The method according to the present invention is suitable under any weather conditions, and the method according to the present invention is suitable for any weather conditions. In addition, we will explain whether it is possible to prevent sagging of water-added noodle dough, that is, drop noodles due to elongation of noodle strings, as well as an explanation of the operating principle of the equipment, and the effects of the revolutionary first drying chamber that contributes to energy saving. I will explain step by step. First, regarding the operating principle of the device adopted as the device of the present invention, how the device operates depending on external weather conditions will be explained with reference to FIGS. 5 and 6. (A) In the case of outside air conditions of 35°C and 70% humidity in summer. The outside air introduced by the fan F from the entrance of the air conditioning device 5a is filtered by the air filter 21, and detected by the dew point temperature detector 16 to the chilled water device 5f, the circulation pump P, and the chilled water cooling coil.
Relative humidity 50-52% at temperature 20-22℃ by CC
The temperature and humidity are reduced and the air supply duct 6a and air outlet 7 are
released into the room. Fresh noodles introduced from the noodle-making room 1 shown in FIG. 1 have their moisture released by this conditioned air, and the humid air is exhausted outdoors through an exhaust duct 8a and a fan 4a as shown in FIG. be done. Next, the air in the final part of the first drying chamber passes through the exhaust duct 8b, and then passes through the indoor temperature controller (proportional type).
20 (operated by the module troll motor 22), a part of the air is returned to the air conditioning device 5a, and the remaining air is sent outdoors by the fan 4b. It is discharged. Air conditioning device 5a in the first drying room
With this system, outside air and indoor air are appropriately mixed and sent under temperature and humidity control, allowing precise temperature control of room temperature between 20 and 22 degrees Celsius, while keeping humidity at 50 to 52 degrees Celsius.
%, which helps prevent dropped noodles. In the above case, by recirculating a part of the indoor air, even if the temperature and humidity conditions of the introduced outside air change, the indoor air condition does not change significantly, and the heating coil of the air conditioning device 5a
The load on HC is reduced and energy is saved. (B) In the case of an outside temperature of 3℃ and humidity of 25% in winter. Air introduced by the fan F from the inlet of the air conditioning device 5a is filtered by the air filter 21, heated by the heating coil HC built into the air conditioning device 5a, and then transferred to the air supply duct 6.
a. It is discharged into the room from the air outlet 7. The amount of steam flowing into the heating coil HC is automatically adjusted by an insertion type temperature controller 18 built into the air supply duct 6a and an electric steam valve 19 interlocked therewith. The raw noodles M1 introduced from the noodle-making room 1 have their moisture released by the conditioned air, and the humid air is discharged outdoors by the exhaust duct 8a and the blower 4a. Next, the air in the final part of the first drying chamber passes through the exhaust duct 8b and is automatically opened and closed by the electric damper 12 that works with the indoor temperature controller 20, and some of the air is returned to the air conditioning device 5a, and the remaining air is Air is discharged outdoors by the blower 4b. In addition, in the winter season, by sufficiently maintaining the capacity of the heating coil HC of the air conditioning device 5a, the required indoor conditions can be maintained appropriately. Moreover, since it is winter, the chilled water coil CC is not activated much, which helps reduce power consumption. (C) During the spring or fall season. Depending on the weather conditions on the operating day, the outside air condition may
Precise temperature of the drying room: 20-22℃, humidity
When the condition is close to 50 to 52%, the operating order is the same as the above-mentioned summer and winter seasons, but
Chilled water device 5f, circulation pump P, chilled water coil CC
The operating rate of the heating coil HC is lower than that in the summer and winter, so the energy reduction is maximized, and energy savings can be expected during this period throughout the four seasons. This point is
This is a feature that is significantly different from known drying methods that are constantly performed at high temperatures. Next, the second drying room DR 2 , the third drying room DR 3 , and the fourth drying room DR 4 are heated, humidified, and reduced in temperature, respectively.
Packaged air conditioners 5b, 5c, and 5d having a dehumidifying function are provided, and air 11 whose temperature and humidity have been controlled is discharged from a plurality of outlets 7 of air supply ducts 6b, 6c, and 6d set in the ceiling.
A known temperature controller and humidity controller are installed in the center of each drying room, and the supplied air maintains the room temperature in the second drying room DR 2 at 27-30°C and the relative humidity.
72-75%, room temperature in the third drying room DR 3 is 25-28℃,
Relative humidity 68-72%, room temperature 25 in the fourth drying room DR 4
Temperature and humidity conditions are adjusted to ~26℃ and relative humidity of 65-70%. The package type air conditioners 5b, 5c, and 5d in the second, third, and fourth drying rooms incorporate heating coils, steam spray humidifiers, etc., and automatically control heating, humidification, temperature reduction, and dehumidification. This is a package-type air conditioner that performs The finishing room 2 is equipped with a package-type air conditioner 5e and an air supply duct e, and the room temperature is 20~20.
Air controlled at 25℃ and relative humidity 60-68%. According to the present invention, the bar material 14 is manufactured by the noodle making device.
The raw noodles M 1 suspended in the drying chamber are moved through the drying chamber by the transfer device L, and the room temperature is maintained at a room temperature of 20 to 22 degrees Celsius and a relative humidity of 50 to 52% as precise temperature control in the first drying chamber. The inside of the first drying room DR 1 , where temperature- and humidity-controlled air is blown out from the ceiling air outlet 7, is the noodle path line (the path directly below the area through which the noodles pass during the drying process, and the walking path for workers, etc.). The water is evaporated by cruising along a belt-shaped section that is clearly separated from the
% to 30% semi-dry, medium-raw noodles. According to various experiments conducted by the present inventor, drying of noodles is
Under the drying conditions of the first drying chamber above, up to about 30% moisture content will not cause the above-mentioned vertical cracks and cracks, and will prevent the raw noodles from elongating due to quick stopping and will finish the first drying, preventing falling noodles. It has the characteristics of In the second drying room, the semi-dry and semi-raw noodles obtained by the above-mentioned quick stopping are stored at a room temperature of 27-30℃ and a relative humidity of
A second drying step is carried out in a second drying room DR 2 with a drying temperature of 72 to 75% in order to obtain dry noodles without vertical cracks or cracks. This process requires fine-textured drying, and the noodles M 2 that have traveled through the second drying chamber, which is constantly controlled at 27-30°C and relative humidity 72-75% by the package type air conditioner 5b, are dried in the second drying chamber. The moisture content decreases from approximately 30% at the inlet of drying chamber DR 2 to approximately 22.5% at the outlet. In the third drying chamber, the noodles M 2 that have passed through the first and second drying chambers are heated to a room temperature of 25 to 28°C and a relative humidity of 68 to 72% by an air conditioning device 5c similar to the second drying chamber DR 2 .
In the third drying room DR 3 , the moisture content of the noodles is dried to about 16%. In the fourth drying chamber, the noodles M 2 that have passed through the first, second, and third drying chambers are heated to a room temperature of 25 to 26 degrees Celsius and a relative humidity of 65 to 70 degrees Celsius by an air conditioning device 5d similar to that of the second drying chamber DR 2 . In the fourth drying room DR 4 , the moisture content of the noodles is adjusted to about 13%. After leaving the fourth drying room DR 4 , the noodles M2 are transferred to the packaging room 2, which also serves as a finishing room, at a temperature of 20-25°C and a relative humidity of 60-60°C.
Under conditions of 68%, the final product, dried noodles, is finished in the desired form using appropriate packaging materials. In addition, according to the technical idea of the present invention, instead of the configuration of the first to fourth drying chambers, the first to third drying chambers are
It is also easy to change the design of the drying room. Preferred conditions for the apparatus of the present invention and an outline of its equipment are shown in Table 1 below.

【表】 なお本発明は、各乾燥室毎の隔壁に乾燥空気を
封入してなるペア・ガラスをもつて、所要個所に
装着することが好ましく、以下に乾燥室の隔壁装
置について説明をする。 前述のとおり、乾麺の乾燥方法は、他の一般的
な物品についての乾燥と異なり、比較的高湿下で
徐々に乾燥工程を進めないと、麺の表面に縦割
れ、亀裂等を生じ不良品となる。また、一般の乾
麺工場においては、各乾燥室の温度、湿度条件が
異なるため、各室毎に隔壁を具備しなければなら
ぬことは当然である。 従つて、在来の一般的な乾麺工場では、その乾
燥室毎に、例えばビニールの垂れ幕状の隔壁、ま
たはベニヤ板その他の資材を装備するなり、更に
進歩した工場では、ウレタン樹脂またはガラス繊
維を挾着した断熱効果を有する隔壁をもつて各乾
燥室毎に隔壁を備えることは公知である。 しかしながら、前述のとおり、乾麺の乾燥方法
は、他の物品の乾燥方法と異なり、比較的高湿度
の環境下にあるため前述のビニールの垂れ幕で
は、断熱効果がないし、垂れ幕表面に結露が生じ
易く、また、ベニヤ板では、乾燥室内の水分を吸
収し易く、カビの発生を招き易い。断熱効果のあ
るウレタンまたはガラス繊維を挾着した隔壁の場
合には、各乾燥室毎の見通しが不可能である。 そこで発明者は、寒冷地や騒音地帯の住宅また
は、新幹線用車輛窓等に取付けられているペア・
ガラス(乾燥空気を封入した二枚のガラス窓)を
本発明の第1乾燥室と第2乾燥室間、必要により
設ける集中管理室と乾燥室間、見学通路と各乾燥
室間、第3乾燥室と第4乾燥室間において、所要
個所に前記のペア・ガラスを採用装着することに
よつて、各乾燥室間の見通しは真に良好となり、
しかも断熱効果を有するため、前述した結露障害
がなく、よく各乾燥状態を監視、点検することが
できるようになつたものである。特に乾麺工場に
おいてペア・ガラスを採用するという着想は、全
くの従来に例をみないものであつて、その効果は
絶大である。 〔発明の効果〕 以上詳述したように、本発明によれば、第1な
いし第4の乾燥室およびその仕上室を通じ、連続
的にかつ容易に、優良な乾麺を量産することがで
きる。しかも本発明の最も強調されるべき効果
は、エアコンデイシヨナによる乾燥方法を導入
し、従来みることのなかつた特異な条件設定を行
うことによつて、クレームのない、品質の安定し
た乾麺が得られるようになつたことにあり、それ
は温度及び湿度が完全にコントロールされて、全
自動乾燥が行われ、不規則な天候の支配を受ける
ことなく、また勘に頼ることなく、恒温恒湿の条
件下で、麺生地の活性化を持続しつつ落麺のない
安定乾燥ができることにある。 そのため、いわば“生きている”乾麺、風味を
生かした乾麺を安定生産でき、また製造管理、監
視が容易となるという長所がもたらされたのであ
る。
[Table] In the present invention, it is preferable that the partition wall of each drying chamber is provided with a pair of glasses that seal in dry air and installed at required locations.The partition wall device for the drying chamber will be explained below. As mentioned above, the drying method for dried noodles is different from the drying for other general products.If the drying process is not carried out gradually under relatively high humidity, vertical cracks and cracks will occur on the surface of the noodles, resulting in defective products. becomes. Furthermore, in a general dried noodle factory, each drying room has different temperature and humidity conditions, so it is natural that each drying room must be provided with a partition wall. Therefore, in conventional dry noodle factories, each drying room is equipped with a partition wall made of vinyl, plywood, or other materials, and in more advanced factories, urethane resin or glass fiber is installed in each drying room. It is known to provide a bulkhead for each drying chamber with a bulkhead having a heat-insulating effect. However, as mentioned above, the drying method for dried noodles is different from the drying method for other products, as the drying method is in a relatively high-humidity environment, so the vinyl banners mentioned above have no insulation effect and are prone to condensation on the surface of the banners. Furthermore, plywood boards tend to absorb moisture in the drying room, which can easily lead to the growth of mold. In the case of partition walls made of urethane or glass fibers that have a heat insulating effect, it is impossible to see into each drying room. Therefore, the inventor developed a pair of
Glass (two glass windows filled with dry air) of the present invention is installed between the first drying room and the second drying room, between the centralized control room and the drying room provided as necessary, between the tour passage and each drying room, and between the third drying room. By installing the above-mentioned double glass in the required places between the drying chamber and the fourth drying chamber, visibility between each drying chamber is truly excellent.
Furthermore, since it has a heat insulating effect, there is no problem with the aforementioned dew condensation, and it has become possible to monitor and inspect each dry state. In particular, the idea of using double glass in a dry noodle factory is completely unprecedented, and its effects are tremendous. [Effects of the Invention] As described in detail above, according to the present invention, high-quality dried noodles can be mass-produced continuously and easily through the first to fourth drying chambers and their finishing chambers. Moreover, the most important effect of the present invention is that by introducing a drying method using an air conditioner and setting unique conditions that have never been seen before, dry noodles with stable quality and no complaints can be produced. This is because temperature and humidity are completely controlled, fully automatic drying is performed, and constant temperature and humidity can be achieved without being subject to irregular weather conditions or relying on intuition. The purpose is to be able to dry the noodle dough stably under certain conditions without causing any droplets while maintaining the activation of the noodle dough. As a result, it has the advantage of being able to stably produce "alive" dried noodles, dried noodles that make the most of their flavor, and that production management and monitoring are easier.

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

図面は、本発明に係る落麺を防止し、活性を持
続させ、かつ製造管理が容易なる麺の乾燥装置に
関する実施の一例たる乾麺工場の設備、機器の配
置概略を示し、第1図は第1、第2乾燥室、第2
図は第3、第4乾燥室、第3図は仕上室の各平面
図、第4図は第1ないし第3図のA−A線断面
図、第5図は第1ないし第3図のB−B線断面図
であり、第6図aは第1乾燥室の要部断面部分図
で、加減温、加減湿、排気及び一部リターンされ
た空気の4段階を連続的に組み合わせた空気調和
方式を示し、第6図bは第2ないし第4乾燥室の
要部断面部分図で、加温、加湿、減温、減湿の4
段階を組み合わせた循環式のリサイクル空気調和
装置による乾燥方式を示すものである。 1……製麺室、2……仕上室、3……天井扇、
4a,4b……排気用送風機、5a……空気調整
装置、5b,5c,5d,5e……パツケージ型
エアーコンデイシヨナ、5f……冷水装置、6
a,6b,6c,6d,6e……給気ダクト、7
……吹出口、8a,8b……排気ダクト、9……
吸込口、10……乾燥空気、11……温、湿空
気、12……電動ダンパ、13……ペア・ガラ
ス、14……棒材(篠竹)、15……出入口、1
6……露点温度検出器、17……指示調節器、1
8……挿入型温度調節器(比例式)、19……蒸
気用電動弁、20……室内型温度調節器(比例
式)、21……エアーフイルター、22……モジ
ユトロールモーター、DR1,DR2,DR3,DR4
…第1乾燥室、第2乾燥室、第3乾燥室、第4乾
燥室、E1,E2……麺の下降出口、L……移行装
置、G1,G2……案内装置、M1……生麺、M2
…乾燥に至るまでの麺、C……冷却水、F……フ
アン、CC……冷水用冷却コイル、HC……加熱コ
イル、SS……蒸気スプレー式加湿器、DX……直
膨冷却器、CO……圧縮器、P……循環ポンプ、
W……屋外排出ドレン。
The drawings schematically show the layout of equipment and equipment in a dry noodle factory, which is an example of the noodle drying device that prevents dropped noodles, maintains activity, and facilitates manufacturing control according to the present invention. 1. 2nd drying room, 2nd
The figures show the 3rd and 4th drying chambers, Fig. 3 is a plan view of the finishing chamber, Fig. 4 is a sectional view taken along line A-A of Figs. It is a sectional view taken along the line B-B, and Figure 6a is a partial sectional view of the main part of the first drying chamber. Figure 6b is a partial cross-sectional view of the main parts of the second to fourth drying chambers, and shows the four drying chambers: heating, humidification, temperature reduction, and dehumidification.
This shows a drying method using a circulating recycle air conditioner that combines stages. 1...noodle making room, 2...finishing room, 3...ceiling fan,
4a, 4b...Exhaust blower, 5a...Air conditioning device, 5b, 5c, 5d, 5e...Package type air conditioner, 5f...Cold water device, 6
a, 6b, 6c, 6d, 6e...Air supply duct, 7
...Air outlet, 8a, 8b...Exhaust duct, 9...
Suction port, 10... Dry air, 11... Warm, humid air, 12... Electric damper, 13... Pair glass, 14... Bar material (Shinotake), 15... Entrance/exit, 1
6...Dew point temperature detector, 17...Indication controller, 1
8...Insertion type temperature controller (proportional type), 19...Electric valve for steam, 20...Indoor temperature controller (proportional type), 21...Air filter, 22...Module troll motor, DR 1 , DR 2 , DR 3 , DR 4
...First drying chamber, second drying chamber, third drying chamber, fourth drying chamber, E 1 , E 2 ... Noodle descending outlet, L ... Transition device, G 1 , G 2 ... Guide device, M 1 ...Raw noodles, M 2 ...
...Noodles until drying, C...Cooling water, F...Fan, CC...Cold water cooling coil, HC...Heating coil, SS...Steam spray humidifier, DX...Direct expansion cooler, CO...Compressor, P...Circulation pump,
W...Outdoor discharge drain.

Claims (1)

【特許請求の範囲】 1 区分せる第1〜第4乾燥室の各乾燥工程およ
び仕上作業工程において、第1乾燥室では室温20
〜22℃で相対湿度50〜52%を保つように、調整空
気にてコントロールしつつ一部の排気を行い、次
いで以後は排気を行うことなく、第2乾燥室では
室温27〜30℃で相対湿度72〜75%、第3乾燥室で
は室温25〜28℃で相対湿度68〜72%、第4乾燥室
では室温25〜26℃で相対湿度65〜70%の各条件
で、加温、加湿、減温、減湿のもとにコントロー
ルされ、これら第1〜第4乾燥室を常法により製
造された生麺を棒材に懸架させながら天井扇下に
順次移行せしめ、さらに前記第4乾燥室を経た麺
を室温20〜25℃で相対湿度60〜68%の条件下で仕
上室における仕上作業工程を経て乾燥せしめるこ
とを特徴とする落麺を防止し、活性を持続させ、
かつ製造管理が容易なる麺の乾燥方法。 2 乾燥室を区分して第1〜第4乾燥室とし、第
1乾燥室に室温20〜22℃で相対湿度50〜52%に保
つ空気調整装置を設けると共に、出口に排気の一
部を前記空気調整装置へ還流する排気ダクトを設
け、第2乾燥室では室温27〜30℃で相対湿度72〜
75%、第3乾燥室では室温25〜28℃で相対湿度68
〜72%、第4乾燥室では室温25〜26℃で相対湿度
65〜70%の条件になるように、各乾燥室に加温、
加湿、減温、減湿の4段階のもとにコントロール
される空気調整装置ならびに天井扇をそれぞれ設
け、これら乾燥室内を順次連通する麺の移行装置
を設けると共に、各乾燥室の連通部を隔壁で区分
し、さらに室温20〜25℃で相対湿度60〜68%にコ
ントロールされる仕上室を前記第4乾燥室に連設
せしめたことを特徴とする落麺を防止し、活性を
持続させ、かつ製造管理が容易なる麺の製造装
置。 3 前記第1乾燥室ないし第4乾燥室、仕上室間
の隔壁、および前記各乾燥室、仕上室と見学通路
間の隔壁に、それぞれ乾燥空気を封入してなるペ
ア・ガラスを装着するものである特許請求の範囲
第2項記載の落麺を防止し、活性を持続させ、か
つ製造管理が容易なる麺の乾燥装置。
[Claims] 1. In each drying process and finishing work process in the divided first to fourth drying chambers, the first drying chamber has a room temperature of 20°C.
In order to maintain a relative humidity of 50 to 52% at a temperature of ~22℃, a portion of the air is evacuated while controlling it using conditioned air.Then, without further evacuation, the relative humidity is maintained at a room temperature of 27 to 30℃ in the second drying room. Heating and humidification under the following conditions: humidity 72-75%, room temperature 25-28°C in the third drying room and relative humidity 68-72%, and room temperature 25-26°C and relative humidity 65-70% in the fourth drying room. , temperature and humidity are controlled, and in these first to fourth drying chambers, raw noodles produced by a conventional method are suspended under a ceiling fan and moved one by one under a ceiling fan, and then the fourth drying chamber is controlled. It is characterized by drying the noodles that have passed through the room through a finishing process in a finishing room at a room temperature of 20-25°C and a relative humidity of 60-68%.It prevents falling noodles and maintains activity.
A method for drying noodles that also facilitates manufacturing control. 2 The drying room is divided into 1st to 4th drying rooms, and the first drying room is equipped with an air conditioning device that maintains the room temperature at 20-22°C and the relative humidity at 50-52%, and a part of the exhaust air is transferred to the outlet. An exhaust duct is installed to return the air to the air conditioning device, and the second drying room has a room temperature of 27-30℃ and a relative humidity of 72-72℃.
75%, in the third drying room room temperature 25-28℃ and relative humidity 68
~72%, relative humidity at room temperature 25-26°C in the fourth drying room
Heat each drying room to achieve conditions of 65-70%.
Each drying chamber is equipped with an air conditioning device and a ceiling fan that are controlled in four stages: humidification, temperature reduction, and dehumidification, and a noodle transfer device that sequentially connects these drying chambers. A finishing chamber controlled at a room temperature of 20 to 25 degrees Celsius and a relative humidity of 60 to 68% is connected to the fourth drying chamber. A noodle manufacturing device that facilitates manufacturing control. 3. A pair of glass panels filled with dry air is installed in the partition walls between the first to fourth drying rooms, the finishing room, and the partition walls between each of the drying rooms, the finishing room, and the observation passage. A noodle drying device that prevents dropped noodles, maintains activity, and facilitates manufacturing control, as set forth in claim 2.
JP57054028A 1982-04-01 1982-04-01 Easily controllable method and apparatus for drying noodle, capable of preventing breakage of noodle and keeping its activity Granted JPS58170445A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP57054028A JPS58170445A (en) 1982-04-01 1982-04-01 Easily controllable method and apparatus for drying noodle, capable of preventing breakage of noodle and keeping its activity

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP57054028A JPS58170445A (en) 1982-04-01 1982-04-01 Easily controllable method and apparatus for drying noodle, capable of preventing breakage of noodle and keeping its activity

Related Child Applications (1)

Application Number Title Priority Date Filing Date
JP2028312A Division JPH02291240A (en) 1990-02-09 1990-02-09 Drying method of noodle for preventing falling of noodle, maintaining activity and having easy production control and device therefor

Publications (2)

Publication Number Publication Date
JPS58170445A JPS58170445A (en) 1983-10-07
JPH0239227B2 true JPH0239227B2 (en) 1990-09-04

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ID=12959124

Family Applications (1)

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JP57054028A Granted JPS58170445A (en) 1982-04-01 1982-04-01 Easily controllable method and apparatus for drying noodle, capable of preventing breakage of noodle and keeping its activity

Country Status (1)

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JP (1) JPS58170445A (en)

Families Citing this family (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102783508A (en) * 2012-08-06 2012-11-21 湖南海清食品发展有限责任公司 Noodle drying and baking dual-purpose circulation conveying system
CN109059494B (en) * 2018-06-11 2020-11-06 上海京元食品有限公司 Fine dried noodle drying system
IT202200007514A1 (en) * 2022-04-14 2023-10-14 Fava S P A TREATMENT SYSTEM FOR LONG PASTA.

Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5642255A (en) * 1979-09-17 1981-04-20 Canon Inc Fixing unit
JPS5661968A (en) * 1979-10-26 1981-05-27 Nippon Seifun Kk Production of dried noodle

Family Cites Families (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5173150A (en) * 1974-11-30 1976-06-24 Hoshino Bussan Kanmenno katsuseijizokukansohoho oyobi sonosochi

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5642255A (en) * 1979-09-17 1981-04-20 Canon Inc Fixing unit
JPS5661968A (en) * 1979-10-26 1981-05-27 Nippon Seifun Kk Production of dried noodle

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Publication number Publication date
JPS58170445A (en) 1983-10-07

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