JP2014108108A - Method for boiling noodles at high temperature - Google Patents

Method for boiling noodles at high temperature Download PDF

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JP2014108108A
JP2014108108A JP2012278654A JP2012278654A JP2014108108A JP 2014108108 A JP2014108108 A JP 2014108108A JP 2012278654 A JP2012278654 A JP 2012278654A JP 2012278654 A JP2012278654 A JP 2012278654A JP 2014108108 A JP2014108108 A JP 2014108108A
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noodle
tube
valve
pipe
pressure vessel
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JP6103426B2 (en
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Keiji Ota
啓司 大田
Ryota Sakai
亮太 酒井
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Shimadaya Corp
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Abstract

PROBLEM TO BE SOLVED: To provide a method, for boiling noodles in hot water over 100°C in pressured environment with a pressure container by a divided pot traveling system, that prevents clinging noodles and clogging of a feed pipe when the noodles are fed into the pressure container, and efficiently produces noodles in mass quantities.SOLUTION: Taking noodles in or out from a pressure container is conducted by a noodle feeding pipe that leads to the inside of the pressure container and is connected upwardly and a noodle removing pipe that leads to the inside of the pressure container and is connected downwardly. Both the noodle feeding pipe and the noodle removing pipe are connected to an inner pipe valve in contact with the pressure container, a noodle holding pipe, an outer pipe valve in this order. The noodles are passed through by opening and closing the inner/outer pipe valves alternately. When the noodles are fed, the noodle holding pipe in the noodle feeding pipe is ventilated by air and the outer pipe valve is opened. Then, the noodle holding pipe is ventilated with the pressure container and the inner pipe valve is opened. When the noodles are removed, the noodles and water are held above the inner pipe valve of the noodle removing pipe in advance, and the inner pipe valve is opened, then the outer pipe valve is opened.

Description

本発明は、一食分以下の茹で容量に区画され、無端チェーンに固定して巡回する茹カゴを、圧力容器に格納することで大気圧を超える圧力に維持し、うどん、中華麺、日本そば等の茹麺類を、100℃を超える温度の茹水で茹上げる量産に適した高温茹上げ方法に関する。  The present invention is divided into capacities with a bowl of less than one serving, and is fixed to an endless chain. The basket is stored in a pressure vessel and maintained at a pressure exceeding atmospheric pressure, such as udon, Chinese noodles, and soba noodles. The present invention relates to a high-temperature brewing method suitable for mass production of tsukudani noodles with brewing water having a temperature exceeding 100 ° C.

近年、業務用冷凍麺の市場では、大盛り対応の利便性や外食店のセットメニューに見られる小盛り提供の広がりから、1食の半分相当の茹麺を凍結した製品ニーズがある。また、消費者向けの茹麺市場においては従来から小分け麺の利便性や、冷凍茹麺では小さな鍋でも解凍調理できるなど、小さくすること自体が付加価値として認知されるようになった。  In recent years, in the market for commercial frozen noodles, there is a product need for frozen noodles equivalent to half of a meal due to the convenience of serving large servings and the spread of small servings found in restaurant set menus. In addition, in the consumer noodle market, the convenience of subdivided noodles and the fact that frozen noodles can be thawed in a small pan has become recognized as an added value.

量産に適した茹上げ方法には、複数食分をまとめて茹でる反転カゴにより麺線を移行する方法(大型カゴ反転方式)と、1食分以下の単位で収容するように区画されたカゴを無端チェーンに固定して巡回することにより麺線を移行する方法(区画カゴ巡回方式)に大別できる。  The kneading method suitable for mass production includes a method of transferring noodle strings by a reversing basket that boiles multiple meals together (a large basket reversing method), and an endless chain that is partitioned to accommodate a unit of one serving or less. It can be roughly divided into a method of moving the noodle strings (compartment basket patrol system) by patroling with fixing.

しかし、大型カゴ反転方式では、その後の工程に玉取り計量が行われ、従来の生産能力を維持しつつ、例えば1食の半分相当の内容量の茹麺を計量するには2倍の数の玉取り計量を行うことになり、玉取機は大型複雑化する。また、冷凍麺では茹上げ後急速凍結することが品質上好ましく、玉取機による計量工程自体ない方が良い。その点、区画カゴ巡回方式であれば、予め2倍の区画数の茹カゴを用意し、半分相当の生麺を区画カゴに収容すれば、生産能力を維持することは容易で、茹上げ後の玉取り計量が無用になる。  However, in the large-sized basket reversal method, ball weighing is performed in the subsequent processes, and for example, twice the number of ball removal is performed to measure the noodles with an internal volume equivalent to half of one meal while maintaining the conventional production capacity. As a result of weighing, the ball-taking machine becomes large and complicated. In addition, frozen noodles are preferably freeze-frozen after brewing, and it is better not to have a measuring process with a ball taker. On the other hand, if it is a section basket patrol system, it is easy to maintain the production capacity by preparing twice the number of straw baskets in advance and storing half of the raw noodles in the section basket. No need to measure the ball.

区画カゴ巡回方式で、加圧環境下の100℃を超える温度の茹水で茹上げる装置の開示には、例えば、特許文献1がある。特許文献1によれば、全ての麺収容カゴを圧力容器である湯槽に格納し、生麺の供給孔とこの供給孔を開閉する貫通孔を形成する投入バルブと湯槽の下部壁に形成する茹麺の排出孔とこの排出孔を開閉する貫通孔を形成する排出バルブとを設けた茹上げ装置が開示されている。そして、特許文献1の生麺の投入に関する記載では、「生麺に一定量の沸騰した湯を注ぎながら麺線を1本ずつ分離する。すなわち、麺線を予め湯でほぐすことによって茹麺の付着を防止する。」とある。  For example, Patent Document 1 discloses an apparatus that raises water with submerged water having a temperature exceeding 100 ° C. under a pressurized environment in a compartment car patrol system. According to Patent Document 1, all noodle-containing baskets are stored in a hot water tank that is a pressure vessel, and a supply valve for raw noodles and a feed valve for forming a through hole for opening and closing the supply hole are formed on a lower wall of the hot water tank. There has been disclosed a lifting device provided with a noodle discharge hole and a discharge valve for forming a through hole for opening and closing the discharge hole. In addition, in the description relating to the introduction of raw noodles in Patent Document 1, “the noodle strings are separated one by one while pouring a certain amount of boiling water into the raw noodles. "Prevents adhesion."

一方、加圧環境下で100℃を超える温度の茹水で茹上げる方法の開示には、例えば、本願発明者らによる特許文献2がある。特許文献2では、製麺工程と、製麺工程で得られた麺線を大気圧下90℃以上で茹でる低温茹工程と、低温茹工程に続いて、100℃を越える加圧環境下で茹上げる高温茹工程と、高温茹工程に続いて、茹上げた麺線を冷却する冷却工程を備えた茹麺類の製造方法であって、90℃以上の茹水に浸漬されている総茹時間が4分以上であり、大気圧下における茹時間が該総茹時間の90〜50%であり、加圧環境下における茹上げ時間が該総茹時間の10〜50%であって、加圧環境下の茹水の最高温度が110〜140℃である製造方法を開示している。  On the other hand, for example, Patent Document 2 by the inventors of the present application discloses disclosure of a method of rinsing with brine having a temperature exceeding 100 ° C. in a pressurized environment. In Patent Document 2, a noodle making process, a low temperature koji process in which the noodle strings obtained in the noodle making process are boiled at 90 ° C. or higher under atmospheric pressure, a low temperature koji process, and a koji under a pressurized environment exceeding 100 ° C. A method for producing strawberry noodles comprising a high-temperature cocoon process for raising and a cooling process for cooling the brewed noodle strings following the high-temperature cocoon process, wherein the total cocoon time immersed in brine at 90 ° C. or higher 4 minutes or more, the soot time under atmospheric pressure is 90-50% of the total soot time, the sowing time in a pressurized environment is 10-50% of the total soot time, The manufacturing method whose maximum temperature of the lower brine is 110-140 degreeC is disclosed.

そして、特許文献2の図4では、実験用加圧釜の上蓋に、バルブ2と投入容器とバルブ1とロートがその順で上に向け連結する投入管を図示し、実施例の茹上げ工程では低温茹工程と高温茹工程を其々9.5分と3.5分、8分と5分、6分と7分の試験区を示し、大気圧下で97℃の寸胴鍋から熱水0.5Lと共に茹麺を取出し、高温茹工程の開始にあたり、圧力容器の茹麺投入口に熱水と共に茹麺を流し込み、バルブ1と2の交互開閉により茹麺を120℃又は125℃の熱水中に流し込み茹上げる実験方法について示した。  And in FIG. 4 of patent document 2, the input pipe which connects the valve 2, the input container, the valve 1, and the funnel upward in that order is shown on the upper lid of the experimental pressure kettle. The test areas of 9.5 minutes, 3.5 minutes, 8 minutes, 5 minutes, 6 minutes and 7 minutes are shown for the low temperature hot water process and the high temperature hot water process, respectively. Take out the strawberry noodles together with 5L, and pour the strawberry noodles with hot water into the jar noodle inlet of the pressure vessel at the start of the high temperature cocoon process. The experimental method was described.

特開昭62−94120JP 62-94120 A 特開2007−306820JP2007-306820

特許文献1には、麺線の付着を解消するには表面のアルファ化を完成させる必要があり、その為に麺を供給する時間間隔を長くとれば、生産性が低下する問題がある。一方、時間間隔を短くしてアルファ化が不完全な状態の生麺が水濡れすると、単に麺線間の付着の問題のみならず、投入路内壁に付着堆積し投入路を詰まらせるトラブルの原因になる。  In Patent Document 1, it is necessary to complete the surface alpha in order to eliminate the adhesion of the noodle strings. For this reason, if the time interval for supplying the noodles is long, productivity is lowered. On the other hand, if raw noodles that are incompletely pregelatinized with a short time interval get wet, not only the problem of adhesion between the noodle strings, but also the cause of troubles that stick to the inner walls of the input path and clog the input path become.

また、何らかの手段により生産性を落とさず、麺線のアルファ化が完成したとしても、50%以下の水分含量ではアルファ化した麺線は硬くゴワつき流動性に乏しい。流動性の乏しい麺線を限られた水と共に留置かれ流動を再開するには、別の麺線移動手段が必要になるという新たな問題がある。したがって、区画カゴを圧力容器に格納して巡回させ大気圧を超える圧力の下で100℃を超える温度で茹上げる方法や装置は、今日に至るまで商業利用されていない。  Even if the productivity of the noodle strings is not reduced by any means and the noodle strings are pregelatinized, the noodle strings that have been pregelatinized at a moisture content of 50% or less are hard and have poor fluidity. There is a new problem that another noodle string moving means is required to retain the noodle strings with poor fluidity with limited water and resume the flow. Therefore, a method and an apparatus in which the compartment cage is stored in a pressure vessel and circulated to raise the temperature at a temperature exceeding 100 ° C. under a pressure exceeding the atmospheric pressure have not been commercialized to date.

また、特許文献2の実施例で開示した麺線の投入方法を区画カゴ巡回方式に適用させるには、流し込みに時間を要する問題がある。  In addition, in order to apply the noodle strings charging method disclosed in the example of Patent Document 2 to the compartment basket circulation method, there is a problem that it takes time for pouring.

本発明はこのような問題を解決するもので、区画カゴ巡回方式であって、圧力容器による加圧環境により100℃を超える温度で茹上げる方法で、圧力容器に麺線を投入する際に、麺線の付着や投入パイプの詰まりの問題がなく、効率良く量産に適し、商業利用可能な、茹上げ方法の提供を目的とする。  The present invention solves such a problem, is a compartment car patrol system, when the noodle strings are put into the pressure vessel by a method of raising at a temperature exceeding 100 ° C. by the pressurized environment by the pressure vessel, The purpose of the present invention is to provide a kneading method that is suitable for mass production and is commercially available, without the problem of sticking of noodle strings and clogging of input pipes.

発明者らは上記の課題を解決するため、特許文献2に開示した実験器により更に検討を進めた。すなわち、本願明細書の図1に示した実験用加圧釜1の上蓋に、全開通過径40mmの下側ボールバルブ2と、内径40mmで容量0.5Lのパイプ3と、全開通過径40mmの上側ボールバルブ4を上に向かって繋ぎ、その上に40°に開いたロート5を載せ、ゲージ圧0.1メガパスカルの加圧状態の釜の内部カゴ6に麺線を投入する実験を行った。  In order to solve the above-mentioned problems, the inventors have further studied using an experimental device disclosed in Patent Document 2. That is, the upper lid of the experimental pressurization pot 1 shown in FIG. 1 of the present specification, the lower ball valve 2 with a fully opened passage diameter of 40 mm, the pipe 3 with an inner diameter of 40 mm and a capacity of 0.5 L, and the upper side of the fully opened passage diameter of 40 mm. An experiment was conducted in which a ball valve 4 was connected upward, a funnel 5 opened at 40 ° was placed on the ball valve 4, and the noodle strings were put into the basket 6 in the pressure state of a gauge pressure of 0.1 megapascal. .

加水率43%で3.3mm角に製麺したうどんの生麺線110gを、茹でない状態、99℃で1分茹でて130gの水分52%程度の状態、及び5分茹でて150gの水分60%程度の状態に其々処理し、上側ボールバルブ4を閉じロート5内に麺線と熱水400mlを入れ、続いて下側ボールバルブ2を閉じ上側ボールバルブ4を開いて麺線をパイプ3に流し込み、続いて、上側ボールバルブ4を閉じ下側ボールバルブ2を開いて麺線を加圧状態の釜の内部カゴに流し込んだところ、茹でない状態の麺線と水分50%程度に茹でた麺線はともにロート上で滞り、水分60%程度の半茹で状態の麺線のみが各バルブを通過するのに2〜3秒要して、パイプ3内及び加圧釜1の内部カゴ6に流し込むことができた。  110 g of raw noodles made from noodles made into 3.3 mm square with a water content of 43%, in a non-boiled state, boiled at 99 ° C. for 1 minute, about 130 g of water and about 52% in water, and boiled for 5 minutes, 150 g of water 60 %, Respectively, the upper ball valve 4 is closed, the noodle string and 400 ml of hot water are put into the funnel 5, the lower ball valve 2 is then closed, the upper ball valve 4 is opened, and the noodle string is connected to the pipe 3 Then, the upper ball valve 4 was closed and the lower ball valve 2 was opened, and the noodle strings were poured into the inner basket of the pressurized kettle. Both noodle strings stagnate on the funnel, and it takes 2-3 seconds for only the noodle strings in a half-boiled state with a moisture content of about 60% to pass through each valve, and then pour into the pipe 3 and the inner basket 6 of the pressure kettle 1. I was able to.

次に、麺線を流し込む時間を短縮するため、図1のパイプ3を図2の(A)に示した内径40mmで容量1Lのパイプ8に替え、更に通気管の開口をパイプ8の中央部9に設けた。そして、図1の場合と同じ5分茹でたうどん麺線150gをロート5内に熱水400mlと共に待機させ、下側ボールバルブ2を閉、大気通気管のバルブ10を開、釜内部通気管のバルブ11を閉の状態で上側ボールバルブ4を開けたところ、うどん麺線は1秒以内の瞬時にパイプ8内に流し入れることができた。続いて上側ボールバルブ4を閉、バルブ10を閉、バルブ11を開の状態で下側ボールバルブ2を開けたところ、うどん麺線は1秒以内の瞬時に加圧釜1の内部カゴ6に流し込むことができた。  Next, in order to shorten the time for pouring the noodle strings, the pipe 3 in FIG. 1 is replaced with the pipe 8 having an inner diameter of 40 mm and a capacity of 1 L shown in FIG. 9 is provided. Then, 150 g of udon noodle strings with the same 5-minute length as in FIG. 1 are kept in the funnel 5 together with 400 ml of hot water, the lower ball valve 2 is closed, the valve 10 of the air vent pipe is opened, When the upper ball valve 4 was opened with the valve 11 closed, the udon noodle strings could be poured into the pipe 8 instantly within 1 second. Subsequently, when the upper ball valve 4 is closed, the valve 10 is closed, and the valve 11 is opened, the lower ball valve 2 is opened. As a result, the udon noodle strings are poured into the inner basket 6 of the pressurization pot 1 instantly within 1 second. I was able to.

更に、図1のパイプ3を図2の(B)に示した内径40mmで容量500mlのパイプ12に替え、更に通気管の開口をパイプ12の上部13と下部14に設けた。 そして、図1の場合と同じ5分茹でたうどん麺線150gをロート上で熱水400mlと共に待機させ、下側ボールバルブ2を閉、バルブ10を開、バルブ11を閉の状態で上側ボールバルブ4を開けたところ、うどん麺線は1秒以内の瞬時にパイプ12内に流し込むことができた。続いて上側ボールバルブ4を閉、バルブ10を閉、バルブ11を開の状態で下側ボールバルブ2を開けたところ、うどん麺線は1秒以内の瞬時に加圧釜1の内部カゴ6に流し込むことができた。  Further, the pipe 3 in FIG. 1 is replaced with the pipe 12 having an inner diameter of 40 mm and a capacity of 500 ml shown in FIG. 2B, and further, vent pipe openings are provided in the upper part 13 and the lower part 14 of the pipe 12. Then, 150 g of udon noodle strings with the same 5-minute length as in FIG. 1 are kept on the funnel together with 400 ml of hot water, the lower ball valve 2 is closed, the valve 10 is opened, and the valve 11 is closed. When 4 was opened, the udon noodle strings could be poured into the pipe 12 instantly within 1 second. Subsequently, when the upper ball valve 4 is closed, the valve 10 is closed, and the valve 11 is opened, the lower ball valve 2 is opened. As a result, the udon noodle strings are poured into the inner basket 6 of the pressurization pot 1 instantly within 1 second. I was able to.

すなわち、課題解決の手段1は、製麺工程で得られた10〜200gの単位の麺線を、複数に区画されたカゴに収容して移行させ、該麺線を大気圧下90℃以上の茹水で茹でる低温茹工程、低温茹工程に続いて、100℃を越える加圧環境下の茹水で茹上げる高温茹工程、高温茹工程に続いて、茹上げた麺線を冷却する冷却工程を備え、該カゴが、低温茹工程、高温茹工程、冷却工程の其々に独立した無端チェーンにより巡回し、高温茹工程のカゴが圧力容器に格納される茹麺類の製造方法であって、該圧力容器における麺線の入れ出しが、該圧力容器内部に通じ上向きに連結された麺線投入管と該圧力容器内部に通じ下向きに連結された麺線取出管によるもので、麺線投入管と麺線取出管が、共に該圧力容器に接する内側管バルブ、麺線収容管、外側管バルブの順で連結され、内外の管バルブを交互に開閉して麺線を通過させ、該麺線投入管の麺線収容管には、大気と該圧力容器に通じる開口が設けられ、それらの通気管を通気バルブによって交互に開閉し、麺線を入れる際は、該麺線投入管の麺線収容管を大気と通気して外側管バルブを開け、該低温茹工程のカゴから落下させた麺線を熱水と共に該麺線収容管に流し込み、次いで、該麺線収容管を圧力容器と通気して内側管バルブを開け、該麺線と熱水を該圧力容器内のカゴ内に流し込み、麺線を出す際は、該麺線取出管の内側管バルブの上に予め麺線と水を待機させて内側管バルブを開け、該圧力容器内のカゴから落下させた麺線を水と共に該麺線収容管に流し込み、次いで、外側管バルブを開け麺線を水と共に該冷却工程のカゴ内に流し込むものです。  That is, the means 1 for solving the problem is that the noodle strings of 10 to 200 g obtained in the noodle making process are accommodated and transferred to a basket partitioned into a plurality of compartments, and the noodle strings are at 90 ° C. or higher under atmospheric pressure. Subsequent to the low-temperature boiling process and the low-temperature boiling process, the cooling process is performed to cool the noodle strings after the high-temperature boiling process and the high-temperature boiling process. The basket is circulated by an endless chain independent of the low-temperature cocoon process, the high-temperature cocoon process, and the cooling process, respectively, and the basket of the high-temperature cocoon process is stored in a pressure vessel, The noodle strings are inserted into and removed from the pressure vessel by the noodle string inlet tube connected upwardly through the pressure vessel and the noodle wire outlet tube connected downwardly through the pressure vessel. And the noodle strip take-out pipe are both inner tube valves that contact the pressure vessel, The tube and the outer tube valve are connected in this order, the inner and outer tube valves are alternately opened and closed to allow the noodle strings to pass through, and the noodle string receiving tube of the noodle string charging tube has an opening that communicates with the atmosphere and the pressure vessel. When the noodle strings are inserted by alternately opening and closing the vent pipes with the vent valves, the noodle string receiving pipe of the noodle string throwing pipe is vented to the atmosphere and the outer pipe valve is opened to open the basket of the low-temperature drought process. The noodle strings dropped from the above are poured into the noodle string receiving tube together with hot water, and then the noodle string receiving tube is vented to the pressure vessel to open the inner tube valve, and the noodle strings and hot water are put in the pressure vessel. When noodle strings are poured into the basket and the noodle strings are taken out, the noodle strings and water are waited in advance on the inner tube valve of the noodle string extraction tube, the inner tube valve is opened, and the noodles dropped from the basket in the pressure vessel are dropped. Pour the wire with water into the noodle string receiving tube, then open the outer tube valve and cool the noodle wire with water It is what poured into the basket.

本発明の製麺工程は、小麦粉、そば粉、米粉等の穀粉、小麦、馬鈴薯、甘藷、タピオカ、緑豆等の澱粉、及び、エーテル化、エステル化、架橋処理された澱粉誘導体を主原料とし、必要に応じ食塩やかんすいなどを溶解した練水を加え減圧環境下で混練して得た生地を、麺帯に成形し、圧延した麺帯を切歯で麺線に細断し、該麺線を複数に等分する。更に、麺帯や麺線を何らかの加熱手段によりアルファ化処理を行うこともでき、麺線は未糊化の状態でもアルファ化状態でもいずれでも良い。  The noodle making process of the present invention is mainly made of flour such as wheat flour, buckwheat flour, rice flour, starch such as wheat, potato, sweet potato, tapioca, mung bean, and starch derivatives etherified, esterified and crosslinked. If necessary, dough obtained by kneading under reduced pressure with salt water and salt water is formed into a noodle strip, and the rolled noodle strip is cut into noodle strips with incisors. Divide into multiple parts. Further, the noodle band and the noodle strings can be subjected to an alpha treatment by some heating means, and the noodle strings may be in an ungelatinized state or an alpha state.

本発明のカゴに収容して移行させる単位は、市場に提供する茹麺製品の凍結、包装等の取り分け可能な最小分割単位で、通常一人前の喫食重量が200g〜300g、それらの半量は100g〜150g、例えば、一口サイズに小分けされた麺では20gともなるため、それらに相当する茹工程前の麺線重量は、10g〜200g、望ましくは10g〜100gである。切歯の下で複数等分に区分された麺線を所定重量でカットする。  The unit to be accommodated and transferred to the basket of the present invention is the smallest division unit that can be separated such as freezing and packaging of the noodle products provided to the market, and the serving weight for a single serving is usually 200 g to 300 g, half of which is 100 g ˜150 g, for example, 20 g for noodles subdivided into bite sizes, the corresponding noodle string weight before the cocoon process is 10 g to 200 g, preferably 10 g to 100 g. Cut the noodle strings divided into a plurality of equal parts under the incisors with a predetermined weight.

本発明に用いる茹カゴは、ステンレス製のメッシュやパンチング板を主体に構成され、茹槽の側面方向に長く、該側面方向に複数に区分され、該側面方向の芯線が、水平に循環移行できるよう両側面で無端チェーンに固定されている。茹カゴは区分数が多いほど処理能力が増すが、4〜40区分が適している。例えば、600mm幅の圧延麺帯を40等分し、40区分された茹カゴに同時に落とす場合、1区分は幅15mmとなり、幅3mmのうどん麺線は5本程度で20cmの長さでカットすると1区分当たり10g程度となる。また、茹カゴは一定のピッチで間欠に移行させても、一定速度で絶えず移行させてもいずれでも良い。  The basket used in the present invention is mainly composed of a stainless steel mesh or a punching plate, is long in the side surface direction of the tank, and is divided into a plurality in the side direction, and the core wire in the side direction can be circulated horizontally. It is fixed to the endless chain on both sides. As the basket size increases, the processing capability increases, but 4 to 40 categories are suitable. For example, when a rolled noodle strip with a width of 600 mm is divided into 40 equal parts and dropped simultaneously into 40 divided baskets, one section has a width of 15 mm and a udon noodle line with a width of 3 mm has a length of about 5 and cuts to a length of 20 cm. It becomes about 10g per division. Further, the basket may be moved intermittently at a constant pitch or continuously at a constant speed.

本発明の低温茹工程は、高温茹工程の前段階として適度なアルファ化と、麺線に一定以上の流動性を付与するために必要な吸水を行わせることを目的とする。90℃以上の茹水温度は、生麺の茹上げに必要とされる温度で、澱粉質のアルファ化を効率的に進めるには高いほどよいが、大気圧下で行う低温茹工程では、茹水が沸騰しない96〜98℃が麺の肌荒れを防止するために好ましい。  The low-temperature cocoon process of the present invention is intended to allow appropriate pregelatinization and water absorption necessary for imparting a certain level of fluidity to the noodle strings as a pre-stage of the high-temperature cocoon process. The soaking temperature of 90 ° C. or higher is the temperature required for raising raw noodles. The higher the temperature, the better it is to promote the pregelatinization of starch. 96-98 degreeC which water does not boil is preferable in order to prevent rough skin of noodles.

本発明の高温茹工程では、100℃を越える加圧環境下の茹水、例えば110〜140℃、好ましくは120〜130℃の茹水で茹上げ、麺の食感を決定すべきアルファ化を行うことを目的とする。高温茹工程における茹水温度を比較的低めの110〜120℃にする場合は茹上装置の耐圧強度を0.1MPaに、120〜133℃であれば0.2MPaに、133〜140℃であれば0.3MPaの耐圧強度に設計すればよい。このように、茹上装置の耐圧強度を高めることで高温茹工程における茹上温度を高く設定し、総茹時間に占める高温茹工程の比率を低くできるので、高温茹工程の装置部分をコンパクトに設置することができる。  In the high-temperature cocoon process of the present invention, the noodles are subjected to alpha conversion to determine the texture of the noodles by rinsing with irrigated water in a pressurized environment exceeding 100 ° C., for example, 110-140 ° C., preferably 120-130 ° C. The purpose is to do. If the water temperature in the high-temperature dripping process is relatively low 110-120 ° C, the pressure resistance of the dredging device should be 0.1 MPa, if it is 120-133 ° C, 0.2 MPa, 133-140 ° C. For example, it may be designed to have a pressure strength of 0.3 MPa. In this way, by increasing the pressure strength of the hoisting equipment, the hoisting temperature in the high temperature hoisting process can be set high, and the ratio of the hot sowing process in the total dredging time can be lowered, so the equipment part of the high temperature hoisting process can be made compact. Can be installed.

本発明の冷却工程は、高温茹工程で茹上げた麺線を圧力容器から取り出す迄に茹麺の温度を100℃以下とし、1分以内に40℃以下、2分以内に10℃以下に急冷することが好ましい。  In the cooling process of the present invention, the temperature of the noodles is set to 100 ° C. or less until the noodle strings raised in the high temperature koji process are taken out from the pressure vessel, and rapidly cooled to 40 ° C. or less within 1 minute and 10 ° C. or less within 2 minutes. It is preferable to do.

本発明のカゴを低温茹工程、高温茹工程、冷却工程の其々に独立した無端チェーンにより巡回させることは、高温茹工程の茹カゴを圧力容器に格納する為に必要だが、高温茹工程の走行速度を冷却工程の走行速度より相対的に速める場合に都合よい。例えば、図3に示したように、圧力容器22と冷却水槽23をフラットな床面に並べて配置する場合、麺線投入管24や麺線取出管25のスペースの関係で高温茹工程の圧力容器内のヘッドスペースを走行する距離が長くなり麺のふやけの原因になる場合がある。この時間を短縮する為、高温茹工程の茹カゴの区分数を半分に減らし冷却カゴの2倍速で茹カゴを走行させることができる。  It is necessary for the basket of the present invention to be circulated by an endless chain independent of the low temperature drought process, the high temperature drought process, and the cooling process, in order to store the high temperature dredging process basket in the pressure vessel. This is convenient when the traveling speed is relatively higher than the traveling speed of the cooling process. For example, as shown in FIG. 3, when the pressure vessel 22 and the cooling water tank 23 are arranged side by side on a flat floor surface, the pressure vessel in the high-temperature dredge process is related to the space of the noodle string input pipe 24 and the noodle string extraction pipe 25. The distance traveled through the inner headspace may become longer and may cause the noodles to burn. In order to shorten this time, the number of baskets in the high-temperature paddle process can be reduced to half and the basket can be run at a double speed of the cooling basket.

本発明では、低温茹工程を終えた麺線を圧力容器に投入する圧力容器の入口を麺線投入管、麺線を取り出し冷却工程に送る圧力容器の出口を麺線取出管とした。そして、麺線投入管及び麺線取出管を構成する管バルブは、麺線を通過させる為、バルブを開ける際に麺線が架かって留まる障害がないものが良い。例えば、市販の管バルブの中では、ボールバルブやゲートバルブのタイプが挙げられるが、開閉が速い点でボールバルブのタイプ、中でも通過径が狭められないフルボアのタイプが適している。また、自動開閉機は圧縮エアを動力とするものが1秒以下の瞬時に開閉できて良い。  In the present invention, the noodle strings inlet tube is used as the inlet of the pressure vessel for feeding the noodle strings after the low-temperature koji process into the pressure vessel, and the noodle string outlet tube is used as the outlet of the pressure vessel for taking out the noodle strings and sending them to the cooling step. And the pipe | tube valve | bulb which comprises a noodle string insertion pipe | tube and a noodle string take-out pipe | tube passes a noodle string, Therefore When a valve is opened, a thing without the obstacle which a noodle string hangs over is good. For example, among commercially available pipe valves, there are ball valve and gate valve types, but the ball valve type, particularly the full bore type in which the passage diameter is not narrowed, is suitable in terms of quick opening and closing. Further, an automatic opening / closing device that is powered by compressed air may be able to open and close instantaneously in 1 second or less.

本発明の内側管バルブとは圧力容器に近い側、外側管バルブとは麺線収容管を挟んで圧力容器から遠い側を指し、麺線投入管は上向きの為、麺線収容管を挟んで外側管バルブが上に内側管バルブが下にあり、麺線取出管は下向きの為、麺線収容管を挟んで内側管バルブが上に外側管バルブが下にある。麺線収容管は一度に出し入れする麺線と水が収容できれば大きくても良い。そして、内外の管バルブを交互に開閉とは、内外の管バルブを同時に開けることがないことが必須で、同時に閉まった状態はあっても良い。ただし、同時に閉まった状態を長く取るほど麺線通過時間を要し処理効率は低下するから同時に閉の状態はなるべく短くする。そして、麺線は熱水と共に高低差により流下し、通過する。  The inner tube valve of the present invention refers to the side closer to the pressure vessel, the outer tube valve refers to the side farther from the pressure vessel with the noodle string accommodating tube interposed therebetween, and the noodle string introduction tube faces upward, Since the outer tube valve is on the upper side and the inner tube valve is on the lower side, and the noodle string take-out tube is facing downward, the inner tube valve is on the upper side and the outer tube valve is on the lower side with the noodle string receiving tube in between. The noodle string accommodating tube may be large as long as it can accommodate noodle strings and water to be taken in and out at a time. Opening and closing the inner and outer pipe valves alternately requires that the inner and outer pipe valves are not opened at the same time, and may be closed at the same time. However, the longer the closed state is, the longer it takes to pass the noodle strings, and the processing efficiency decreases. At the same time, the closed state is made as short as possible. And the noodle strings flow down with the hot water due to the height difference and pass through.

麺線投入管の麺線収容管に設けられた、大気と該圧力容器に通じる、開口は、通常1か所で良い。その場合の開口位置は、開口より下の容量が一度に通過させる麺線と熱水の合計以上になる高さにする。麺線と共に流し込む熱水の容量は200〜1000ml、望ましくは300〜500mlが良い。また、熱水の温度は、麺の糊化澱粉を冷却によるベータ化から防ぐことができる60〜100℃、望ましくは、高温で送水後の温度維持容易な80〜90℃が良い。  The opening which is provided in the noodle string receiving tube of the noodle string charging tube and communicates with the atmosphere and the pressure vessel is usually one place. In this case, the opening position is set so that the capacity below the opening is equal to or higher than the total of the noodle strings and hot water that are allowed to pass through at once. The capacity of hot water to be poured with the noodle strings is 200 to 1000 ml, preferably 300 to 500 ml. Moreover, the temperature of hot water is 60-100 degreeC which can prevent the gelatinization starch of noodles from beta-izing by cooling, Preferably 80-90 degreeC which is easy to maintain the temperature after water supply at high temperature is good.

開口は通気管によって大気及び圧力容器に連通させ、途中通気バルブによって大気側と圧力容器を交互に開閉して切り替える。なお、通気バルブは分枝後に其々にバルブを設けても、分枝位置に三方バルブを設けても良い。そして、麺線を入れる際は、予め外側管バルブの上に麺線と熱水を待機させておき、麺線収容管を大気と通気して外側管バルブを開ければ、麺線は熱水と共に麺線収容管に流れ込む。次いで、麺線収容管を圧力容器と通気して内側管バルブを開ければ、麺線は熱水と共に麺線収容管から流れ出て、圧力容器の茹カゴ内に流し込むことができる。すなわち、通気することで、水に包まれた状態の麺線が落下移動する際の空気抵抗を無くし、ブレーキがかからないようにすることができる。  The opening communicates with the atmosphere and the pressure vessel through a vent pipe, and the atmosphere side and the pressure vessel are alternately opened and closed by a vent valve on the way. Note that the vent valve may be provided after branching, or a three-way valve may be provided at the branching position. And when putting the noodle strings, if the noodle strings and hot water are kept waiting on the outer tube valve in advance, the noodle string receiving tube is vented to the atmosphere, and the outer tube valve is opened. It flows into the noodle string receiving tube. Next, if the noodle string accommodating tube is vented to the pressure vessel and the inner tube valve is opened, the noodle strings can flow out of the noodle string accommodating tube together with hot water and flow into the basket of the pressure vessel. That is, by aeration, it is possible to eliminate the air resistance when the noodle strings wrapped in water fall and move so that the brake is not applied.

一方、麺線取出管では、予め内側管バルブの上に麺線と水を待機させておけば、内側管バルブを開けると、麺線は高低差に加え気圧差より麺線収容管に流れ込み、次いで、外側管バルブを開ける場合も高低差に加え気圧差より麺線収容管から流れ出る。麺線取出管で茹上がった麺線と共に流す水は、早期にアルファ化を止める場合は15℃以下の冷却水にすれば良いが、常温水を多めに使用してもよい。通常200〜1000ml、望ましくは300〜500mlがよい。  On the other hand, in the noodle strip take-out pipe, if the noodle strand and water are kept waiting on the inner tube valve in advance, when the inner tube valve is opened, the noodle strand flows into the noodle strip housing tube from the pressure difference in addition to the height difference, Next, when the outer tube valve is opened, it flows out of the noodle strings housing tube due to the pressure difference in addition to the height difference. The water that flows along with the noodle strings that have risen in the noodle string take-out pipe may be cooled to 15 ° C. or less if the pregelatinization is stopped at an early stage, but room temperature water may be used in excess. Usually, 200-1000 ml, desirably 300-500 ml is preferable.

すなわち、課題解決の手段1によれば、麺線を大気圧下の低温茹工程で、予め茹でることで、麺線はアルファ化前の水濡れによる付着性やごわついた物性をなくし、バルブによる停止と流動をくり返しながらも、パイプ内を水に近い状態でしなやかに流動落下できるという作用を奏する。  That is, according to the means 1 for solving the problems, the noodle strings are boiled in advance in a low-temperature rice bran process under atmospheric pressure, so that the noodle strings are free of adhesion and stiff physical properties due to water wetting before the alpha conversion, and by the valve While repeating the stop and flow, there is an effect that the pipe can flow and fall smoothly in a state close to water.

課題解決の手段2は、麺線取出し管の麺線収容管に、大気と該圧力容器に通じる開口が設けられ、それらの通気管を通気バルブによって交互に開閉し、麺線を出す際、該麺線取出管の麺線収容管を該圧力容器と通気した後に内側管バルブを開け、該麺線収容管を大気と通気した後に外側管バルブを開けるものです。  Means for solving the problem 2 is that when the noodle string receiving tube of the noodle string take-out tube is provided with openings that communicate with the atmosphere and the pressure vessel, and the vent tube is alternately opened and closed by a vent valve, The noodle string take-out pipe of the noodle string take-out pipe is vented to the pressure vessel and then the inner pipe valve is opened. After the noodle string containment pipe is vented to the atmosphere, the outer pipe valve is opened.

課題解決の手段2の作用は、麺線収容管の内部を予め均圧することで、麺線の噴出を防止し、麺線の表面組織に与える衝撃を回避する作用により、比較的やわらかい麺線の場合でも肌荒れや冷却水の濁りを防止するものです。  The action of the means 2 for solving the problem is that the inside of the noodle string receiving tube is pre-equalized to prevent the noodle strings from being blown out and to avoid the impact on the surface structure of the noodle strings. Even in cases, it prevents rough skin and turbid cooling water.

課題解決の手段3は、麺線収容管に、大気と前記圧力容器に通じる開口が上下2か所設けられ、該麺線収容管に麺線を流し込む際は、該麺線収容管の上下2か所から通気させるものです。  Means for solving the problem 3 is that the noodle string receiving pipe is provided with two openings at the top and bottom to communicate with the atmosphere and the pressure vessel. When the noodle strings are poured into the noodle string receiving pipe, It is made to ventilate from places.

課題解決の手段3によれば、麺線収容管に麺線を入れる際は、上からの投入に対し下からエアを逃がすことができ、麺線収容管から麺線を出す際は、下から出すのに対し上からエアを取り入れることで、麺線が落下移動する際の空気抵抗を無くし、ブレーキがかからないようにする他に、麺線収容管のヘッドスペースを小さくできる作用により、麺線収容管がコンパクトになって、低温茹工程、高温茹工程、冷却工程の其々の槽を側面図上フラットに配置しやすく、平面図上の占有スペースを抑えれば、限られたスペースに麺線投入管をより多く配置できる。  According to the means 3 for solving the problem, when the noodle strings are put into the noodle string receiving tube, air can be released from the bottom with respect to the charging from the top, and when the noodle strings are taken out from the noodle string receiving tube, By taking in air from the top, the air resistance when the noodle strings drop and move is eliminated, and the brake is not applied. If the tube becomes compact, the tanks for the low-temperature cocoon process, high-temperature cocoon process, and cooling process can be easily placed flat on the side view, and if the occupied space on the plan view is reduced, the noodle strings are limited in space. More input tubes can be arranged.

なお、課題解決の手段3の麺線収容管の通気管は、麺線収容管の水が流出しない程度の高さに迂回させれば、流出防止弁などを設ける必要がなくてよい。  The vent pipe of the noodle string housing tube of the means 3 for solving the problem does not need to be provided with an outflow prevention valve or the like if it is detoured to such a height that the water of the noodle string housing tube does not flow out.

課題解決の手段4は、麺線収容管の上からの通過路延長管が該麺線収容管の内部天面に突設され、大気及び圧力容器に通じる開口が、該天面に突設された該通過路延長管の下端より上に設けられているものです。  The means 4 for solving the problem is that a passage extension pipe from above the noodle string receiving tube is projected on the inner top surface of the noodle string receiving tube, and an opening communicating with the atmosphere and the pressure vessel is projected on the top surface. It is provided above the lower end of the passage extension pipe.

課題解決の手段4によれば、麺線収容管に麺線を入れる際、麺線や水によって通気開口が塞がれることがないから、麺線に押されたエアを麺線収容管の内壁に沿って上に逃がして通気開口から出すことができる作用により、大気通気管及び圧力容器通気管に通じる開口を麺線収容管の上部に1か所設ければ済み、麺線収容管に通じる周囲の通気管をシンプルに構成できる。  According to the means 4 for solving the problem, when the noodle strings are put into the noodle strings receiving tube, the ventilation openings are not blocked by the noodle strings or water. It is only necessary to provide one opening in the upper part of the noodle string receiving tube at the upper part of the noodle string receiving tube, and to the noodle string receiving tube. The surrounding vent pipe can be configured simply.

課題解決の手段5は、90℃以上の茹水に浸漬されている総茹時間が1分以上で、低温茹工程が総茹時間の90〜50%で、高温茹工程が総茹時間の10〜50%で、高温茹工程の茹水の温度が110〜140℃であるものです。  The means 5 for solving the problem is that the total dredging time immersed in brine at 90 ° C. or more is 1 minute or more, the low temperature dredging process is 90 to 50% of the total dredging time, and the high temperature dripping process is 10% of the total dredging time. It is ~ 50%, and the temperature of the brine in the high temperature dredging process is 110 ~ 140 ℃.

低温茹工程を総茹時間の90〜50%に限定することで、麺線は茹不足によるごわついた物性をなくして取り分けしなやかな物性を得ると共に、高温茹工程を110〜140℃に限定することで、麺線のアルファ化を高度に行うという作用を奏する。  By limiting the low-temperature cocoon process to 90-50% of the total cocoon time, the noodle strings get ridiculous physical properties due to shortage of cocoons, and give a flexible physical property, and the high-temperature cocoon process is limited to 110-140 ° C. By doing so, there is an effect of highly converting the noodle strings into alpha.

更に、課題解決の手段6では茹麺類を冷凍麺に限定し、凍結処理を行うことで高温茹でによる優れた品質をより長く保持流通させて茹麺の商業的価値を高めることができる。  Further, in the means 6 for solving the problem, by limiting the noodles to frozen noodles and performing the freezing process, it is possible to maintain and circulate excellent quality due to high-temperature koji for a longer time, thereby increasing the commercial value of the noodles.

本発明によれば、圧力容器に個別に投入する麺線にしなやかな物性を与え、また、麺線収容管のヘッドスペースの気圧変動を無くし麺線の動きにブレーキがかからないようにすることで、区画カゴ巡回方式で、圧力容器高圧下の高温茹上げ方法でありながら、麺線投入パイプの詰まりを防止し、麺線の大気解放下と圧力容器の出し入れを短時間で行うことや、麺線投入管をより多く設置して生産効率を高めることができる。  According to the present invention, the noodle strings individually fed into the pressure vessel are given flexible physical properties, and the pressure variation of the head space of the noodle string receiving tube is eliminated so that the movement of the noodle strings is not braked. Although it is a high-temperature soaking method under pressure vessel high pressure, it is possible to prevent the clogging of the noodle strings feeding pipe, to release the noodle strings in the atmosphere and to put in and out the pressure vessels in a short time. More input pipes can be installed to increase production efficiency.

その結果、茹上げ後の玉取機による計量を行うことなく食感に優れた冷凍茹麺が量産でき、0.5食分相当の凍結製品により新たな市場ニーズに対応できるという効果を奏する。  As a result, it is possible to mass-produce frozen rice bran noodles having a good texture without measuring with a ball taker after raising the rice, and it is possible to meet new market needs with frozen products equivalent to 0.5 servings.

本発明に先立ち検討した実験用の加圧釜と投入管の切り欠き正面図Notched front view of experimental pressure kettle and input tube examined prior to the present invention 図1の実験用加圧釜の投入管の改良状態を表した切り欠き正面図Notched front view showing an improved state of the input pipe of the experimental pressure kettle in FIG. 本発明の低温茹工程、高温茹工程、冷却工程を行う装置全体の側面略図Schematic side view of the entire apparatus for performing the low temperature soot process, the high temperature soot process and the cooling process of the present invention 図3の高温茹工程を行う圧力容器に立設された麺線投入管の側面略図FIG. 3 is a schematic side view of a noodle string charging tube erected in a pressure vessel for performing the high-temperature drought process of FIG. 図4の麺線投入管の正面略図Fig. 4 is a schematic front view of the noodle string inlet tube of Fig. 4. 図3の高温茹工程を行う圧力容器に吊設された麺線取出管の側面略図Schematic side view of the noodle string take-out pipe suspended from the pressure vessel that performs the high-temperature drought process of FIG. 図6の麺線取出管の正面略図Schematic front view of the noodle strip take-out pipe in FIG. 課題解決の手段2の特徴を表す麺線取出管の側面略図Side view schematic diagram of the noodle strip take-out pipe showing the features of the means 2 for solving the problem 課題解決の手段3の特徴を表す麺線投入管の側面略図Side view of the noodle string inlet tube showing the features of the means 3 for solving the problem 課題解決の手段3の特徴を表す高温茹工程を行う圧力容器と麺線投入管及び麺線取出管の側面略図Side view of pressure vessel, noodle string inlet tube, and noodle string outlet tube for performing high-temperature cocoon process, which represents the feature of means 3 for solving the problem 課題解決の手段4の特徴を表す麺線投入管の側面図Side view of the noodle string inlet tube showing the features of the means 4 for solving the problem 課題解決の手段4の特徴を表す麺線収容管の縦断面図Longitudinal cross-sectional view of a noodle string containing tube representing the characteristics of the means 4

以下、本発明を実施例より説明するが、本発明はこれら実施例より何ら限定されない。  EXAMPLES Hereinafter, although this invention is demonstrated from an Example, this invention is not limited at all from these Examples.

発明の手段1の特徴を、図3〜7より茹上後130gの茹うどんについて例示する。  The characteristic of the means 1 of invention is illustrated about the udon of 130g after raising from FIGS.

製麺工程より製出された3.3mm角の生うどん70〜80gを、シュート20により、8玉同時に低温茹槽21の8分画された茹カゴ21aに投入され、蓋閉め後、該無端チェーン21bにより98℃の熱水中を5分潜行した後、蓋を下向きに麺線投入管24の上に送られる。  70 to 80 g of 3.3 mm square raw udon produced from the noodle making process is put into the 8-folded basket 21 a of the low-temperature tank 21 at the same time by the chute 20, and after the lid is closed, the endless After being submerged in hot water at 98 ° C. for 5 minutes by the chain 21b, the lid is sent downward onto the noodle string inlet tube 24.

麺線投入管24は16セットあり、側面方向に8セット、ケース移動方向に2セット配置され、内側管バルブ24a、外側管バルブ24bは、共に通過内径40mmのフルボアのボールバルブで、麺線収容管24cは、最大内径80mm、容量1.2Lで、管の内壁は上下のバルブに向かってなだらかに絞られている。そして、麺線収容管24cには、大気通気管24gaと、圧力容器通気管24gbにつながる開口が中央部24caに設けられている。  There are 16 sets of noodle strings feeding pipes 24, 8 sets in the lateral direction and 2 sets in the case moving direction. The inner tube valve 24a and the outer tube valve 24b are both full-bore ball valves with a passing inner diameter of 40 mm. The tube 24c has a maximum inner diameter of 80 mm and a capacity of 1.2 L, and the inner wall of the tube is gently throttled toward the upper and lower valves. The noodle string housing tube 24c is provided with an air vent tube 24ga and an opening connected to the pressure vessel vent tube 24gb in the central portion 24ca.

茹カゴ21aを麺線投入管24の上で蓋を開け、茹でられた麺線を固定ホッパー21c、振り分けシュート21dを通してロート24dに投入する。この時、ロート24dには、麺線の投入に前後して熱水供給管24fにより90℃の熱水0.5Lが送られる。  The lid of the basket 21a is opened on the noodle string charging tube 24, and the boiled noodle string is charged into the funnel 24d through the fixed hopper 21c and the sorting chute 21d. At this time, 0.5 L of hot water of 90 ° C. is sent to the funnel 24d through the hot water supply pipe 24f before and after the noodle strings are introduced.

高温茹工程を行う圧力容器22に麺線を投入する際には、内側管バルブ24aが閉じられた状態で、三方バルブ24gにより大気通気管24gaを開けると同時に圧力容器通気管24gbを閉じ、次いで外側管バルブ24bを開ければ、麺線は1秒以下の瞬時に麺線収容管24cに流し込まれる。  When the noodle strings are put into the pressure vessel 22 for performing the high-temperature soaking process, the air vent tube 24ga is opened simultaneously with the three-way valve 24g while the inner tube valve 24a is closed, and at the same time the pressure vessel vent tube 24gb is closed. If the outer tube valve 24b is opened, the noodle strings are poured into the noodle string housing tube 24c in an instant of 1 second or less.

続いて麺線収容管24cに入った麺線は、外側管バルブ24bを閉じた後、三方バルブ24gにより大気通気管24gaを閉じると同時に圧力容器通気管24gbを開け、次いで内側管バルブ24aを開ければ、高温茹工程の圧力容器22内にある前後の分配ホッパー22c、茹カゴ追跡シュート22d1、22d2を、1秒以下の瞬時に通過させ、圧力容器22を循環する4分画の茹カゴ22a1と22a2同時に麺線は収容される。なお、全てのバルブの開閉はエア駆動装置24eにより予め設定した順番と時間(表1)により自動で行われる。  Subsequently, the noodle strings contained in the noodle string holding tube 24c can be closed after the outer tube valve 24b is closed, the air vent tube 24ga is closed by the three-way valve 24g and the pressure vessel vent tube 24gb is opened at the same time, and then the inner tube valve 24a is opened. For example, the front and rear distribution hoppers 22c and basket basket tracking chutes 22d1 and 22d2 in the pressure vessel 22 in the high temperature dredging process are instantaneously passed for 1 second or less, and the quadrant cage basket 22a1 circulating in the pressure vessel 22 The noodle strings are accommodated at the same time as 22a2. Note that all the valves are automatically opened and closed according to the order and time (Table 1) preset by the air driving device 24e.

そして、麺線収容後、茹カゴ22a1と22a2は蓋を閉め、該無端チェーン22bにより、ゲージ圧0.01MPa120℃の熱水中を2分潜行させて麺線を茹上げ、麺線取出管25の上迄、蓋を下向きに移送する。  After the noodle strings are stored, the baskets 22a1 and 22a2 are closed, and the endless chain 22b is submerged in hot water at a gauge pressure of 0.01 MPa and 120 ° C. for 2 minutes to raise the noodle strings, and the noodle string take-out pipe 25 Move the lid downwards to the top.

16セット配置ある麺線取出管25の其々の内側管バルブ25a、外側管バルブ25bは共に通過内径40mmのフルボアのボールバルブで開閉はエア駆動装置25eにより自動で行われ、麺線収容管25cは最大内径80mmの1.2Lの容量で、管の内壁が上下のバルブに向かってなだらかに絞られている点は麺線投入管24と同様だが、麺線収容管25cには24cにあった大気通気管24gaや、圧力容器通気管24gbや、それらにつながる開口はない。  The inner tube valve 25a and the outer tube valve 25b of the noodle string take-out pipe 25 having 16 sets are both full-bore ball valves with a passing inner diameter of 40 mm, and are automatically opened and closed by an air driving device 25e. Is a capacity of 1.2 L with a maximum inner diameter of 80 mm, and the point that the inner wall of the tube is gently squeezed toward the upper and lower valves is the same as the noodle string insertion tube 24, but the noodle string accommodation tube 25 c was at 24 c. There are no air vent pipe 24ga, pressure vessel vent pipe 24gb, or an opening connected to them.

茹カゴ22a1と22a2は麺線取出管25の上で2本同時に蓋を開け、高温茹工程を経て茹上げられた麺線を1列統合ホッパー22eにより8玉を1列に揃え、振り分けシュート22fを通し、内側管バルブ25aが閉じられた状態のロート25dに投入される。
この時、ロート25dには、麺線の投入に前後して水道水定量供給管26より常温水0.5Lが送られる。
The two baskets 22a1 and 22a2 are simultaneously opened on the noodle string take-out tube 25, and the noodle strings that have been raised through the high-temperature cocoon process are aligned in one row by one row integrated hopper 22e, and the sorting chute 22f And the inner pipe valve 25a is put into a closed funnel 25d.
At this time, 0.5 L of normal temperature water is sent to the funnel 25d from the tap water fixed amount supply pipe 26 before and after the noodle strings are introduced.

そして、外側管バルブ25bが閉じられた状態で内側管バルブ25aを開ければ、麺線は水と共に麺線収容管25cに瞬時に流し込まれ、次いで、内側管バルブ25aを閉じた後、外側管バルブ25bを開ければ、50〜60℃に冷やされた茹麺線は冷却槽内にあるシュート23cを通過し、8分画の蓋なしの冷却カゴ23aに投入される。表1には、麺線投入管24及び麺線取出管25における各操作の時間とそれらを合計した1サイクルの時間を示した。  If the inner tube valve 25a is opened while the outer tube valve 25b is closed, the noodle strings are instantaneously poured into the noodle string housing tube 25c together with water, and then the inner tube valve 25a is closed, and then the outer tube valve 25a is closed. If 25b is opened, the noodle strings cooled to 50 to 60 ° C. pass through the chute 23c in the cooling tank and are put into the cooling cage 23a without an 8-fold lid. Table 1 shows the time of each operation in the noodle string inlet tube 24 and the noodle string outlet tube 25 and the time of one cycle in total.

Figure 2014108108
Figure 2014108108

したがって、製出された0.5食相当の茹うどんは、麺線投入管24の操作時間を合計した65秒が麺線の投入取出しの1サイクル時間となり、16セットの麺線投入管で並行して処理するから1時間あたり11500玉を茹上げることができる。  Therefore, in the produced udon noodles equivalent to 0.5 meals, the total operation time of the noodle strings charging tube 24 is 65 seconds, which is one cycle time for loading and unloading the noodle strings. 11500 balls per hour can be raised.

冷却カゴ23aに収容された茹麺は、冷却槽23の冷却水面23L1、23L2、及び23L3の下を潜行しながら無端チェーン23bにより循環し、冷やされた茹麺線はシュート23dより8玉が2.5秒間隔で製出される。このようにして得られた茹うどんは、常圧下の98℃で同一水分に茹でられたうどんに比べ、もちもち感が強い優れた食感が得られる。そして、凍結型に収容し凍結、脱板すれば、食感に優れた0.5食相当の冷凍うどんを玉取りすることなく製造することができる。  The noodles stored in the cooling basket 23a are circulated by the endless chain 23b while submerging under the cooling water surfaces 23L1, 23L2, and 23L3 of the cooling tank 23, and the cooled noodle strings have 8 balls from the chute 23d. It is produced every 5 seconds. The udon obtained in this way has an excellent texture with a strong glutinous feeling compared to the udon boiled in the same moisture at 98 ° C. under normal pressure. And if it accommodates in a freezing mold and freezes and deplates, frozen udon equivalent to 0.5 meals excellent in texture can be produced without taking off.

次に、発明の手段2の特徴を図8より例示する。発明の手段2は、発明の手段1とは麺線取出管の操作のみ異なるため、麺線取出管25についてのみ説明する。  Next, the features of the means 2 of the invention are illustrated from FIG. Since the means 2 of the invention differs from the means 1 of the invention only in the operation of the noodle string extraction tube, only the noodle string extraction tube 25 will be described.

発明の手段2では、麺線収容管25cの中央部25caに大気通気管25gaと、圧力容器通気管25gbにつながる開口が設けられている。  In the means 2 of the invention, the air vent pipe 25ga and the opening connected to the pressure vessel vent pipe 25gb are provided in the central portion 25ca of the noodle string housing pipe 25c.

高温茹工程を経て茹上げられた麺線は、内側管バルブ25aが閉じられた状態のロート25dに投入される。この時、ロート25dには、麺線の投入に前後して水道水定量供給管26より常温水0.5Lが送られる。  The noodle strings that have been raised through the high-temperature cocoon process are put into a funnel 25d with the inner tube valve 25a closed. At this time, 0.5 L of normal temperature water is sent to the funnel 25d from the tap water fixed amount supply pipe 26 before and after the noodle strings are introduced.

そして、外側管バルブ25bが閉じられた状態で、三方バルブ25gにより大気通気管25gaを閉じると同時に圧力容器通気管25gbを開け、内側管バルブ25aを開ければ、麺線は1秒以下の瞬時に麺線収容管25cに流し込まれる。  Then, with the outer tube valve 25b closed, the three-way valve 25g closes the air vent tube 25ga and at the same time opens the pressure vessel vent tube 25gb and opens the inner tube valve 25a. It is poured into the noodle string receiving tube 25c.

次いで、内側管バルブ25aを閉じた後、三方バルブ25gにより大気通気管25gaを開けると同時に圧力容器通気管25gbを閉じ、次いで外側管バルブ25bを開ければ、50〜60℃に冷やされた茹麺線は冷却槽内にあるシュート23cを通過し、8分画の蓋なしの冷却カゴ23aに投入される。表2には、麺線取出管25における各操作の時間とそれらを合計した時間を示した。  Next, after closing the inner tube valve 25a, the air vent tube 25ga is opened by the three-way valve 25g, and at the same time the pressure vessel vent tube 25gb is closed, and then the outer tube valve 25b is opened. The wire passes through the chute 23c in the cooling tank and is put into the cooling cage 23a without a lid of eight fractions. Table 2 shows the time of each operation in the noodle string take-out tube 25 and the total time of them.

Figure 2014108108
Figure 2014108108

表2の麺線取出管25の1サイクル時間5秒は、発明の手段1の麺線投入管の5秒と変らないから、発明の手段2は発明の手段1同様に1時間あたり11500玉を茹上げることができる。  Since the cycle time 5 seconds of the noodle strip take-out tube 25 in Table 2 is not different from the 5 seconds of the noodle strand inlet tube of the means 1 of the invention, the means 2 of the invention is 11500 balls per hour as in the case of the means 1 of the invention. Can be raised.

そして、冷却カゴ23aに収容された茹麺は、圧力容器内の圧力によって噴出されることがないから、麺線の肌の状態は良好で、冷却水の濁りは軽度となる。  And since the crab noodles accommodated in the cooling basket 23a are not spouted by the pressure in the pressure vessel, the noodle strings have a good skin state and the cooling water is slightly turbid.

次に、発明の手段3の特徴を図9及び図10より例示する。麺線投入管27の麺線収容管27cは、最大内径60mm、容量0.6Lの容量の樽形管で、大気通気管27gaと圧力容器通気管27gbに通じる開口を27caと27cbに設けられている。そして、27cb以上の高い位置で三方バルブ27gに配管されている。  Next, the features of the means 3 of the invention are illustrated from FIGS. The noodle string storage tube 27c of the noodle string insertion tube 27 is a barrel tube having a maximum inner diameter of 60 mm and a capacity of 0.6 L, and openings that connect to the air vent tube 27ga and the pressure vessel vent tube 27gb are provided in 27ca and 27cb. Yes. And it is piped to the three-way valve 27g at a position higher than 27cb.

外側管バルブ27bが閉じられたロート27dには、低温茹工程を経た麺線110gが投入され、これに前後して熱水供給管27fより90℃の熱水0.4Lが送られている。  The funnel 27d with the outer tube valve 27b closed is charged with 110 g of noodle strings that have undergone a low-temperature drought process, and before and after this, 0.4 L of hot water of 90 ° C. is sent from the hot water supply tube 27f.

高温茹工程を行う圧力容器22に麺線を投入するには、内側管バルブ27aが閉じられた状態で、三方バルブ27gにより大気通気管27gaを開けると同時に圧力容器通気管27gbを閉じ、次いで外側管バルブ27bを開ければ、麺線を1秒以下の瞬時に麺線収容管27cに流し込むことができる。  In order to put the noodle strings into the pressure vessel 22 for performing the high-temperature soaking process, the air vent tube 27ga is opened by the three-way valve 27g while the inner tube valve 27a is closed, and at the same time the pressure vessel vent tube 27gb is closed, and then the outer side If the tube valve 27b is opened, the noodle strings can be poured into the noodle string receiving tube 27c in an instant of 1 second or less.

続いて麺線収容管27cに入った麺線は、外側管バルブ27bを閉じた後、三方バルブ27gにより大気通気管27ga閉じると同時に圧力容器通気管27gbを開け、次いで内側管バルブ27aを開ければ、高温茹工程の圧力容器内に1秒以内の瞬時に投入される。そして、これらの操作時間や1サイクル時間は発明の手段2と同じだから、発明の手段1及び2同様に1時間あたり11500玉を茹上げることができる。  Subsequently, the noodle strings entered in the noodle string accommodating tube 27c are closed by closing the outer tube valve 27b, then simultaneously closing the air vent tube 27ga by the three-way valve 27g, opening the pressure vessel vent tube 27gb, and then opening the inner tube valve 27a. Into the pressure vessel in the high-temperature soot process, it is charged instantly within 1 second. And since these operation time and 1 cycle time are the same as the means 2 of invention, 11500 balls per hour can be raised like the means 1 and 2 of invention.

そして、麺線投入管27と麺線取出管28の麺線収容管の容量が麺線収容管24cや25cの半分だから、麺線投入管27と麺線取出管28の背高や吊長より小さく抑えられ、フラットな床面に、低温茹槽、圧力容器、冷却水槽の3槽をレイアウトする場合に、高さを抑えやすくなる点で有利になる。  And since the capacity of the noodle strings receiving tube 27 and the noodle string extracting tube 28 is half that of the noodle string receiving tubes 24c and 25c, the noodle string inserting tube 27 and the noodle string extracting tube 28 are taller and more suspended. It is advantageous in that the height can be easily suppressed when three tanks of a low-temperature tank, a pressure vessel, and a cooling water tank are laid out on a flat floor surface.

次に、発明の手段4の特徴を図11及び12より例示する。麺線投入管29の麺線収容管29cは容量0.7Lのロート形管で、その内部構造は、通過内径40mmの管バルブ29bとフランジ29ccで固定され、フランジ29ccから天面29cdを貫き、通過路延長管29cbが内径40mmのまま下向きに突設されている。 そして、大気通気管29gaと圧力容器通気管29gbに通じる開口を、麺線収容管29cの上部29caに1か所設けられている。なお、通過路延長管29cbの29caの反対側が天面29cdの高さまで切り上がっているのは、洗浄時のエア溜を生じ難くする為である。  Next, the features of the means 4 of the invention are illustrated in FIGS. The noodle string receiving tube 29c of the noodle string insertion tube 29 is a funnel-shaped tube having a capacity of 0.7 L, and its internal structure is fixed by a tube valve 29b having a passage inner diameter of 40 mm and a flange 29cc, passing through the top surface 29cd from the flange 29cc, The passage extension tube 29cb protrudes downward with an inner diameter of 40 mm. An opening that communicates with the air vent pipe 29ga and the pressure vessel vent pipe 29gb is provided at one location in the upper part 29ca of the noodle string housing pipe 29c. The reason why the opposite side of 29ca of the passage extension pipe 29cb is rounded up to the height of the top surface 29cd is to make it difficult to generate an air reservoir during cleaning.

外側管バルブ29bが閉じられたロート29dには、低温茹工程を経た麺線110gが投入され、これに前後して熱水供給管29fより90℃の熱水0.5Lが送られている。  The funnel 29d with the outer tube valve 29b closed is charged with 110 g of noodle strings that have undergone the low-temperature drought process, and before and after this, 0.5 L of hot water at 90 ° C. is sent from the hot water supply tube 29f.

高温茹工程を行う圧力容器2922に麺線を投入するには、内側管バルブ29aが閉じられた後、通気バルブ29g2を閉じ、通気バルブ29g1を開ける。この時、三方バルブ29g3は大気と常時通じ洗浄配管29faを遮断している。次いで、外側管バルブ29bを開ければ、麺線を1秒以下の瞬時に麺線収容管29cに流し込むことができる。  In order to put the noodle strings into the pressure vessel 2922 for performing the high-temperature soaking process, after the inner tube valve 29a is closed, the ventilation valve 29g2 is closed and the ventilation valve 29g1 is opened. At this time, the three-way valve 29g3 always communicates with the atmosphere and shuts off the cleaning pipe 29fa. Next, if the outer tube valve 29b is opened, the noodle strings can be poured into the noodle string receiving tube 29c in an instant of less than 1 second.

続いて、麺線収容管29cに入った麺線は、外側管バルブ29bを閉じた後、通気バルブ29g1を閉じ、通気バルブ29g2を開けた後、内側管バルブ29aを開ければ、高温茹工程の圧力容器内に1秒以内の瞬時に投入することができる。  Subsequently, the noodle strings contained in the noodle string accommodating tube 29c are subjected to a high-temperature dripping process by closing the outer tube valve 29b, then closing the vent valve 29g1, opening the vent valve 29g2, and then opening the inner tube valve 29a. It can be charged into the pressure vessel instantly within 1 second.

そして、これらの1サイクルに要する時間は発明の手段1〜3と概ね同等だから、1時間あたり概ね11500玉を茹上げることができ、発明の手段3同様に麺線投入管全体の高さを低く抑えられ、麺線収容管に通じる通気配管をシンプルに組むことができる。  And since the time required for these one cycle is almost the same as the means 1 to 3 of the invention, it is possible to raise approximately 11,500 balls per hour, and as with the means 3 of the invention, the overall height of the noodle strings throwing pipe is lowered. It is possible to simply construct a ventilation pipe that is suppressed and leads to the noodle string housing pipe.

また、三方バルブ29g3の切換えにより洗浄配管29faと大気通気管29gaを連結し、バルブ29g1を開ければ、29g2の開閉により大気連通管29gaや圧力容器通気管gbや、麺線収容管29cの内部を熱水による洗浄することができる。  Further, by switching the three-way valve 29g3, the cleaning pipe 29fa and the air vent pipe 29ga are connected, and if the valve 29g1 is opened, the inside of the air communication pipe 29ga, the pressure vessel vent pipe gb, and the noodle string receiving pipe 29c is opened and closed by 29g2. It can be washed with hot water.

1 図1に示した実験用加圧釜
2 図1に示した全開通過径40mmの下側ボールバルブ
3 図1に示した、内径40mm、容量0.5Lのパイプ
4 図1に示した全開通過径40mmの上側ボールバルブ
5 図1に示した上に40°に開いたロート
6 図1に示した加圧状態の釜の内部カゴ
7 図1に示した加熱蒸気を噴出させる釜底部のノズル
8 図2の(A)に示した、内径40mm、容量1Lのパイプ
9 パイプ8の中央部
10 図2に示した大気通気管のエアバルブ
11 図2に示した釜内部通気管のエアバルブ
12 図2の(B)に示した、内径40mm、容量500mlのパイプ
13 パイプ12の上部
14 パイプ12の下部
20 図3に示した、低温茹槽の茹カゴに生うどんを投入させるシュート
21 図3に示した低温茹槽
21a 低温茹槽21を循環する8分画された茹カゴ
21b 茹カゴ21aを循環させる無端チェーン
21c 固定ホッパー
21d 振り分けシュート
22 高温茹工程を行う圧力容器
22a 圧力容器22を循環する4分画された茹カゴ
22a1 同時に麺線の供給を受ける2本の茹カゴ22aの進行前側
22a2 同時に麺線の供給を受ける2本の茹カゴ22aの進行後側
22b 茹カゴ22aを循環させる無端チェーン
22c 麺線投入管24から出た麺線8玉を前後4玉2列に分配するホッパー
22d1 ホッパー22cから出た麺線を茹カゴ22a1に投入させる追跡シュート
22d2 ホッパー22cから出た麺線を茹カゴ22a2に投入させる追跡シュート
22e 茹上がった4玉2列を8玉1列に揃える統合ホッパー
22f 統合ホッパー22eから出た麺線を8玉2列に分配するシュート
23 冷却水槽
23a 冷却水槽23を循環する8分画の蓋なしの冷却カゴ
23b 冷カゴ23aを循環させる無端チェーン
23c 冷却カゴ23aに茹で上がった麺線を投入するシュート
23d 冷やされた茹麺を次工程に送り出すシュート
23L1 冷却槽23の第1冷却水面
23L2 冷却槽23の第2冷却水面
23L3 冷却槽23の第3冷却水面
24 麺線投入管
24a 麺線投入管24の内側管バルブ
24b 麺線投入管24の外側管バルブ
24c 麺線投入管24の麺線収容管
24ca 麺線収容管24cの中央部位置
24d 麺線収容管24cへの入りを待たせるロート
24e バルブ駆動装置
24f ロート24dの熱水供給管
24g 麺線収容管24cの大気側と圧力容器の通気を切り替える三方バルブ
24ga 麺線収容管24cの大気通気管
24gb 麺線収容管24cの圧力容器通気管
25 麺線取出管
25a 麺線取出管25の内側管バルブ
25b 麺線取出管25の外側管バルブ
25c 麺線取出管25の麺線収容管
25ca 麺線収容管25cの中央部位置
25d 麺線収容管25cへの入りを待たせるロート
25g 麺線収容管25cの大気側と圧力容器の通気を切り替える三方バルブ
25ga 麺線収容管25cの大気通気管
25gb 麺線収容管25cの圧力容器通気管
26 水道水定量供給管
27 発明の手段3を説明する麺線投入管
27a 麺線投入管27の内側管バルブ
27b 麺線投入管27の外側管バルブ
27c 麺線投入管27の麺線収容管
27ca 麺線収容管27cの内側管バルブ27aに最も近い位置
27cb 麺線収容管27cの外側管バルブ27bに最も近い位置
27d 麺線収容管27cへの入りを待たせるロート
27f ロート27dの熱水供給管
27g 麺線収容管27cの大気側と圧力容器の通気を切り替える三方バルブ
27ga 麺線収容管27cの大気通気管
27gb 麺線収容管27cの圧力容器通気管
28 発明の手段3を説明する麺線投入管
29 発明の手段4を説明する麺線投入管
29a 麺線投入管29の内側管バルブ
29b 麺線投入管29の外側管バルブ
29c 麺線投入管29の麺線収容管
29ca 大気通気管29gaと圧力容器通気管29gbに通じる開口
29cb 麺線収容管の中で下向垂直に突設されている通過路延長管
29cc 管バルブ29bと固定する麺線収容管29cのフランジ部
29cd 麺線収容管29cの天面
29d 麺線収容管29cへの入りを待たせるロート
29f ロート29dの熱水供給管
29fa 熱水供給管29fと大気通気管29gaをつなぐ洗浄配管
29ga 麺線収容管29cの大気通気管
29gb 麺線収容管29cの圧力容器通気管
29g1 大気連通管29gaとの通気バルブ
29g2 圧力容器連通管29gbとの通気バルブ
29g3 大気側と洗浄配管29fa連結を切り替える三方バルブ
2922 高温茹工程を行う圧力容器
DESCRIPTION OF SYMBOLS 1 Pressurization pot for experiment shown in FIG. 1 Lower ball valve 3 of fully open passage diameter 40 mm shown in FIG. 1 Pipe 4 of inner diameter 40 mm and capacity 0.5L shown in FIG. 1 Fully open passage diameter shown in FIG. 40 mm upper ball valve 5 A funnel 6 opened at 40 ° as shown in FIG. 1 An inner basket 7 of a pressurized state shown in FIG. 1 A nozzle 8 at the bottom of the vessel for ejecting heated steam shown in FIG. 2 (A), pipe having an inner diameter of 40 mm and a capacity of 1 L 9 central portion 10 of pipe 8 Air valve 11 of the air vent pipe shown in FIG. 2 Air valve 12 of the hook internal vent pipe shown in FIG. B) Pipe having an inner diameter of 40 mm and a capacity of 500 ml shown in FIG. 3B. Upper part 14 of pipe 12 Lower part 20 of pipe 12 As shown in FIG. 3, chute 21 for feeding raw udon into the straw basket of the low-temperature tank shown in FIG. Tank 21a Low temperature tank 21 The endless chain 21c that circulates the cage basket 21a The fixed hopper 21d The distribution chute 22 The pressure vessel 22a that performs the high-temperature drought process The four-segment cage cage 22a1 that circulates the pressure vessel 22 The front side 22a2 of the two straw baskets 22a that receives the supply of the wire The rear side 22b of the two straw baskets 22a that receives the supply of the noodle strings at the same time The endless chain 22c that circulates the straw basket 22a A hopper 22d1 that distributes eight noodle strings into two rows in the front and back 22d2 A chute chute 22d2 that feeds the noodle strings from the hopper 22c into the basket 22a1 A chute chute 22e that feeds the noodle strings from the hopper 22c into the basket 22a2 An integrated hopper 22f that aligns two rows of 4 balls that are raised into one row of 8 balls 8 pieces of noodles that come out of the integrated hopper 22e Chute 23 distributed in two rows Cooling water tank 23a Eight-fraction lidless cooling basket 23b circulating through cooling water tank 23 Endless chain 23c circulating cold basket 23a Chute 23d for feeding noodle strings raised to cooling basket 23a Chute 23L1 for sending the noodles to the next process First cooling water surface 23L2 of the cooling tank 23 Second cooling water surface 23L3 of the cooling tank 23 Third cooling water surface 24 of the cooling tank 23 Noodle string charging pipe 24a Inside of the noodle string charging pipe 24 Tube valve 24b Outer tube valve 24c of noodle string input tube 24 Noodle string storage tube 24ca of noodle string input tube 24 Center position 24d of noodle string storage tube 24c Funnel 24e for waiting for entry into noodle string storage tube 24c Valve drive device 24f Hot water supply pipe 24g of funnel 24d Three-way valve 24ga for switching the atmosphere side of the noodle string receiving pipe 24c and the ventilation of the pressure vessel 24ga Air vent tube 24gb of the tube 24c Pressure vessel vent tube 25 of the noodle string storage tube 24c Noodle strip outlet tube 25a Inner tube valve 25b of the noodle strip outlet tube 25 Outer tube valve 25c of the noodle strip outlet tube 25 Noodles of the noodle strip outlet tube 25 Line housing tube 25ca Center portion position 25d of noodle string housing tube 25c Funnel 25g waiting to enter noodle string housing tube 25c Three-way valve 25ga for switching the atmosphere side of the noodle string housing tube 25c and the ventilation of the pressure vessel 25ga Noodle string housing tube 25c 25gb Pressure vessel vent pipe 26 of noodle string receiving pipe 25c Tap water constant supply pipe 27 Noodle string inlet pipe 27a for explaining the means 3 of the invention Inner pipe valve 27b of the noodle string inlet pipe 27 Outer tube valve 27c Noodle string receiving tube 27ca of noodle string receiving tube 27 Position 27cb closest to inner tube valve 27a of noodle string receiving tube 27c Outer tube valve 2 of noodle string receiving tube 27c The position 27d closest to 7b The funnel 27f that waits for entry into the noodle string receiving tube 27c The hot water supply pipe 27g of the funnel 27d The three-way valve 27ga for switching the air side of the noodle string receiving tube 27c and the ventilation of the pressure vessel 27ga Noodle string receiving tube 27c Air vent tube 27gb pressure vessel vent tube 28 of noodle string receiving tube 27c noodle string input tube 29 for explaining means 3 of the invention noodle string input tube 29a for explaining means 4 of the invention inner tube valve 29b of the noodle string input pipe 29 The outer tube valve 29c of the noodle string charging tube 29 The noodle string receiving tube 29ca of the noodle string charging tube 29 has an opening 29cb that communicates with the air vent tube 29ga and the pressure vessel vent tube 29gb. Passing passage extension pipe 29cc Flange portion 29cd of noodle string receiving pipe 29c to be fixed to the pipe valve 29b Top surface 29d of noodle string receiving pipe 29c Waiting for entry into the noodle string receiving pipe 29c Funnel 29f Hot water supply pipe 29fa of funnel 29d Cleaning pipe 29ga connecting hot water supply pipe 29f and air vent pipe 29ga Air vent pipe 29g of noodle string receiving pipe 29c Pressure vessel vent pipe 29g1 of noodle string receiving pipe 29c Ventilation valve 29g2 with 29ga Ventilation valve 29g3 with pressure vessel communication pipe 29gb Three-way valve 2922 for switching the atmosphere side and cleaning pipe 29fa connection Pressure vessel for performing high-temperature dredging process

Claims (6)

製麺工程で得られた10〜200gの単位の麺線を、複数に区画されたカゴに収容して移行させ、該麺線を大気圧下90℃以上の茹水で茹でる低温茹工程、低温茹工程に続いて、100℃を越える加圧環境下の茹水で茹上げる高温茹工程、高温茹工程に続いて、茹上げた麺線を冷却する冷却工程を備え、該カゴが、低温茹工程、高温茹工程、冷却工程の其々に独立した無端チェーンにより巡回し、高温茹工程のカゴが圧力容器に格納される茹麺類の製造方法であって、
該圧力容器における麺線の入れ出しが、該圧力容器内部に通じ上向きに連結された麺線投入管と該圧力容器内部に通じ下向きに連結された麺線取出管によるもので、
麺線投入管と麺線取出管が、共に該圧力容器に接する内側管バルブ、麺線収容管、外側管バルブの順で連結され、内外の管バルブを交互に開閉して麺線を通過させ、
該麺線投入管の麺線収容管には、大気と該圧力容器に通じる開口が設けられ、それらの通気管を通気バルブによって交互に開閉し、
麺線を入れる際は、該麺線投入管の麺線収容管を大気と通気して外側管バルブを開け、該低温茹工程のカゴから落下させた麺線を熱水と共に該麺線収容管に流し込み、次いで、該麺線収容管を圧力容器と通気して内側管バルブを開け、該麺線と熱水を該圧力容器内のカゴ内に流し込み、
麺線を出す際は、該麺線取出管の内側管バルブの上に予め麺線と水を待機させて内側管バルブを開け、該圧力容器内のカゴから落下させた麺線を水と共に該麺線収容管に流し込み、次いで、外側管バルブを開け麺線を水と共に該冷却工程のカゴ内に流し込むことを特徴とする高温茹上げ方法。
A low temperature koji process in which a unit of noodle strings of 10 to 200 g obtained in the noodle making process is accommodated and transferred in a plurality of compartmented baskets, and the noodle strings are boiled in boiling water at 90 ° C. or higher under atmospheric pressure, Subsequent to the cocoon process, the process includes a high-temperature cocoon process in which the noodle strings are brewed with a high-temperature cocoon process in which the water is brewed in a pressurized environment exceeding 100 ° C., and a cooling process in which the noodle strings are cooled. It is a method for producing crab noodles in which the cage of the high-temperature cocoon process is stored in a pressure vessel, which is circulated by an endless chain independent of each of the process, the high-temperature cocoon process, and the cooling process,
The noodle strings in and out of the pressure vessel are connected to the inside of the pressure vessel by an upwardly connected noodle wire input pipe and the noodle string take-out pipe connected to the inside of the pressure vessel downwardly,
The noodle string inlet tube and the noodle string outlet tube are connected together in the order of the inner tube valve, the noodle string receiving tube, and the outer tube valve, which are in contact with the pressure vessel. The inner and outer tube valves are alternately opened and closed to allow the noodle strings to pass through. ,
The noodle string receiving tube of the noodle string charging tube is provided with openings that communicate with the atmosphere and the pressure vessel, and the vent tubes are alternately opened and closed by a vent valve,
When inserting the noodle strings, the noodle strings receiving tube of the noodle string input tube is vented to the atmosphere to open the outer tube valve, and the noodle strings dropped from the basket of the low temperature cooking process together with hot water are added to the noodle string receiving tube. Then, the noodle strings containing tube is vented to the pressure vessel to open the inner tube valve, and the noodle strings and hot water are poured into the basket in the pressure vessel,
When taking out the noodle strings, the noodle strings and water are made to wait in advance on the inner tube valve of the noodle string extraction tube, the inner tube valve is opened, and the noodle strings dropped from the basket in the pressure vessel together with the water A high-temperature soaking method characterized by pouring into a noodle string housing tube and then opening an outer tube valve and pouring the noodle string with water into the basket of the cooling step.
前記麺線取出管の麺線収容管に、大気と該圧力容器に通じる開口が設けられ、それらの通気管を通気バルブによって交互に開閉し、麺線を出す際、該麺線取出管の麺線収容管を該圧力容器と通気した後に内側管バルブを開け、該麺線収容管を大気と通気した後に外側管バルブを開けることを特徴とする、請求項1に記載の高温茹上げ方法。  The noodle string storage tube of the noodle string extraction tube is provided with openings that communicate with the atmosphere and the pressure vessel. When the noodle strings are drawn out by alternately opening and closing the ventilation tubes by the ventilation valve, the noodles of the noodle string extraction tube The high-temperature hoisting method according to claim 1, wherein the inner tube valve is opened after ventilating the wire housing tube with the pressure vessel, and the outer tube valve is opened after ventilating the noodle string housing tube with the atmosphere. 前記麺線収容管に、大気と前記圧力容器に通じる開口が上下2か所設けられ、該麺線収容管に麺線を流し込む際は、該麺線収容管の上下2か所から通気させることを特徴とする、請求項1または2に記載の高温茹上げ方法。  The noodle strings receiving pipe is provided with two openings at the top and bottom to communicate with the atmosphere and the pressure vessel. When the noodle strings are poured into the noodle string receiving pipe, the noodle string receiving pipe is vented from the top and bottom two positions. The high-temperature hoisting method according to claim 1 or 2, characterized in that: 前記麺線収容管の上からの通過路延長管が該麺線収容管の内部天面に突設され、大気及び圧力容器に通じる開口が、該天面に突設された該通過路延長管の下端より上に設けられていることを特徴とする、請求項1または2に記載の高温茹上げ方法。  The passage extension tube from above the noodle string storage tube is projected on the inner top surface of the noodle string accommodation tube, and the passage leading to the atmosphere and the pressure vessel is projected on the top surface. The high-temperature hoisting method according to claim 1, wherein the method is provided above the lower end of the hot plate. 90℃以上の茹水に浸漬されている総茹時間が1分以上で、低温茹工程が総茹時間の90〜50%で、高温茹工程が総茹時間の10〜50%で、高温茹工程の茹水の温度が110〜140℃であることを特徴とする、請求項1〜4のいずれかに記載の高温茹上げ方法。  The total dripping time immersed in the water of 90 ° C or higher is 1 minute or more, the low temperature dredging process is 90-50% of the total dredging time, the high temperature dripping process is 10-50% of the total dredging time, The high-temperature dripping method according to any one of claims 1 to 4, wherein the temperature of the brine in the process is 110 to 140 ° C. 茹麺類が冷凍麺であることを特徴とする、請求項1〜5のいずれかに記載の高温茹上げ方法。  The method for raising a high temperature according to any one of claims 1 to 5, wherein the noodles are frozen noodles.
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