TW200417322A - Method and device for continuously forming dough blocks - Google Patents
Method and device for continuously forming dough blocks Download PDFInfo
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- TW200417322A TW200417322A TW92104901A TW92104901A TW200417322A TW 200417322 A TW200417322 A TW 200417322A TW 92104901 A TW92104901 A TW 92104901A TW 92104901 A TW92104901 A TW 92104901A TW 200417322 A TW200417322 A TW 200417322A
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200417322 玖、發明說明 【發明所屬之技術領域】 本發明機械製麵疙瘩之製法包含將麵粉、食鹽、品質 改良劑之混合物以乾粉混合機充分攪拌後,接著進入調質 機中,在調質機同時注入水,利用大小不均一,轉速不相 同的攪拌棒進行和麵的動作,同時使麵糰初步形成麵筋, 接著將此麵糰藉由進料機定量送入擠壓機中,在擠壓機g 可以接受特定的溫度範圍之加熱,且藉由擠壓機螺軸提供 適當的滯留時間及混合、揉捏之作用後,使麵檲中的麵筋 充分形成,接著藉由末端螺軸的剪切力作用,將麵糰切斷 成約1 - 3公分大小不均一的小圓塊,不均一的小圓塊可模 擬手工麵疙瘩大小不均一的特性。接著將不均一的小圓塊 送入可控制溫度及濕度的調質滾筒中,使小圓塊的溫度控 制在45 - 55°C,水分含量在15-25%。接著使用波浪型滾輪 進行壓延,滾輪內需有冷卻裝置藉以控制溫度,此時小 塊的溫度應高於Tg(玻璃轉換溫度),使小圓塊的流變現象 落在橡膠狀態(Rubbery State),以便得到最佳的壓延效 果,且避免小圓塊壓延後黏在滾輪上,波浪型滾輪進行壓 延的效果可模擬手工麵疙瘩製作時之不均勻的拉扯力及壓 延力,最後可得連續化機械製程所生產之麵疙瘩產品。 【先前技術】 |續次頁 (發明說明頁不敷使用時’請註記並使用續頁) 200417322 發明說明H頁 目前市售之麵疙瘩產品’皆是以手工方式生產,生產過程 費工費時,且衛生條件與品質均一性皆無法控制。但目前 尙無機械化製程之麵疙瘩產品之相關專利或文獻發表。 【內容】 本發明特徵爲以中筋麵粉爲原料,每100份重之中筋 麵粉原料中添加0.5-1.5份重的食鹽及0. 1-1份重的海藻 酸鈉粉末,以絲帶混合機A攪拌混合3-10分鐘使其均句 後,接著調整進料機之進料速率至40-60kg/hr,將上述乾 粉混合物送入可調溼的調質機B1中,調質機B1是一種由 兩根不同尺寸與不同轉速的攪拌漿所形成,控制大攪拌漿 11的轉速在110 -140 rpm,而小攪拌漿10的轉速在375 -450 rpm,並在調質機B1中加入10-20 kg/hr的水,使其 在調質機B1內快速攪拌作用約3分鐘後,使麵筋的網狀結 構形成並變成一水分含量約爲35%的濕濡混合物,再將此 濕濡混合物由進料口投入雙軸擠壓機B中,雙軸擠壓機# 的螺軸長度與螺軸直徑的比値(L/D)爲16.5-25.5 ’螺軸 組態B3的排列方式以單螺翅螺軸20爲主,如此可避免過 大的螺軸剪切力產生造成麵糰中麵筋及澱粉結構的破壞’ 最末端的螺軸採用錐形螺軸2 1,錐形螺軸2 1的收縮角度 θ 1爲40 - 50度,錐形螺軸21的長度爲75 - 85mm,藉由錐 形螺軸21的剪切力作用,將麵糰切斷成約1-3公分大小不 均一的小圓塊,不均一的小圓塊可模擬手工麵疙瘩大小不 均一的特性。擠壓機B的套筒溫度的設定必須爲前低(30 - 200417322200417322 发明, Description of the invention [Technical field to which the invention belongs] The method for making mechanical noodles according to the present invention includes fully mixing a mixture of flour, salt, and quality improving agent in a dry powder mixer, and then entering the conditioner. At the same time, inject water, and use the mixing rods of different sizes and different rotation speeds to make dough. At the same time, the dough is initially formed into gluten. Then, the dough is fed into the extruder by a feeder. Can accept heating in a specific temperature range, and provide the appropriate residence time and mixing and kneading by the screw of the extruder, so that the gluten in the noodle can be fully formed, and then by the shear force of the end screw The effect is to cut the dough into small pieces of uneven size of about 1-3 cm. The uneven small pieces can simulate the characteristics of uneven size of the handmade noodles. Then send the non-uniform small pieces into the tempering drum which can control the temperature and humidity, so that the temperature of the small pieces is controlled at 45-55 ° C, and the moisture content is 15-25%. Next, a wave-shaped roller is used for rolling. A cooling device is needed in the roller to control the temperature. At this time, the temperature of the small block should be higher than Tg (glass transition temperature), so that the rheology of the small block falls in the rubber state (Rubbery State). In order to obtain the best rolling effect, and avoid sticking to the roller after rolling the small block, the rolling effect of the wave-shaped roller can simulate the uneven pulling force and rolling force during the production of handmade noodles. Finally, continuous machinery can be obtained. Noodle products produced by the manufacturing process. [Prior technology] | Continued pages (When the description page of the invention is insufficient, please note and use the continuation page) 200417322 Invention page H The current noodle products on the market are produced by hand, and the production process takes time and labor. And sanitary conditions and uniformity of quality cannot be controlled. However, at present, there is no mechanized process, and related patents or literature of products have been published. [Content] The present invention is characterized in that medium-gluten flour is used as a raw material, and 0.5-1.5 parts by weight of table salt and 0.1-1-1 parts by weight of sodium alginate powder are added to each 100 parts by weight of the medium-gluten flour material, and stirred by a ribbon mixer A After mixing for 3-10 minutes to make it even, then adjust the feed rate of the feeder to 40-60kg / hr, and send the dry powder mixture into the humidity-adjustable conditioner B1, which is a kind of Two different sizes and different speeds of mixing pulp are formed. Control the speed of the large mixing pulp 11 at 110-140 rpm, and the speed of the small mixing pulp 10 at 375-450 rpm. Add 10-20 to the quenching and tempering machine B1. kg / hr of water, after it is rapidly stirred in the quenching and tempering machine B1 for about 3 minutes, the gluten network structure is formed and turned into a wet mixture with a moisture content of about 35%. The feed port is put into the biaxial extruder B. The ratio of the length of the screw shaft to the diameter of the screw shaft 値 (L / D) of the dual shaft extruder # is 16.5-25.5. The arrangement of the screw shaft configuration B3 is a single screw. The wing screw shaft 20 is mainly used to avoid the damage of the gluten and starch structure in the dough caused by excessive shear force of the screw shaft. The screw shaft at the end adopts the tapered screw shaft 21, the contraction angle θ 1 of the tapered screw shaft 21 is 40-50 degrees, and the length of the tapered screw shaft 21 is 75-85 mm. The force acts to cut the dough into small pieces of uneven size of about 1-3 cm. The uneven small pieces can simulate the characteristics of uneven size of the handmade noodles. The sleeve temperature of extruder B must be set to the front low (30-200417322
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40°C )、中高(110-130°C )、後低( 50-80°C )之加熱條件,此 套筒溫度設定之目的在於使麵糰的溫度高於Tg (玻璃轉換 溫度),以便調質滾筒C調質後小圓塊的流變現象能落在橡 膠狀態(Rubbery State),且由 M. LeMeste 等人,1992 年 在”CEREAL FOODS WORLD”期刊中所發表的”Glass Transition of Bread”中有提到麵糰橡膠狀態(Rubbery State),可作爲麵糰的溫度是否高於Tg(玻璃轉換溫度)的 依據;接著設定螺軸轉速60-10Grpm,經過套筒B2內螺 的混合、揉捏、加熱及剪切作用後,可得尺寸約1-3公分 大小不均一的小圓塊,接著將不均一的小圓塊送入可控制 溫度及濕度的調質滾筒C中,使小圓塊的溫度控制在45-55 °C,水分含量在15-25¾ ,經過振動篩D後再使用波浪型 滾輪E1進行壓延,波浪型滾輪E1的波形結構爲波長30: 振幅31 = 7-10,滾輪內需有冷卻裝置藉以控制溫度,避免 過熱導致小圓塊溫度上升而過黏,此時小圓塊的溫度應高 於Tg(玻璃轉換溫度),以便得到最佳的壓延效果,且避| 小圓塊壓延後黏在滾輪上,波浪型滾輪E1壓延的效果可模 擬手工麵疙瘩製作時之不均勻的拉扯力及壓延力,最後可 得連續化機械製程所生產之麵疙瘩產品,最後再進行冷卻/ 或乾燥工程後可得成品。本發明可藉由品質改良劑、製程 條件來控制麵糰在調質機B1及擠壓機B內所接受之熱能、 揉捏力及剪切力,並分切成大小不同的小圓塊,此製成可 以模擬手工麵疙痦大小不均一的特性。接著控制小圓塊的 溫度,使其高於Tg(玻璃轉換溫度),使小圓塊的流變狀態40 ° C), medium high (110-130 ° C), low back (50-80 ° C) heating conditions. The purpose of this sleeve temperature setting is to make the temperature of the dough higher than Tg (glass transition temperature) in order to adjust The rheological phenomenon of small round blocks after the quenching and tempering of mass roller C can fall in the rubber state (Rubbery State), and was published by M. LeMeste et al., "Glass Transition of Bread" in "CEREAL FOODS WORLD" in 1992 It mentioned that the rubber state of the dough (Rubbery State) can be used as a basis for whether the temperature of the dough is higher than Tg (glass transition temperature); then set the screw shaft speed of 60-10Grpm, after mixing, kneading, After heating and shearing, small round blocks of about 1-3 cm in size can be obtained, and then the non-uniform round blocks are sent to the tempering drum C, which can control the temperature and humidity, so that the small round blocks The temperature is controlled at 45-55 ° C, and the moisture content is 15-25¾. After passing through the vibrating screen D, the wave roller E1 is used for rolling. The wave structure of the wave roller E1 is wavelength 30: amplitude 31 = 7-10. There is a cooling device to control the temperature to avoid overheating leading to small The block temperature rises and becomes too sticky. At this time, the temperature of the small round block should be higher than Tg (glass transition temperature) in order to obtain the best rolling effect, and avoid | the small round block is stuck on the roller after rolling, and the wave-shaped roller E1 is rolled. The effect can simulate the uneven pulling force and calendering force of the handmade noodles. Finally, the noodles produced by the continuous mechanical process can be obtained. Finally, the finished product can be obtained after cooling / or drying. According to the present invention, the heat energy, kneading force and shearing force received by the dough in the conditioner B1 and the extruder B can be controlled by the quality improver and the process conditions, and cut into small pieces of different sizes. It can be made to simulate the characteristics of uneven size of handmade noodles. Then control the temperature of the pellets above Tg (glass transition temperature) to make the rheology of the pellets
200417322200417322
落在橡膠狀態(Rubbery state),以便得到最佳的壓延效 果。而波浪型滾輪E1壓延的效果可模擬手工麵疙瘩製作時 之不均勻的拉扯力及壓延力,最後可得連續化機械製程所 生產之麵疙瘩產品。本發明中各品質改良劑及各製程處理 的功能說明如下= 食鹽的添加,係幫助麵糰的麵筋形成,並阻礙酵素活 動,並有調味之功能。 海藻酸鈉粉末的添加,係改良麵糰的黏彈性,並增加y 型後麵疙瘩的食感,使其達商業化之價値。 混合機A係以絲帶狀混合機爲宜,其粉體添加量佔混合 機總體積的1/2至2/3,以達到充分混合均勻之目的。 調質機B1必須要有加水及充分攪拌的功能,控制大攪 拌漿11及小攪拌漿10的轉速,並在調質機B1中加入水, 使其在調質機B1內快速攪拌後,使麵筋的網狀結構形成。 擠壓機B的螺軸長度與麵筋的發展有關,螺軸組態B3 的排列方式以單螺翅螺軸20爲主,如此可減少螺軸的剪t 力,且藉由錐形螺軸21的剪切力作用,可將麵糰切成大小 不均一的小圓塊。擠壓機B的套筒溫度的設定必須爲前低 (30-40°C )、中高(110-130°C )、後低(50-8(TC )之加熱條 件,此套筒溫度設定之目的在於使後段調質後麵檲的溫度 能高於Tg(玻璃轉換溫度)。 波浪型滾輪E1進行壓延,滾輪內需有冷卻裝置藉以控 制溫度,此時小圓塊的溫度應高於Tg(玻璃轉換溫度),並 使小圓塊的流變現象落在橡膠狀態(Rubbery State),以便Fall in the rubbery state for the best rolling results. The rolling effect of the wave-shaped roller E1 can simulate the uneven pulling force and calendering force of the handmade noodle making process, and finally the noodle product produced by the continuous mechanical process can be obtained. The functions of each quality improver and process in the present invention are explained as follows: The addition of common salt helps the gluten formation of the dough, hinders enzyme activity, and has the function of seasoning. The addition of sodium alginate powder improves the viscoelasticity of the dough and increases the texture of the back of the y-shape, making it commercially viable. Mixer A is preferably a ribbon-shaped mixer, whose powder content accounts for 1/2 to 2/3 of the total volume of the mixer, in order to achieve the purpose of sufficient mixing and uniformity. The quenching and tempering machine B1 must have the function of adding water and sufficient stirring, control the rotation speed of the large stirring pulp 11 and the small stirring pulp 10, and add water to the quenching and tempering machine B1, so that it is quickly stirred in the quenching and tempering machine B1, so that The network structure of gluten is formed. The length of the screw shaft of the extruder B is related to the development of gluten. The arrangement of the screw shaft configuration B3 is based on the single screw wing screw shaft 20, which can reduce the shear t force of the screw shaft. The shearing force can cut the dough into small round pieces of uneven size. The sleeve temperature setting of extruder B must be the heating conditions of front low (30-40 ° C), medium high (110-130 ° C), and rear low (50-8 (TC)). The purpose is to make the temperature of the rear quenching and tempering higher than Tg (glass transition temperature). The wave-shaped roller E1 is rolled and a cooling device is needed to control the temperature. At this time, the temperature of the small block should be higher than Tg (glass Change the temperature), and make the rheology of the small blocks fall into the rubber state (Rubbery State), so that
200417322200417322
得到最佳的壓延效果,波浪型滾輪El壓延的效果可模擬手 工麵疙瘩製作時之不均勻的拉扯力及壓延力。 本發明之生產工程圖如圖1,而本發明所生產之麵疙瘩 產品形式可以爲乾燥麵疙瘩、冷凍麵疙瘩或冷藏麵疙瘩。 【實施方式】 原料之比例係每100份重之中筋麵^原料中添加1.2份 重食鹽及0.3份重之海藻酸納粉末,以絲帶混合機A攪% 5分鐘,接著調整進料機之進料速率50kg/hr,將上述乾Θ 混合物送入可調溼的調質機B1中,並在調質機B1中加入 12.5 kg/hr的水,使混合物在調質機B1內作用約3分鐘 後,形成水分含量約35%之的濕濡混合物,再由進料口投 入雙軸擠壓機B中,雙軸擠壓機B的螺軸長度與螺軸直徑 的比値(L/D)爲25.5,螺軸組態B3的排列方式以單螺翅 螺軸20爲主,最末端的螺軸採用錐形螺軸21,錐形螺軸 21的收縮角度Θ1爲44度,錐形螺軸21的長度爲80mm|| 藉由錐形螺軸21的剪切力作用,將麵糰切斷成約1-3公β 大小不均一的小圓塊「參閱圖10」,擠壓機Β的套筒溫度 的設定必須爲前低(40°C )、中高(90°C )、後低(65°C )之加 熱條件,螺軸轉速80rpm,以提供不均一的小圓塊在套筒 B2的混合、揉捏及加熱作用,接著將不均一的小圓塊送入 可控制溫度及濕度的調質滾筒C中,使小圓塊的溫度在54 °C,水分含量在17%,此溫度與水分含量正可使溫度高於 Tg(玻璃轉換溫度),並使小圓塊的流變現象落在橡膠狀態 2QQ417322 (Rubbery State),經過過篩後再使用波浪型滾輪El進行 壓延,波浪型滾輪El的波形結構爲波長30:振幅31 = 8.4, 波浪型滾輪E1壓延的效果可模擬手工麵疙瘩製作時之不 均勻的拉扯力及壓延力,如此可得連續化機械製程所生產 之麵挖瘩產品「參閱圖9,圖10」。 【圓式簡單說明】 r 第一圖係本發明連續化機械製麵疙瘩之生產工程圖; 第二圖係本發明調質機之示意圖; 第;圖係本發明調質機之大小攪拌棒剖視圖; 第四圖係本發明螺軸組態中單螺翅螺軸及錐形螺軸之剖 視圖, 第五圖係本發明錐形螺軸之側視圖; 第六圖係本發明波浪形滾輪之剖視圖; 第七圖係本發明波浪形滾輪之側視圖; 第八圖係本發明小圓塊之照相圖; . 第九圖係本發明生鮮麵疙瘩之照相圖,圖中可見波浪开2 滾輪壓延後之生麵疙瘩成弧度狀的表面; 第十圖係本發明水煮後麵疙瘩之照相圖; :兑 Λ A 絲帶混合機 B 擠壓機 ft::: 1:: B1 調質機 B2 套筒 B3 螺軸組態 C 調質滾筒 D 振動篩 E 壓延機 l£ El 波浪形滾輪 10 小攪拌棒 200417322 ill if' i:-r . 11 大攪拌棒 20 Ά . ?j·. 21 錐形螺軸 ύ U * fe ‘ 30 波浪形滾輪波形結構之波長 | . «Λ 31 波浪形滾輪波形結構之振幅 Θ 1 內縮角度 單螺翅螺軸 |.释 i. 10The best rolling effect is obtained, and the rolling effect of the El roll can simulate the uneven pulling force and rolling force of the manual surface. The production engineering drawing of the present invention is shown in Fig. 1, and the product form of the noodles produced by the present invention may be dry noodles, frozen noodles, or refrigerated noodles. [Embodiment] The ratio of raw materials is 1.2 parts by weight of salt and 0.3 parts by weight of sodium alginate powder per 100 parts of medium-gluten noodles. Stir with the ribbon mixer A for 5 minutes, and then adjust the feed of the feeder. The feed rate is 50kg / hr. The above dry Θ mixture is sent to a humidity-adjustable conditioner B1, and 12.5 kg / hr of water is added to the conditioner B1, so that the mixture acts in the conditioner B1 for about 3 minutes. After that, a wet mash mixture with a moisture content of about 35% is formed, and then fed into the biaxial extruder B through the feed port. The ratio of the length of the screw shaft of the biaxial extruder B to the diameter of the screw shaft 値 (L / D) It is 25.5, and the arrangement of the screw shaft configuration B3 is mainly a single screw wing screw shaft 20. The screw shaft at the end uses a tapered screw shaft 21, and the contraction angle Θ1 of the tapered screw shaft 21 is 44 degrees. The tapered screw shaft The length of 21 is 80mm || The dough is cut into small round pieces of uneven size 1-3 by the shearing force of the conical screw shaft 21 "see Figure 10", the sleeve of the extruder B The temperature setting must be the heating conditions of front low (40 ° C), middle high (90 ° C), and rear low (65 ° C). The screw shaft speed is 80rpm to provide uneven small blocks in the sleeve. Mixing, kneading, and heating of cylinder B2, and then sending the non-uniform small pieces into the quenching and tempering drum C, which can control the temperature and humidity, so that the temperature of the small pieces is 54 ° C and the moisture content is 17%. This temperature and moisture content can make the temperature higher than Tg (glass transition temperature), and make the rheology of the small blocks fall into the rubber state 2QQ417322 (Rubbery State). After sieving, the wave roller El is used for rolling. The wave structure of the wave-shaped roller El is a wavelength of 30: amplitude 31 = 8.4. The rolling effect of the wave-shaped roller E1 can simulate the uneven pulling force and rolling force of the handmade noodle making process. In this way, the continuous mechanical process can be obtained. Surface digging products "refer to Figure 9, Figure 10". [Circular brief description] r The first diagram is a production engineering drawing of the continuous mechanical dough sheet of the present invention; the second diagram is a schematic diagram of the tempering machine of the present invention; the second; the diagram is a sectional view of the stirring bar of the tempering machine of the present invention The fourth figure is a cross-sectional view of a single helical screw shaft and a tapered screw shaft in the screw shaft configuration of the present invention, the fifth figure is a side view of the tapered screw shaft of the present invention; the sixth figure is a cross-sectional view of a wavy roller of the present invention The seventh picture is a side view of the wavy roller of the present invention; the eighth picture is a photographic view of the small block of the present invention; the ninth picture is a photographic view of the fresh noodles of the present invention. The raw surface is curved into an arc-shaped surface; the tenth picture is a photograph of the boiled surface of the present invention;: Λ A ribbon mixer B extruder ft ::: 1 :: B1 tempering machine B2 sleeve B3 screw shaft configuration C quenching roller D vibrating screen E calender l £ El wave roller 10 small stirring rod 200417322 ill if 'i: -r. 11 large stirring rod 20 Ά.? J ·. 21 conical screw shaft ύ U * fe '30 Waveform Waveform Wavelength of Wave Structure |. «Λ 31 Waveform Roller Shaped configuration of the amplitude of the angle Θ 1 compression single screw wing screw shaft |. Explanation i 10.
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TW92104901A TW200417322A (en) | 2003-03-07 | 2003-03-07 | Method and device for continuously forming dough blocks |
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TW92104901A TW200417322A (en) | 2003-03-07 | 2003-03-07 | Method and device for continuously forming dough blocks |
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TW200417322A true TW200417322A (en) | 2004-09-16 |
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2003
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