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研究生: 陳冠瑋
Chen, Guan-Wei
論文名稱: 真空油炸對即食米薯條理化性質的影響
Effect of vacuum frying on the physicochemical properties of instant rice fries
指導教授: 林貞信
Lin, Jenshinn
余旭勝
Yu, Hsu-Sheng
學位類別: 碩士
Master
系所名稱: 農學院 - 食品科學系所
Department of Food Science
畢業學年度: 107
語文別: 中文
論文頁數: 117
中文關鍵詞: 米薯條米穀粉義大利製麵機真空油炸即食點心
外文關鍵詞: rice fries, rice flour, Italian pasta machine, vacuum frying, instant snack
DOI URL: http://doi.org/10.6346/NPUST201900309
相關次數: 點閱:28下載:0
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  • 國產稻米為國人的主食之一,但近年來由於西方飲食文化的衝擊,國人食米消費量顯示逐年減少,而西方之速食產業蓬勃發展,薯條也成為世界知名的速食之一,最近更是開發了常溫即食薯條點心的市場。因此,為了讓更多消費者可以增加稻米的攝食量,與西方流行之即食點心做結合,本研究進行米薯條產品的量產試驗,並以真空油炸試驗開發即食米薯條,探討不同米薯條配方(40與50%米穀粉)、油炸溫度(90、100與110℃)以及油炸時間(15、17.5與20分鐘)對米薯條品質的影響。研究結果顯示,米薯條的含水量隨著油炸溫度和油炸時間的增加而降低,而含油量則增加。一般來說,米薯條含50%米穀粉的含油量低於40%米穀粉的含油量。這意味著米穀粉的含量會顯著影響即食米薯條的含油量。最後,選擇具有與市售薯條C相近的水分含量、含油量、顏色、硬度和截切力的即食米薯條進行感官品評試驗。將40%米穀粉含量的米薯條和50%米穀粉含量的米薯條在真空中油炸。真空油炸溫度為100℃,油炸時間為17.5分鐘,即食米薯條在硬度、脆度和總體接受性方面最接近市售薯條C,並且含40%米穀粉的米薯條在真空油炸溫度為100℃及油炸時間為17.5分鐘時,得到最高的整體接受度,本研究目標在能開發出具特色的即食米薯條產品,並以此加值台灣米食產業。

    Domestic rice is one of the staple foods of Taiwanese. However, due to the impact of western food culture, the consumption of rice in the country has been decreasing year by year. The fast food industry in the west has flourished, and French fries have become one of the world-famous fast foods. Recently, it has also developed a market for instant fries snacks. Therefore, in order to allow more consumers to increase the food intake of rice, combined with the popular western snacks. In this study, the mass production test of rice fries products was carried out, and the instant rice fries were developed by vacuum frying test to explore different rice fries formulas (40 and 50% rice flour) and frying temperature (90, 100 and 110 ℃) and the effect of frying time (15, 17.5 and 20 minutes) on the quality of rice fries. Results of this study showed that the moisture content of instant rice fries was decreased along with increasing frying temperature and frying time, whereas the oil content would be increased. In general, the oil content of instant rice fries with 50 % rice flour was lower than that with 40% rice flour. It means that the content of rice flour would significantly affect the oil content of instant rice fries. Last, the instant rice fries, having the same moisture content, oil content, color, hardness and cutting force close to the commercial potato fries C, was chosen for sensory evaluation test. 40% rice flour content rice fries and 50% rice flour content rice fries were fried in the vacuum. The vacuum frying temperature, 100 ℃, and the frying time, 17.5 minutes, obtained instant rice fries were most close to the commercial potato fries C in terms of hardness, brittleness and overall acceptance. The formula of rice fries with 40% rice flour vacuum fried at 100℃ achieved the highest overall acceptance. The goal of this research is to develop a distinctive instant rice fries product, which will add value to the Taiwanese rice industry.

    摘要 I
    Abstract III
    謝誌 V
    目錄 I
    圖目錄 I
    表目錄 II
    第1章 前言 1
    第2章 文獻回顧 3
    2.1稻米與米穀粉 3
    2.1.1稻米簡介 3
    2.1.2台灣稻米近況 5
    2.1.4稻米產業應用現況與未來發展 7
    2.1.3米穀粉 8
    2.2.1馬鈴薯簡介 11
    2.2.2馬鈴薯粉 18
    2.2.3馬鈴薯澱粉 19
    2.2.4澱粉簡介 19
    2.2.5薯條簡介 27
    2.3油炸 31
    2.3.1油炸簡介 31
    2.3.2真空油炸 32
    2.4擠壓技術 33
    2.4.1食品擠壓技術簡介 33
    2.4.2 食品擠壓加工技術之優點 37
    2.4.3 擠壓機之基本結構 39
    2.4.4影響擠壓加工特性之參數 43
    第3章 材料與方法 47
    3.1實驗目的 47
    3.2實驗設計 47
    3.2.1成型預實驗 47
    3.2.2真空油炸預實驗 49
    3.3實驗流程圖 49
    3.4實驗原料 52
    3.5實驗設備 52
    3.6實驗試藥 54
    3.7原料一般組成分、色澤、吸水性指標分析 56
    3.7.1水分含量 56
    3.7.2粗蛋白含量 56
    3.7.3粗脂肪含量 57
    3.7.4灰分含量 57
    3.7.5總碳水化合物含量 58
    3.7.6色澤分析 58
    3.7.7吸水性指標(WAI) 58
    3.8擠出米薯條理化性質分析 58
    3.8.1水分含量 59
    3.8.2 水分滯留率 59
    3.8.3色澤分析 59
    3.8.4吸水性指標 59
    3.9即食米薯條理化性質分析 59
    3.9.1水分含量 60
    3.9.2掃描式電子顯微鏡(SEM) 60
    3.9.3質地分析檢測 60
    3.9.4色澤分析 60
    3.9.5粗脂肪含量 60
    3.9.6感官品評 60
    3.10統計分析 61
    第4章 結果與討論 63
    4.1 原料之一般組成分、色澤及吸水性指標 63
    4.2擠出米薯條之理化性質分析 63
    4.2.1擠出米薯條之水分含量、水分滯留率與吸水性指標 63
    4.2.2擠出米薯條之色澤 65
    4.3即食米薯條之理化性質分析 65
    4.3.3即食米薯條之色澤 74
    4.3.4即食米薯條之質地 89
    4.3.6最佳即食米薯條條件選定與評估 95
    4.3.7感官品評 100
    第5章 結論與建議 103
    5.1 結論 103
    5.2 建議 104
    參考文獻 105
    作者簡介 116

    1. 中華民國國家標準。2007。稻米詞彙。CNS 總號13446,類號N1126。經濟部中央標準局。台北。
    2. 中華民國 106 年糧 食 供 需 年 報。2018。統計室。行政院農業委員會。台北。
    3. 王仕賢,陳曉菁。2011。米食創新產品研發,農政與農情(第233期)。
    4. 王怡晶。1999。蛋白質於擠壓加工之變化。食品工業。31(7):20-30。
    5. 王瑞章、江汶錦、吳雅芳、林棟樑、孫文章、陳昇寬、彭瑞菊、鄭安秀、謝明憲、鍾瑞永。2011。馬鈴薯栽培管理技術。臺南區農業改良場技術專刊100-1(NO.150)。
    6. 朱家緯。2015。不同米穀粉添加比例、套筒溫度及螺軸轉速對米薯條理化性質之影響。國立屏東科技大學碩士論文。
    7. 江伯源。2002。米粉絲製作技術-磨粉方法與澱粉添加對產品性質的影響。國立台灣大學食品科技研究所博士論文。
    吳洪成、胡卓炎、餘愷、余小林。2007。速凍薯條製備工藝優化。農業工程學報(5)。
    8. 何照范。1985。糧食籽粒品質及分析技術。農業出版社。
    9. 吳正淵。2017。探討不同口味玉米薄餅之開發。國立屏東科技大學碩士論文。
    10. 宋勳、劉瑋婷。1996。稻米品質的影響因素與分級。稻作生產改進策略研討會專刊59: 133-154。
    11. 李長沛。2013。水稻野生種的多樣性與利用性。臺灣博物季刊 118 32卷.第2期。
    12. 李添根。1993。單離黃豆蛋白最適擠壓條件之決定與高比例黃豆11S球蛋白複合擠物之物化性質。國立台灣海洋大學水產食品科學研究所碩士論文。
    13. 沈秉弘。2001。油炸處理對芋片質地與品質之影響。靜宜大學食品營養學系碩士論文。
    14. 周孟嫻,孫智麗。2014。提升我國糧食自給率之潛力農產品發展策略。因應氣候變遷及糧食安全之農業創新研究103年度論文集。
    15. 林育德、彭錦樵、林貞信、蕭世傑。1998。模孔形狀、進料速率及螺軸轉速對擠壓產品理化特性之影響。農林學報 47(4):25-35。
    16. 林素汝,吳永培。2013。國產機能米營養成分及保健功能研究。糧食安全與生技No.36。
    17. 邱郁筑。2016。105 年我國糧食供需統計結果。農業情報。
    18. 施明智、江文章。1992。擠壓加工條件對以玉米為基材的擠壓半成品物化特性之影響。中國農業化學會誌。30(3):454-61。
    19. 洪聖杰。2018。焙炒與擠壓加工對米糠品質之影響。國立屏東科技大學碩士論文。
    20. 洪德生。2014。糧食安全與稻米科技。農業生技產業季刊 AgBIO第39期。
    21. 孫治群。2003。探討添加物對年糕物化性質之影響。國立屏東科技大學食品科學系碩士學位論文。
    22. 徐錫樑。1997。真空油炸紅蘿蔔脆片之品質與其炸油氧化安定性之研究。國立台灣大學食品科技研究所碩士論文。
    23. 高崇烈。1998。螺軸轉速、進料含水率和玉米澱粉添加量對擠壓米粉絲品質之影響。國立屏東科技大學食品科學系碩士學位論文。
    24. 高崇烈。林貞信。1999。螺軸轉速、進料含水率和玉米澱粉添加量對擠壓米粉絲膨發特性和強度的影響。食品科學 26(4): 411-22。
    25. 區少梅。2003。食品感官品評學及實習。華格納企業有限公司。台中。
    26. 莊偉鑫。2004。油炸食品之丙烯醯胺分析與形成。輔仁大學食品營養研究所碩士論文。
    27. 許家源。2008。高壓高剪力處理對米穀粉理化特性及其膠體質地之影響。輔仁大學食品科學系碩士論文。
    28. 許愛娜。2004。稻米品質分析項目與其影響因素。科學農業52(11,12):299-307。
    29. 郭昭吟。2006。擠壓塊狀年糕之物化性質與最適二次加工條件之探討。國立屏東科技大學食品科學系碩士學位論文。
    30. 陳秀瑩。2002。大豆之機能性成份與其分析方法。食品工業 34(18): 18-26。
    31. 陳季洲、盧訓。1998。粳糯品種稻米澱粉理化性質特性分析。中華農誌36(3): 311-322
    32. 陳怡德。2006。不同擠壓加工對組織化植物蛋白理化性質之研究。國立屏東科技大學食品科學系碩士論文。
    33. 陳建宏。2003。認識澱粉與食用膠。烘焙工業109(180):60-3
    34. 陳盈方。2011。淺談稻米預糊化技術。台東農業專訊81:1-4。
    35. 陳家全、李家維、楊瑞森。1991。生物電子顯微鏡學。行政院國家科學委員會精密儀器發展中心出版。
    36. 陳葦玲、劉興隆、戴振洋。2013。台灣馬鈴薯產業現況。台中區農改場。
    37. 陳嘉昌。1994。冷卻模口長度與化學添加劑對組織化黃豆分離蛋白擠壓物之鍵結、物化特性的影響。國立台灣海洋大學水產食品科學研究所碩士論文。
    38. 陳榮坤。2012。保健用稻米品種的發展概況。臺南區農業專訊82期。
    39. 馮培格。2009。添加大豆萃取物粉對組織化大豆蛋白物理與機能性質之影響。國立屏東科技大學食品科學系碩士論文。
    40. 黃仁暉。2014。以不同油炸條件製備的冷凍雞塊其微波復熱後之品質評估。國立中興大學食品暨應用生物科技學系所碩士論文。
    41. 黃宣哲,1990。麵糰在雙軸擠壓機中之滯留時間分佈。國立台灣大學食品科技研究所碩士論文。
    42. 黃國書。2007。加工製程對組織化大豆蛋白內異黃酮含量的影響。國立屏東科技大學食品科學系碩士論文。
    43. 楊仁輝。1999。不同粒徑範圍之米穀粉流變性質之探討。靜宜大學食品營養系碩士論文。
    44. 楊淑華。2004。薏仁品種及白米添加比例對擠壓產品物理化學及抗氧化特性之影響。國立中興大學生物產業機電工程系碩士論文。
    45. 楊鎰誠。2003。糖液浸漬濃度、真空油炸溫度及時間對油炸楊桃及丁香魚品質之影響。國立屏東科技大學食品科學研究所碩士學位論文。
    46. 趙亮瑜。2018。添加不同膠對組織化大豆蛋白之理化性質的影響。國立屏東科技大學碩士論文。
    47. 潘珈錚。2013。探討不同添加物與擠壓加工程序對擠壓米麵條理化性質及品質之影響。國立屏東科技大學食品科學研究所碩士學位論文。
    48. 蔡育真。2002。直立式單軸擠壓機製作薄片狀組織化植物蛋白產品之研究。國立屏東科技大學食品科學研究所碩士學位論文。
    49. 蔡培慧。2015。自由貿易擴張對台灣糧食自給與食品安全的影響。農業推廣文彙第 59 輯。
    50. 盧訓、林子清。1995。傳統米食加工手冊。行政院農委會。
    51. 盧訓、郭封谷。1991。乳化劑和澱粉對東方式麵條品質之影響。食品科學。18(4):313-23。
    52. 盧訓、陳樺翰、陳與國、黃月花。2003。熟米澱粉之製備及其理化特性之探討。台灣農業化學與食品科學41(1):65-71
    53. 盧訓。1991。穀類科學與加工。國立中興大學。台中。
    54. 賴喜美。2014。米食多元化加工技術米穀粉之研究與開發。農業生技產業季刊。
    55. 閻安琪。2016。稻米品質檢驗法規及儀器。行政院農業委員會農糧署糧食產業組。
    56. 謝綵蓉。2012。探討大豆沙拉油油炸品質及羰基化合物生成量及其在油炸裹麵雞胸肉中受幾丁聚醣衍生物之抑制情形。輔仁大學食品科學研究所碩士論文。
    57. 鍾美蘊。1996。以聚葡萄糖與高果糖糖漿為浸漬液產製真空油炸四季豆之比較。國立中興大學食品科學研究所碩士論文。
    58. 簡銘維。2010。以擠壓蒸煮方式製備糕仔用預糊化米穀粉之研究。國立屏東科技大學食品科學系碩士論文。
    59. 藍敬順。2011。大豆分離蛋白、米穀粉與澱粉對組織化全脂大豆蛋白品質之影響。國立屏東科技大學食品科學系碩士論文。
    60. 顏士雲。2005。真空油炸竹筍製程之研究。國立台灣大學食品科技研究所碩士論文。
    61. Adam B., Benjamin Lau P.-Y., David L., Stephen W. S., Stephen H., Michael S., Manoharan R., & Yves L. (2004). Acrylamide in French Fries: Influence of Free Amino Acids and Sugars. J. Agric. Food Chem., 52: 3801-3806.
    62. Aguilar C.N., A. Anzaldu´ A-morales, R. TALAMA´ S, And G., & Gaste´lum. (1997). Low-temperature blanch improves textural quality of french-fries. Journal of food science, 62: 3.
    63. Albertos, Martin-D.A.B., Sanz M.A., Barat J.M., Diez A.M., Jaime I., & Rico D. (2016). Innovative Food Science and Emerging Technologies 33, 115–122.
    64. Andre´s-Bello, Garcı´a-Segovia P., & Martı´nez-Monzo J. (2011). Vacuum Frying: An Alternative to Obtain High-Quality Dried. Food Eng Rev., 3: 63–78.
    65. Beverly B., Jaromir H., Kamila H., Veronika F., Lukas V., & Jana H. (2018). Impact of vacuum frying on quality of potato crisps and frying oil. Food Chemistry, 241: 51–59.
    66. Bienvenido O. J. (1985). Rice properties and processing, Food Reviews
    67. Bon-Jae G., & Girish M. G. (2017). Food Extrusion Processing: An Overview. Wsu Extension. FS264E. 1-8.
    68. Bocuse P. (1992). La cuisine du march? (French Edition).
    69. Bryant R. J., Kadan R. S., Champagne E. T., Bryan T. V., & Debbie B. (2001). Functional and Digestive Characteristics of Extruded Rice Flour. Cereal Chem., 78, 2: 131–137.
    70. Carla V. Y., & Rosana G. M. (2011). Physical and thermal properties of potato chips during vacuum frying. Journal of Food Engineering, 104: 272–283.
    71. Changling L., Yan Z., M.S., Yinye W., M.S., Jia-Shi Z., M.D., Joseph C., & David K. (1998). Monascus Purpureus-Fermented Rice (Red Yeast Rice): A Natural Food Product That Lowers Blood Cholesterol in Animal Models of Hypercholesterolemia, 18, 1: 71-81.
    72. Damian R., Favio C., Nancy F., Isaac A.-G., Aquiles S.-S., Hiram M.-R., Francisco C., & Efren D. (2012). The Effect of Glandless Cottonseed Meal Content and Process Parameters on the Functional Properties of Snacks during Extrusion Cooking. Food and Nutrition Sciences, 3: 1716-1725.
    73. Davidson V. J., Paton D., Diosady L. L., & Larocque G. (1984). Degradation of Wheat Starch in a Single Screw Extruder: Characteristics of Extruded Starch Polymers. Journal of Food Science, 49: 453-458.
    74. Deep S. B., Kapil Malik, Manish S., Darshna C., Ranjana J., & Pawan K. J. (2017). Progress and challenges in improving the nutritional quality of rice (Oryza sativa L.). Critical Reviews in Food Science and Nutrition, 57, 11: 2455–2481.
    75. Dennis P. W., Paul H. O., Howard H. C., & Beth K. T. (1994). Potato Starch Paste Behavior as Related to Some Physical/ Chemical Properties. Journal of food science, 59, 3.
    76. Dueik V., Robert P., & Bouchon P. (2010). Vacuum frying reduces oil uptake and improves the quality parameters of carrot crisps. Food Chemistry, 119: 1143–1149.
    77. Elif T., Gulum S., & Serpil S. (2008). Rheological properties and quality of rice cakes formulated with different gums and an emulsifier blend. Food Hydrocolloids, 22: 305–312.
    78. Eggum, B.O., Cabrera, M.I.Z., & Juliano, B.O. (1992). Protein and lysine digestibility and protein quality of cooked Filipino rice diets and milled rice in growing rats. Plant Foods Hum. Nutr., 42.
    79. Food and Agriculture Organization, Land & Water, Databases & Software, Rice.
    80. Franco P., Karl K., & Kit G. (2006). Acrylamide content and color development in fried potato strips. Food Research International, 39: 40–46.
    81. Franco P., & Pedro M. (2005). Effect of pre-drying on texture and oiluptake of potato chips. LWT 38: 599–604.
    82. Frank S., Krzysztof K., & Lawrence H. (1982). Free, Esterified, and Insoluble-Bound Phenolic Acids. 3. Composition of Phenolic Acids in Cereal and Potato Flours. J. Agric. Food Chem., 30: 337-340.
    83. G Official figure, (2018). Food and Agriculture Organization. FAO Rice Market Monitor, 21, 1.
    84. Gamble M. H., Rice P., & Selman J. D. (1987). Relationship between oil uptake and moisture loss during frying of potato slices from C.VR. ecord U.K. tubers. International Journal of Food Science and Technology, 22: 233-241.
    85. Gokhan B., Bei W., Ang Z., Zhongli P., & Tara H. M. (2014). Comparison of water and infrared blanching methods for processing performance and final product quality of French fries. Journal of Food Engineering, 121: 135-142.
    86. Granda C., Moreira R.G., & Tichy S.E. (2004). Reduction of Acrylamide Formation in Potato Chips by Low-temperature Vacuum Frying. Journal of food science, 69, 8: 405-411.
    87. Haan S., & Flor R. (2016). Potato Origin and Production. Advances in Potato Chemistry and Technology, 1: 1-32.
    88. Harper J. M. (1978). Extrusion processing of food. Food Technol, 32, 7: 67-72.
    89. Harper J. M., & Clark J. P. (1979). Food Extrusion. Journal C R C Critical Reviews in Food Science and Nutrition, 11, 2.
    90. Harper J.M. (1994). The technology of extrusion cooling. Trends in Food Science & Technology, 5.
    91. Harper, J.M. (1981). Extrusion of Foods, 1.
    92. Hielko E. G., & Do A. K. (2009). Potato Starch: Production, Modifications and Uses. Starch: Chemistry and Technology, 512-538.
    93. Hsi-M. L. (2002). Effects of rice properties and emulsifiers on the quality of rice pasta. Journal of the science of food and Agriculture, 82, 2: 203-216.
    94. Hyemi H., Yun-K. L., & Yoon H. C. (2017). International Journal of Food Properties, 20, S2: S2138–S2150.
    95. Ingrid C., Javier P., Angel L., & Pedro B. (2016). The effect of vacuum frying on starch gelatinization and its in vitro digestibility in starch–gluten matrices. Food Chemistry, 197: 353–358.
    96. Isabel P.-M. Susana M., & Fiszman M. Á. L. (2001). Effect of frying on the microstructure of frozen battered squid rings. Eur Food Res Technol, 213: 448–455.
    97. Jagoba G., & Rosana M. (2002). Vacuum frying of potato chips. Journal of Food Engineering, 55: 181–191.
    98. Jaspreet S., Narpinder S., Sharma T.R., & Saxena S. K. (2003). Physicochemical, rheological and cookie making properties of corn and potato flours. Food Chemistry, 83: 387–393.
    99. Jean-L. S., Anne B., Andre G., & Jacques P. (1990). Deep Fat Frying of Frozen Prefried French Fries: Influence of the Amount of Linolenic Acid in the Frying Medium. J. Agric. Food Chem., 38: 1862-1867.
    100. John E. B., & Gavin R. (2009). Potato Origin and Production. Advances in Potato Chemistry and Technology, 1: 1-26.
    101. Jozinovic, Šubaric D., Durdica A., Babic J., Mirela P., Mariana P., & Marijana B. (2012). Effect of screw configuration, moisture content and particle size of corn grits on properties of extrudates. Croat. J. Food Sci. Technol, 4, 2: 95-101.
    102. Kadan R. S., Champagne E. T., Ziegler G. M., & Richard O. A. (1997). Amylose and Protein Contents of Rice Cultivars as Related to Texture of Rice-based Fries. Journal of Food Science, 62, 4: 701-703.
    103. Kadan R. S., & Pepperman A. B. (2002). Physicochemical Properties of Starch in Extruded Rice Flours. Cereal Chem., 79, 4: 476–480.
    104. Kadan R.S., Bryant R.J., & Boykin D.L. (2001). Effects of Processing Conditions on Qualities of Rice Fries. Journal of food science, 66, 4: 610-613.
    105. Kadan R.S., Bryant R.J., Boykin D.L. 2001. Rice Fry Texture as Affected by Gum Application and Mechanical Perforation. Journal of Food Science, 66, 8: 1084-1088.
    106. Kadan R.S., Bryant R.J., Pepperman A.B., & (2003). Functional Properties of Extruded Rice Flours. Journal of Food Science, 68, 5: 1669-1672.
    107. Kamran A., Xin Q., Richard F. T., & Colin E. S. (2011). Physico-chemical properties of potato starches. Food Chemistry, 125: 958–965.
    108. Kawaljit S. S., Maninder K., & Mukesh. (2010). Studies on noodle quality of potato and rice starches and their blends in relation to their physicochemical, pasting and gel textural properties. LWT - Food Science and Technology, 43: 1289-1293.
    109. Koerten K.N., Schutyser M.A.I., Somsen D., & R.M. (2015). Boom Crust morphology and crispness development during deep-fat frying of potato. Food Research International, 78: 336–342.
    110. Liu-ping F., Zhang M., Xiao G., Sun J., & Tao Q. (2005). The optimization of vacuum frying to dehydrate carrot chips. International Journal of Food Science and Technology, 40: 911–919.
    111. Misael L. M., & José M. A. (2006). Structure and Texture Properties of Fried Potato Products, Food Reviews International, 22, 2: 173-201.
    112. Montri C., & Manop S. (2006). Pasting and rheological properties of native and anionic tapioca starches as modified by guar gum and xanthan gum. Food Hydrocolloids, 20: 641–649.
    113. Narpinder S., Jaspreet S., Lovedeep K, Navdeep S. S., & Balmeet S. G. (2003). Morphological, thermal and rheological properties of starches from different botanical sources. Food Chemistry, 81: 219–231.
    114. O’Beirnet, & Alison B. (1987). Some effects of modified-atmosphere packaging and vacuum packaging in combination with antioxidants on quality and storage life of chilled potato strips. International Journal of Food Science and Technology, 22, 5: 15-523.
    115. O’connor J., Fisk k. J., Smith B. G, & L. D. M. (2001). Fat uptake in French fries as affected by different potato varieties and processing. Journal of food science, 66, 6.
    116. Paulo F. D. S., & Rosana G. M. (2008). Vacuum frying of high-quality fruit and vegetable-based snacks. LWT - Food Science and Technology, 41: 1758-1767.
    117. Pont M. S. D., Andrew R. Kirby, & Smith A. C. (1992). Instrumental and sensory tests of texture of cooked frozen french fries. International Journal of Food Science and Technology, 27: 285-295.
    118. Qing-B. D., Paul A., Gregory T., & Hayley M. (2005). The effect of extrusion conditions on the physicochemical properties and sensory characteristics of rice-based expanded snacks. 66, 3: 283-289
    119. Ramesh Y. M. G., & Ramteke R. N. T. R. S. (2006). Influence of drying conditions on functional properties of potato flour. Eur Food Res Technol 223: 553–560.
    120. Riaz, M. (2000). Extruders in Food Applications, CRC press.
    121. Richard F. S. (2004). Frying as a science – An introduction. Eur. J. Lipid Sci. Technol, 106: 715–721.
    122. Richard F. T., John K., & Xin Q. (2004). Starch—composition, fine structure and architecture. Journal of Cereal Science, 39: 151–165.
    123. Sanz T., C. Primo-M., & Vliet T. (2007). Characterization of crispness of French fries by fracture and acoustic measurements, effect of pre-frying and final frying times. Food Research International, 40: 63–70.
    124. Serventi S., & Sabban F. (2002). Pasta. The Story of a Universal Food. Columbia University press.
    125. Shabbir M.A., Dilber A., Raza A., Suleria H.A.R., Saeed M., & Sultan S. (2014). Influence of Thermal Processing on the Formation of Trans Fats in Various Edible Oils. Journal of Food Processing and Preservation, ISSN 1745-4549.
    126. Shirley L., S., & Andrea M. (1961). French‐fried Potatoes: Palatability as Related to Microscopic Structure of Frozen Par‐fries. Journal of food science, 26, 6: 656-662.
    127. Shujun W., Caili L., Copeland L, Niu Q., & Wang S. (2015). Starch Retrogradation: A Comprehensive Review. Comprehensive Reviews in Food Science and Food Safety, 14, 5: 568-585.
    128. Shyu S.-L., Hau L.-B., & Hwang L. S. (1998). Effect of Vacuum Frying on the Oxidative Stability of Oils. JAOCS, 75, 10.
    129. Shyu S.-L., Hau L.-B., & Hwang L. S. (2005). Effects of processing conditions on the quality of vacuum-fried carrot chips. Journal of the science of food and Agriculture, 85: 1903–1908.
    130. Shyu S.-L., & Hwang L. S. (2001). Erects of processing conditions on the quality of vacuum fried apple chips. Food Research International, 34: 133−142.
    131. Singh R. P., & Augusto G. Medina. (1988). Food Properties and Computer-Aided Engineering of Food Processing Systems. Applied Sciences, 168.
    132. Sokhey S., Ali Y., & M. A. (1997). Hannab. Effects of Die Dimensions on Extruder Performance. Journal of Food Engineering, 31: 251-261.
    133. Spiruta S. L., & Andrea M. (1961). French-fried Potatoes: Palatability as Related to Microscopic Structure of Frozen Par-fries. Journal of Food Science, 26, 6: 656-662.
    134. Su Y., Zhang M., Bhandari B., & Zhang W. (2018). Enhancement of water removing and the quality of fried purple-fleshed sweet potato in the vacuum frying by combined power ultrasound and microwave technology. Ultrasonics - Sonochemistry 44: 368–379.
    135. Su Y., Zhang M., Zhang W. Chunquan Liu, & Adhikari B. (2018). Ultrasonic microwave-assisted vacuum fryingtechnique as a novel frying method for potatochips at low frying temperature. Food and Bioproducts Processing, 108: 95–104.
    136. Wanakamol, W., & Poonlarp P. (2018). Effects of frying temperature, frying time and cycles on physicochemical properties of vacuum fried pineapple chips and shelf life prediction. International Food Research Journal, 25, 6: 2681-2688.
    137. Zhou Z., Robards K., Helliwell1 S., & Chris. (2002). Blanchard Composition and functional properties of rice. International Journal of Food Science and Technology, 37: 849–868.

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