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Extrusion cooking technology: Principal mechanism and effect on direct expanded snacks – An overview
,
AJITA TIWARI
Contact AJITA TIWARI
Department of Agricultural Engineering, Assam University , Silchar , India
Jha S. K.
Division of Post Harvest Technology, Indian Agricultural Research Institute
Published: 18.04.2017.
Volume 6, Issue 1 (2017)
pp. 113-128;
Abstract
The snack industry is one of the fastest growing food sectors and is an important contributor within the global convenience food market. Nowadays snacks and convenience foods are also consumed regularly in India. Properly designed convenience foods can make an important contribution to nutrition in societies where social changes are altering traditional patterns of food preparation. Extrusion cooking as a popular means of preparing snack foods based on cereals and plant protein foodstuff has elicited considerable interest and attention over the past 30 years. Several studies on the extrusion of cereals and pulses, using various proportions, have been conducted because blends of cereals and pulses produce protein enriched products. Special importance is placed on the physicochemical and chemical modifications of protein, starch and dietary fibre. Extruded products can be categorized for a particular application based on their functional properties such as water absorption and water solubility index, expansion ratio, bulk density and viscosity of the dough. Therefore, the literature was reviewed for effect of extrusion processing on product parameters, and nutritional and anti-nutritional properties of extruded products.
Keywords
References
1.
Alonso R, Rubio L, Muzquiz M, Marzo F. ing on mineral bioavailability in pea and kidney bean seed meals. Animal Feed Science and Technology. 2001;(1–2):1–13.
2.
Altan A, Mccarthy K, Maskan M. Evaluation of snack foods from barley-tomato pomace blends by extrusion processing. Journal of Food Engineering. 2008;(2):231–42.
3.
Alvarez-Martinez L, Kondury K, Harper J. A general-model for expansion of extruded products. Journal of Food Science. 1988;(2):609–15.
4.
Anderson R, Conway H, Pfeifer V, Griffin E. Roll and extrusioncooking of grain sorghum grits. Cereal Science Today. 1969;(11):372.
5.
Andersson Y, Hedlund B. Extruded wheat flour: correlation between processing and product quality parameters. Critical Reviews in Food Science and Nutrition. 1990;(4):365–92.
6.
Badrie N, Mellowes W. Texture and microstructure of cassava (manihotesculenta crantz) flour extrudate. Journal of Food Science. 1991;(5).
7.
Bates L, Ames J, Macdougall D. The use of a reaction cell to model the development and control of color in extrusion-cooked foods. Food Science and Technology-lebensmittelwissenschaft & Technologie. 1994;(4):375–9.
8.
Bhattacharya M, Hanna M. Influence of process and product variables on extrusion energy and pressure requirements. Journal of Food Engineering. 1987;(2):153–63.
9.
Bjorck I, Asp N, Bordoloi R, Ganguly S. Extrusion technique in food processing and a review on its various technological parameters. Journal of Scientific Research and Technology. 1983;(4):1–3.
10.
Camire M. Bilberries and blueberries as functional. Herbs, Botanicals and Teas. 2000;289–319.
11.
Camire M, Zhao J, Violette D. In-vitro binding of bile-acids by extruded potato peels. Journal of Agricultural and Food Chemistry. 1993;(12):2391–4.
12.
Camire M. ADVANCES IN EXPERIMENTAL MEDICINE AND BIOLOGY. Pacifichem 1995 Conference. 1998;109–21.
13.
Case S, Hamann D, Schwartz S. Effect of starch gelatinization on physical-properties of extruded wheat-based and corn-based products. Cereal Chemistry. 1992;(4):401–4.
14.
Chevanan N, Muthukumarappan K, Rosentrater K, Julson J. Effect of die dimensions on extrusion processing parameters and properties of DDGSbased aquaculture feeds. Cereal Chemistry. 2007;(4):389–98.
15.
Chevanan N, Rosentrater K, Muthukumarappan K. Twin-screw extrusion processing of feed blends containing distillers dried grains with solubles (ddgs). Cereal Chemistry. 2007;(5):428–36.
16.
Chevanan N, Rosentrater K, Muthukumarappan K. Effect of ddgs, moisture content, and screw speed on physical properties of extrudates in single-screw extrusion. Cereal Chemistry. 2008;(2):132–9.
17.
Cisse D, Guiro A, Diaham B, Souane M, Doumbouya N, Wade S. Effect of food processing on iron availability of African pearl millet weaning foods. International Journal of Food Sciences and IJFS. 1998;113–28.
18.
Extrusion cooking technology: principle mechanism and effects 125 Nutrition. (5):375–81.
19.
Colonna P, Tayeb J, Mercier C. Extrusion cooking of starch and starchy products. 1989;247–320.
20.
Dellavalle G, Colonna P, Patria A, Vergnes B. Influence of amylose content on the viscous behavior of low hydrated molten starches. Journal of Rheology. 1996;(3):347–62.
21.
Ding Q, Ainsworth P, Plunkett A, Tucker G, Marson H. The effect of extrusion conditions on the functional and physical properties of wheat-based expanded snacks. Journal of Food Engineering. 2006;(2):142–8.
22.
Ding Q, Ainsworth P, Tucker G, Marson H. The effect of extrusion conditions on the physicochemical properties and sensory characteristics of rice-based expanded snacks. Journal of Food Engineering. 2005;(3):283–9.
23.
Fairweathertait S, Portwood D, Symss L, Eagles J, Minski M. Iron and zinc-absorption in humansubjects from a mixed meal of extruded and nonextruded wheat bran and flour. American Journal of Clinical Nutrition. 1989;(1):151–5.
24.
Falcone R, Phillips R. Effects of feed composition, feed moisture, and barrel temperature on the physical and rheological properties of snack-like products prepared from cowpea and sorghum flours by extrusion. Journal of Food Science. 1988;(5):1464–9.
25.
Faubion J, Hoseney R. -a). Cereal Chemistry. 1982;(6):529–33.
26.
Faubion J, Hoseney R. Hightemperature short-time extrusion cooking of wheat-starch and flour .2. effect of protein and lipid on extrudate properties. Cereal Chemistry. 1982;(6):533–7.
27.
Fletcher S, Richmond P, Smith A. An experimental study of twinscrew extrusion-cooking of maize grits. Journal of Food Engineering. 1985;(4):291–312.
28.
Fukui K, Aoyama T, Hashimoto Y, Yamamoto T. Effect of extrusion of soy protein isolate on plasma cholesterol level and nutritive value of protein in growing male rat. Nippon Eiyo Shokuryo Gakkaishi. 1993;(3):211–6.
29.
Gomez M, Aguilera J. Changes in the starch fraction during extrusioncooking of corn. Journal of Food Science. 1983;(2):40.
30.
Guzmantello R, Cheftel J. Thiamine destruction during extrusion cooking as an indicator of the intensity of thermal-processing. International Journal of Food Science and Technology. 1987;(5):549–62.
31.
Guzmantello R, Cheftel J. Color loss during extrusion cooking of betacarotene wheat-flour mixes as an indicator of the intensity of thermal and oxidative processing. International Journal of Food Science and Technology. 1990;(4):420–34.
32.
Harper J, Jansen G. Summary Report, Colorado State University. 1981;
33.
Harper J, Clark J. Food extrusion. Critical Reviews in Food Science and Nutrition. 1979;(2):155–215.
34.
Hernandez-Diaz J, Quintero-Ramos A, Barnard J, Balandran-Quintana R. Functional properties of extru-dates prepared with blends of wheat Flour/Pinto bean meal with added wheat bran. Food Science and Technology International. 2007;(4):301–8.
35.
Ilo S, Liu Y, Berghofer E. Food Science and Technology-lebensmittelwissenschaft & Technologie. 1999;(2):79–88.
36.
Kadan R, Bryant R, Pepperman A. Functional properties of extruded rice flours. Journal of Food Science. 2003;(5):1669–72.
37.
Kaletunc G, Breslauer K. Glass transitions of extrudates -relationship with processing-induced fragmentation and end-product attributes. Cereal Chemistry. 1993;(5):548–52.
38.
Kannadhason S, Muthukumarappan K, Rosentrater K. Effects of ingredients and extrusion parameters on aquafeeds containing ddgs and tapioca starch. Journal of Aquaculture Feed Science and Nutrition. 2009;(1):6–21.
39.
Kirby A, Ollett AL, Parker R, Smith A. An experimental study of screw configuration effects in the twin-screw extrusion-cooking of maize grits. Journal of Food Engineering. 1988;(4):90016–7.
40.
Kothakota A, Jindal N, Thimmaiah B. A study on evaluation and characterization of extruded product by using various by-products. African Journal of Food Science. 2013;(12):485–97.
41.
Launay B, Lisch J. Twin-screw extrusion cooking of starches: flow behaviour of starch pastes, expansion and mechanical properties of extrudates. Journal of Food Engineering. 1983;(4):259–80.
42.
Lawton J, Davis A, Behnke K. High-temperature, short-time extrusion of wheat gluten and a bran-like fraction. Cereal Chemistry. 1985;(4):267–71.
43.
Lazou A, Krokida M. Structural and textural characterization of corn-lentil extruded snacks. Journal of Food Engineering. 2010;(3):392–408.
44.
Lin S, Huff H, Hsieh F. Texture and chemical characteristics of soy protein meat analog extruded at high moisture. Journal of Food Science. 2000;(2):264–9.
45.
Maga J, Sizer C. Ascorbic acid and thiamin retention during extrusion of potato flakes. LWT Lebensmitt Wissensch Technologie. 1978;(4):192–4.
46.
Mahungu S, Diaz-Mercado S, Li J, Schwenk M, Singletary K, Faller J. Stability of isoflavones during extrusion processing of corn/soy mixture. Journal of Agricultural and Food Chemistry. 1999;(1):279–84.
47.
Maurice T, Stanley D. Texturestructure relationships in texturized soy protein iv. influence of process variables on extrusion texturization. Canadian Institute of Food Science and Technology Journal. 1978;(1):73151–2.
48.
Mercier C. Structure and digestibility alterations of cereal starches by twin-screw extrusion -cooking. 1979;795–807.
49.
Mercier C. Formation of amylose-lipid complexes by twin-screw extrusion cooking of manioc starch. Cereal Chemistry. 1980;4–9.
50.
Mercier C, Feillet P. Modification of carbohydrate components by extrusioncooking of cereal products. Cereal Chemistry. 1975;(3):283–97.
51.
Mercier C, Linko P, Harper J. Extrusion cooking. American Assoc Cereal Chemists. 1989;
52.
Mezreb K, Goullieux A, Ralainirina R, Queneudec M. Application of image analysis to measure screw speed influence on physical properties of corn and wheat extrudates. Journal of Food Engineering. 2003;(2):145–52.
53.
Mitrus M. Changes of specific mechanical energy during extrusion cooking of thermoplastic starch. TEKA Kom Mot Energ Roln. 2005;152–7.
54.
Extrusion cooking technology: principle mechanism and effects 127.
55.
Moraru C, Kokini J. Comprehensive Reviews in Food Science and Food Safety. 2003;(4):147–65.
56.
Moscicki L, Mitrus M, Wojtowicz A, Oniszczuk T, Rejak A. Prof. Stanis law Grundas. 2013;
57.
Navale S, Swami S, Thakor N. Extrusion cooking technology for foods: a review. Journal of Ready to Eat Food. 2015;(3):66–80.
58.
Oke M, Awonorin S, Workneh T. Expansion ratio of extruded water yam (dioscorea alata) starches using a single screw extruder. African Journal of Agricultural Research. 2013;(9):750–62.
59.
Onwulata C, Smith P, Konstance R, Holsinger V. Incorporation of whey products in extruded corn, potato or rice snacks. Food Research International. 2001;(8):679–87.
60.
Ozer E, Herken E, Guzel S, Ainsworth P, Ibanoglu S. Effect of extrusion process on the antioxidant activity and total phenolics in a nutritious snack food. International Journal of Food Science and Technology. 2006;(3):289–93.
61.
Pardeshi I, Chattopadhyay P. Whirling bed hot air puffing kinetics of rice-soy ready-to-eat (rte) snacks. Journal of Ready to Eat Food. 2014;(1):1–10.
62.
Pathania S, Singh B, Sharma S, Sharma V, Singla S. Optimization of extrusion processing conditions for preparation of an instant grain base for use in weaning foods. International Journal of Engineering Research and Applications. 2013;(3):1040–9.
63.
Pawar S, Pardeshi I, Borkar P, Rajput M. Optimization of process parameters of microwave puffed sorghum based ready-to-eat (RTE) food. Journal of Ready to Eat Food. 2014;(2):59–68.
64.
Pham C, Del Rosario R. Studies on the development of texturized vegetable products by the extrusion process. International Journal of Food Science and Technology. 1986;(5):569–76.
65.
Phillips R, Falcone R. Extrusion of sorghum and sorghum peanut mixtures -effect of barrel temperature and feed moisture on physical-textural characteristics. Journal of Texture Studies. 1988;(2):185–97.
66.
Politz M, Timpa J, Wasserman B. Quantitative measurement of extrusion-induced starch fragmentation products in maize flour using nonaqueous automated gel-permeation chromatography. Cereal Chemistry. 1994;(6):532–6.
67.
Sebio L, Chang Y. Effects of selected process parameters in extrusion of yam flour (Dioscorea rotundata) on physicochemical properties of the extrudates. Nahrung-food. 2000;(2):2–9.
68.
Seib P. An introduction to food extrusion. 1976;1.
69.
Shukla C, Muthukumarappan K, Julson J. Effect of single-screw extruder die temperature, amount of distillers’ dried grains with solubles (DDGS), and initial moisture content on extrudates. Cereal Chemistry. 2005;(1):34–7.
70.
Singh B, Sekhon K, Singh N. Effects of moisture, temperature and level of pea grits on extrusion behaviour and product characteristics of rice. Food Chemistry. 2007;(1):198–202.
71.
Smith A. Studies on the physical structure of starch-based materials in the extrusion cooking process. Food Extrusion Science and Technology. 1992;573–618.
72.
Sriburi P, Hill S. Extrusion of cassava starch with either variations in ascorbic acid concentration or ph. International Journal of Food Science and Technology. 2000;(2):141–54.
73.
Ummadi P, Chenoweth W, Uebersax M. The influence of extrusion processing on iron dialyzability, phytates and tannins in legumes. Journal of Food Processing and Preservation. 1995;(2):119–31.
74.
Van Lengerich B. Dough rheology and baked product texture. 1990;421–71.
75.
Van Zuilichem D, Van Roekel G, Stolp W, Van’t Riet K. Modelling of the enzymatic conversion of cracked corn by twinscrew extrusion cooking. Journal of Food Engineering. 1990;(1):90016–8.
76.
Wen L, Rodis P, Wasserman B. Starch fragmentation and protein insolubilization during twin-screw extrusion of corn meal. Cereal Chemistry. 1990;(3):113–28.
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