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Optimization of process parameters for extrusion cooking of low amylose rice flour blended with seeded banana and carambola pomace for development of minerals and fiber rich breakfast cereal

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Abstract

The low-amylose rice flour, seeded banana (Musa balbisiana, ABB) and carambola (Averrhoa carambola L.) pomace blends were extruded to prepare ready to eat breakfast cereal in a single-screw extruder. Response surface methodology using a central composite design was used to evaluate effect of independent variables, namely blend ratio (80:10:10 – 60:30:10 of low-amylose rice flour, seeded banana and carambola pomace), screw speed (200 – 400 rpm), barrel temperature (90 – 130 °C) and feed moisture content (9 – 21 g/100 g, wet basis) on product responses. Quadratic polynomial equations were also obtained by multiple regression analysis. The predicted models were adequate based on lack-of-fit test and coefficient of determination obtained. The feed moisture content had critical effect on all response variables. The compromised optimal conditions obtained by numerical integration for development of extrudates were: screw speed of 350 rpm, barrel temperature of 120 °C, feed moisture content of 12 g/100 g and 65:25:10 of blend ratio of feed. In the optimized condition low-amylose rice blend is found to have better physicochemical properties (water absorption index of 481.79 g/100 g; water solubility index of 44.13 g/100 g) and dietary fiber content of 21.35 g/100 g respectively. The developed breakfast cereal showed considerable amount of minerals (Mg and K) and overall acceptability was found to be 7.8.

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Acknowledgment

One of us is thankful to the Ministry of Food Processing Industries, New Delhi for grant of a Senior Research Fellowship.

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Correspondence to Charu Lata Mahanta.

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Borah, A., Lata Mahanta, C. & Kalita, D. Optimization of process parameters for extrusion cooking of low amylose rice flour blended with seeded banana and carambola pomace for development of minerals and fiber rich breakfast cereal. J Food Sci Technol 53, 221–232 (2016). https://doi.org/10.1007/s13197-015-1772-9

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  • DOI: https://doi.org/10.1007/s13197-015-1772-9

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