4.7 Article

Heat transfer modeling of chicken cooking in hot water

Journal

FOOD RESEARCH INTERNATIONAL
Volume 40, Issue 7, Pages 923-930

Publisher

ELSEVIER SCIENCE BV
DOI: 10.1016/j.foodres.2007.03.005

Keywords

chicken cooking; finite difference analysis; process modeling; process simulation; hot water cooking; thermal process design; thermal processing

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To calculate the slowest heating point and optimum cooking time of whole chicken cooking in hot water, a 2-dimensional heat transfer model was developed to predict temperature profile and history of the chicken cooked in hot water at 85, 90 and 95 degrees C. Chickens were divided into 12 sections and the heat transfer model was applied to each cross section. These models were solved with an I-DEAS program. Specific heat and thermal conductivity were measured at temperatures ranging from 25 to 95 degrees C. The temperature of chicken did not significantly affect the thermal properties. The average values of specific heat of white and dark meats were 3.521 and 3.654 kJ/ (kg K), respectively, and the average thermal conductivity values were 0.5093 and 0.4930 W/(m K), respectively. The model was validated against experimental results, and provided an average root mean square error of 2.8 degrees C. Temperature distributions showed that the slowest heating point was deep in the breast part of the second cross section (3.6 cm far from shoulder) at the symmetric line of the chicken, around 2.1-2.5 cm deep from breast skin. For food safety consideration, the recommended cooking times, for whole chickens in weight range of 2.3-3.2 kg with different initial temperatures (5-30 degrees C), were around 74-84, 64-74 and 57-67 min for cooking temperatures of 85, 90, and 95 degrees C, respectively. (c) 2007 Elsevier Ltd. All rights reserved.

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