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Research Article

The Influence of Xanthan and Balangu Seed Gums Coats on the Kinetics of Infrared Drying of Apricot Slices: GA-ANN and ANFIS Modeling

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Figures & data

Figure 1. Laboratory infrared dryer

Figure 1. Laboratory infrared dryer

Figure 2. The genetic algorithm–artificial neural network model structures for prediction of the drying time (a) and moisture content (b) of apricot slices

Figure 2. The genetic algorithm–artificial neural network model structures for prediction of the drying time (a) and moisture content (b) of apricot slices

Figure 3. The adaptive neuro-fuzzy inference system model structures for prediction of the drying time and moisture content of apricot slices

Figure 3. The adaptive neuro-fuzzy inference system model structures for prediction of the drying time and moisture content of apricot slices

Figure 4. Variations of moisture content of coated apricot slices at different (a) coating type (250 W and 7.5 cm distance); (b) infrared power (7.5 cm distance, balangu coating); and (c) sample distance (150 W, balangu coating)

Figure 4. Variations of moisture content of coated apricot slices at different (a) coating type (250 W and 7.5 cm distance); (b) infrared power (7.5 cm distance, balangu coating); and (c) sample distance (150 W, balangu coating)

Table 1. Error values calculated by optimized GA-ANN approach for estimation of drying time and moisture content of apricot slices in an infrared dryer

Figure 5. Experimental versus predicted values of drying time (a) and moisture content (b) of coated apricot slices by balangu seed gum (using genetic algorithm–artificial neural network model)

Figure 5. Experimental versus predicted values of drying time (a) and moisture content (b) of coated apricot slices by balangu seed gum (using genetic algorithm–artificial neural network model)

Table 2. The weight and bias data of the best GA-ANN structure for estimation of drying time

Table 3. The weight and bias data of the best GA-ANN structure for estimation of moisture content

Figure 6. Sensitivity analysis results of apricot slices infrared drying by the best genetic algorithm–artificial neural network structure; drying time (a) and moisture content (b)

Figure 6. Sensitivity analysis results of apricot slices infrared drying by the best genetic algorithm–artificial neural network structure; drying time (a) and moisture content (b)

Figure 7. Response surface diagram for infrared radiation intensity and distance of apricot slices from lamp surface (coated by balangu seed gum) versus drying time (a). Fuzzy process for prediction of drying time (b)

Figure 7. Response surface diagram for infrared radiation intensity and distance of apricot slices from lamp surface (coated by balangu seed gum) versus drying time (a). Fuzzy process for prediction of drying time (b)

Figure 8. Experimental versus predicted values of drying time (a) and moisture content (b) of coated apricot slices by balangu seed gum (using adaptive neuro-fuzzy inference system model)

Figure 8. Experimental versus predicted values of drying time (a) and moisture content (b) of coated apricot slices by balangu seed gum (using adaptive neuro-fuzzy inference system model)