Figures & data
Table 1 Physicochemical parameters of honey
Figure 1 Typical rheogram of honey (A: elastic modulus; B: loss modulus; C: viscosity) at different temperatures: rhombus 5°C, square 10°C, triangle 15°C, multiplication symbol 20°C, cyrillic small letter zhe 25°C, circle 30°C, and plus 40°C.
![Figure 1 Typical rheogram of honey (A: elastic modulus; B: loss modulus; C: viscosity) at different temperatures: rhombus 5°C, square 10°C, triangle 15°C, multiplication symbol 20°C, cyrillic small letter zhe 25°C, circle 30°C, and plus 40°C.](/cms/asset/e84da825-359b-410e-ba1c-343884b9a44c/ljfp_a_791835_f0001_oc.jpg)
Table 2 Influence of temperature on honey viscosity
Table 3 Effect of °Brix concentration (C) on the honey’s viscosity at different temperature (T)
Table 4 Influence of the °Brix concentration on the viscosity’s activation energy
Figure 2 Variation of viscosity with temperature and °Brix concentration (spatial representation with representation by contours).
![Figure 2 Variation of viscosity with temperature and °Brix concentration (spatial representation with representation by contours).](/cms/asset/42ee0d9d-8862-4552-8341-6f0731824820/ljfp_a_791835_f0002_oc.jpg)
Table 5 Combined effect of °Brix concentration and temperature on the honey’s viscosity
Table 6 Correspondence between actual and coded values of design variables
Table 7 Influence of temperature on honey loss modulus
Table 8 Effect of °Brix concentration (C) on the honey loss modulus at different temperature (T)
Table 9 Influence of the °Brix concentration on the loss modulus’s activation energy
Figure 4 Variation of loss modulus (G”) with temperature and °Brix concentration (spatial representation with representation by contours).
![Figure 4 Variation of loss modulus (G”) with temperature and °Brix concentration (spatial representation with representation by contours).](/cms/asset/c0870dbc-a57b-425f-9b22-6b92148cdf19/ljfp_a_791835_f0004_oc.jpg)
Table 10 Combined effect of °Brix concentration and temperature on the honey’s loss modulus