Figures & data
Figure 1 Schematic diagram of a vane with six blades that can be used for measurement of yield stress and flow behavior of food dispersions.
![Figure 1 Schematic diagram of a vane with six blades that can be used for measurement of yield stress and flow behavior of food dispersions.](/cms/asset/b4906f4b-4d9e-45b5-938b-ab6f93a864ec/ljfp_a_321213_o_f0001g.gif)
Figure 2 Torque vs. time curve when a vane is rotated at a low rpm. Yield stress can be calculated from the maximum value of the torque.
![Figure 2 Torque vs. time curve when a vane is rotated at a low rpm. Yield stress can be calculated from the maximum value of the torque.](/cms/asset/09a7a581-6987-44c9-9d62-012732a1a936/ljfp_a_321213_o_f0002g.gif)
Figure 3 Complex viscosity vs. temperature curves obtained at different oscillatory frequencies on an 8% cross-linked waxy maize starch dispersion.
![Figure 3 Complex viscosity vs. temperature curves obtained at different oscillatory frequencies on an 8% cross-linked waxy maize starch dispersion.](/cms/asset/0e54b150-27c2-4aee-b2ee-b6d74b23639b/ljfp_a_321213_o_f0003g.gif)
Figure 4 Master curves of reduced complex viscosity vs. temperature of the 8% starch dispersions: corn, cross-linked waxy maize, tapioca, and waxy rice. The reference shear rate is 6.28 rad s−1.
![Figure 4 Master curves of reduced complex viscosity vs. temperature of the 8% starch dispersions: corn, cross-linked waxy maize, tapioca, and waxy rice. The reference shear rate is 6.28 rad s−1.](/cms/asset/f9bcf2ce-ca45-43a1-9af7-d8be5c18b25a/ljfp_a_321213_o_f0004g.gif)