Moreover, the strain softening behavior of the materials under loading-unloading was examined by employing a rubber-softening empirical model developed in previous works.
In addition, the model developed in this work is able to study the ion dynamics of a pollen tube with different sizes of tip and shank volumes as it explicitly includes volumes as variables.
The information transfer model developed in our work which includes network issues has relevance to the work described in [4].
The purpose of this work was to simulate the HDS process using the mathematical model developed in previous work and several kinetic models founded in literature.
Therefore, the model developed in this work has an acceptable generalization capability and accuracy.
The model developed in this work is expected to have wide control and optimization applications.
The novel simulation model, developed in this work, combines the effects of both bending and torsion.
The physical model developed in this work was based on a transmission line, and accurately described the experimental diagrams.
The model developed for this work provides a sound basis for current analysis at the field scale.
With the empirical model developed in this work, a real free-cooling system was designed and economically evaluated.
