Despite the technical challenges and gaps in data for model specification, an increasing number of multiscale modeling studies have taken on key questions in plasticity.
Molecular modeling studies have been performed, that is, a homology model for ROS1 was built, and the screened inhibitors were docked into its major identified binding site.
That is, few modeling studies have been completed for all possible dynamics of models with state-dependent feedback control due to the complexity [1].
To date, however, few modeling studies have considered the coupling of transport and particle aggregation processes.
The modeling studies have investigated the conformational and electrostatic properties of the ligands.
For biological systems, quantitative structure activity relationship (QSAR) and molecular modeling studies have acquired the leading role.
Their modeling studies have the potential to improve seasonal prediction of mid-latitude cold events over the North Atlantic and Eurasia.
Both observational and modeling studies have been extensively employed to characterize hydrological changes and trends, assess the impact of climate variability or provide future scenarios of water resources.
Molecular modeling studies have been performed to get insight into the binding mode of the synthesized compounds to human MAO-B active site.
Both these experimental and computational modeling studies have identified key criteria for the prototype reactor being designed for bulk polysilicon growth.
To date, only few modeling studies have taken into account respiration and exercise as important factors to quantify the performance of a Fontan geometry.
