We simulated motility assay velocity event density essentially as described previously for a 2.1 μm actin filament.
In order to summarize, with our simulated migration assays, we demonstrate that the dimensionality of the environment strongly affects the migration phenotype and we suggest that the cytoskeletal and nuclear elastic characteristics correlate with the tumor cell's invasive potential.
We generated simulated fluctuation assays for different couples of m and b with either 16, 32, 48, 96, 192, or 384 parallel cultures.
We validate the model with simulated growth assays in different media and carbon sources and use it to predict essential genes.
The proteins evaluated in these 28-day studies had also been assessed by the widely accepted weight-of-evidence approach (e.g. lack of homology to known toxins and allergens; rapid digestion in simulated digestive assays) (Codex, 2009; Delaney et al., 2008a).
Each dataset was evaluated six times, with one of the three formulas for the standard deviation of the assay (CV = 3%, 6%, 9%) used to simulate the assay values, and either the correct CV or one half of the correct CV used for the analysis.
To simulate cellular assay conditions, an aliquot of each stock dispersion was added to cellular media at a final nZnO concentration of 0.6 mM.
The biologic activity of the endostatin encoded in the adenoviral vector was determined through the bFGF simulated HUVEC proliferation assay.
The stability of a protein to digestion, as predicted by an in vitro simulated gastric fluid assay, currently is used as one element in the risk assessment process.
A review of the literature on the use of the simulated gastric fluid assay to predict the allergenic status of proteins suggests that more extensive kinetic studies with well-characterized reference proteins are required before the predictive value of this assay can be adequately judged.
