The InSAR velocities are fit remarkably well by the model, indicating that the source of the contraction is the same as, or closely related to, the 1999 intrusion.
Here we present results from a fully coupled, three-dimensional carbon climate model, indicating that carbon-cycle feedbacks could significantly accelerate climate change over the twenty-first century.
The experimental data were well fit with the model indicating that it was suitable for this column design.
Moreover, we observe considerable adhesion in several cell lines using an in vitro shear flow model, indicating that this approach is promising for numerous tissues.
Additionally, the predicted temperature-dependent resistivity evolutions are in good agreement with both experimental measurements and analytical sintering model, indicating that the resistivity decreases with increasing sintering temperature.
The release kinetics of the optimized formula fit the Higuchi model indicating that the drug was released by diffusion in 12 h.
Adsorption isotherm results demonstrate that the equilibrium data are well fitted by the Langmuir isotherm model, indicating that the Cs+ adsorption is probably a monolayer adsorption process.
These experimental results were supported by the model indicating that the bimodular simplification of cartilage properties is a useful first approximation of T C nonlinearity in these tests.
Both LDI and largest patch index variables were included in this model, indicating that the relative distribution of dominant land use classes influences NOX-N loads.
However, pH evolution of the system was captured better without the agglomeration model, indicating that the kinetic model may not describe the precipitation accurately.
Logarithmic normal distribution had the best fit for the abundance distribution model, indicating that intermediate abundance of soil type was most common.
