The phrase "ability of the simulation" is correct and usable in written English.
It can be used when discussing the capabilities or functionalities of a simulation in various contexts, such as technology, training, or research.
Example: "The ability of the simulation to accurately model real-world scenarios makes it an invaluable tool for our research."
Alternatives: "capability of the simulation" or "functionality of the simulation".
These experimental results validate the ability of the simulation to accurately describe the transport of gaseous hydrogen through engine intake ducting, and the displacement of intake air due to hydrogen introduction.
The ability of the simulation to provide information on experimentally not directly accessible quantities like the detailed spatial arrangement of the particles allows for stringent tests of theoretical concepts about the glass transition and provides additional insight for the interpretation of experimental data.
Results clearly indicate that method A provides the best performance in terms of physical accuracy and numerical stability, and demonstrate the ability of the simulation model in accurately computing the I-V characteristic of the device until the onset of drain-to-bulk junction breakdown.
The sampling ability of the simulation increases with temperature.
To validate the ability of the model, simulations of pullout tests published in the literature have been conducted.
The ability of the simulations to predict liquid recirculation and gas radial holdup profile, which drives the recirculation, is illustrated.
However, in addition, we use the ability of the simulations to numerically track soot parcels along pathlines to further explain the experimentally observed phenomena.
The ability of the model in simulation of complex hydrological processes with GIS interface has created priorities for it in using relevant lump model for hydrological components simulation (Akbari 2010).
The results of validation simulations performed in this study confirm the ability of the combined simulation package to accurately calculate the total diffuse reflectance and transmittance for a refractive index matched and mismatched boundary, as well as angularly, temporally, and spatially resolve the characteristics of optical photon propagation in tissue.
The influence of these variables on the ability of the DR simulation environment to produce accurate load curves and peaks is analyzed.
The extrapolation ability of the model is demonstrated by simulations of Fischer Tropsch waxes hydrocracking.
