Sentence examples for numerical tolerances from inspiring English sources
Numerical tolerances are set to 10 − 7 ( | y i | + 1 ) where y i represents all variables, i.e., u and potentially a at all grid points.
The higher efficiency of odeSD, odeSD mex and odeSD c holds also for averages over all models and for a wide range of numerical tolerances.
The average computational times for our integrator were comparable (odeSD mex vs. cvode) to, or slightly lower (odeSD vs. ode15s or radau5) than those of the first-derivative solvers, except for low numerical tolerances.
These models are generally validated using experimental data then used to simulate real-world head trauma in order to derive numerical tolerance limits, leading to efficient injury predicting tools.
We have demonstrated that our method produces results that are converged with respect to its numerical tolerance parameter, and with the mass resolution to which trees are augmented.
Consequently, such risk matrices must be calibrated with reference to appropriate numerical risk tolerance criteria, or process safety target levels, to define appropriate risk reduction requirements.
Numerical risk tolerance criteria are used around the world in the management of process safety, although federal process safety regulations in the United States do not currently employ such criteria.
Graphical and numerical representations of tolerance allocation by this method are presented.
In the subsequent numerical examples, the tolerance is taken as (varepsilon=10^{-6}). Obviously, the number of iteration is determined uniquely by the stopping criterion.
Numerical values for tolerance given in Table 4 were adapted from data of Maas and Hoffman (1977) and Maas (1984).
Where insufficient data exist to give numerical values for tolerance, a relative rating has been assigned to the crop, based on field experience, limited data or observations.
