Topics identified as meriting additional research include elicitation of uncertainty representations, aggregation of multiple uncertainty representations, dependence and independence, model uncertainty, solution of black-box problems, efficient sampling strategies for computation, and communication of analysis results.
A numerical solution strategy for the computation of two-way momentum coupled flow is discussed.
In this paper, we present a strategy for flexible computation, which we call iterative state-space reduction.
A Newton Krylov iterative method (GMRES) solves the final systems of linear equations along with a domain decomposition strategy for parallel computation using message passing libraries in a distributed memory system.
However, the strategy for the computation of blobs is completely different; the idea in this case is to obtain potential blobs in the image, in such a way that each group of pixels with relatively homogeneous values should result in a blob.
Further studies should determine the optimum strategy for the computation of beanformer weights in cases where MEG signals are produced by closely spaced (uncorrelated) sources.
Algorithm 4 (Fig. 5 ▶): This algorithm carries out a breadth-first search strategy for the computation of the connected component of a given vertex i of the -graph.
We develop and evaluate strategies for efficient computation and propagation of wavefronts using a multi-level queue structure.
The comparison of three different strategies for the computation of the final score revealed that scores best achieved prediction of mortality if all scoring points awarded for each parameter had been summed up (strategy C), equally applying for full and observation-restricted scoring.
In this study, four different data treatment strategies for the computation of U/U isotope ratios of single particles from transient signals were evaluated.
This work aimed at investigating the applicability of different data reduction strategies for the computation of major U isotope ratios (i.e. U/U) from single particle measurements and to provide accurate measurement results on single particles with combined uncertainty and traceability.
