Although surgical simulation has proven to be an effective training tool, an anatomically sound simulation model for MT is lacking.
During this period, simulation has proven to be an extremely useful analysis tool, and many hundreds of articles, papers, books, and conferences have focused directly on the topic.
Circuit simulation has proven to be one of the most important computer aided design (CAD) methods for verification and analysis of, integrated circuit designs.
In recent years, computational modelling and simulation has proven to be a powerful tool for investigations of the effect of drugs, mutations and disease on cardiac electrophysiological activity (Clancy and Rudy, 1999; Sale et al., 2008).
During the past decade, the use of ion mobility spectrometry (IMS) combined with molecular dynamic simulations has proven to be a versatile technique for the analysis of intermediate and equilibrium structures of biomolecules enabling the correlation of ion-neutral, collision cross sections (CCS) with candidate structures.
During the last decades, ion mobility spectrometry (IMS) combined with molecular dynamic simulations has proven to be a versatile technique for the analysis of intermediate and equilibrium structures of biomolecules enabling the correlation of ion-neutral, collision cross sections (CCS) with candidate structures.
Confounding factors can complicate interpretations from these data, and computational simulations have proved vital to illustrate expected patterns under different scenarios.
Numerical simulations have proved that it is possible to deal with these aspects with a very reduced computational effort which is promising for non-linear dynamical analyses applications.
Computer simulations have proved that the computation time of the proposed algorithm is almost constant in spite of increasing numbers of incoming waves and is faster than that of existing methods based on the MUSIC algorithm.
