It is suggested, however, that with further development and larger studies, the methods developed here for the quantitative analysis of dynamical structures in patient-therapist communication may become useful on a patient-by-patient basis to inform these clinical decisions.
The analytical methods developed here may be useful for the development of more in-depth studies on the occurrence and fate of these commonly used pharmaceuticals in WWTPs and in the environment.
Thus, the methods developed here may be more useful for conformational sampling of biomolecular structures.
The new methods developed here include a game approach to perturbational variational principles that is of independent interest.
The methods developed here are easily repeatable which allow for temporal changes to be analyzed and assessed over time.
Instead, the methods developed here determine a much smaller set of threats that need to be considered.
The methods developed here are integrated into the widely used open-source tool RAxML for phylogenetic tree reconstruction.
Results highlight that there is ∼10% difference between findings for elastic modulus between existing investigation techniques and the methods developed here for rigid-matrix composite braids.
Numerical examples given here show that the methods developed here retain their order and accuracy everywhere including the region in the vicinity of the singularity r = 0.
Ultimately, the methods developed here, can be used, in conjunction with operational management, to improve reactor core designs in which fuel rod failures are minimized or potentially eliminated.
The methods developed here were able to produce a digital mock up of a component with its associated layup tool in less than 3 minutes.
