For practical cases, the detailed steps, including the choice of class of the exploring phenomenon, calculating the optimum number of dimensionless criteria, and the value of the achievable comparative uncertainty, are presented.
To uncover the reasons for this phenomenon, we calculated the number of all drugs causing one ADR and the number of total targets of these drugs.
The spall strength, an engineering description of the spall phenomenon, was calculated and shown to increase from 3.6-7.4 3.6-7.4stress increases from 6-55 GPa, asd it istressn that the method of spall strength computatincreases large efromt.
To understand this phenomenon, we calculated from the supernatants the expected amounts of immobilized enzymes on the short and long chains formulas and they were found to be 18 and 21 U/g, respectively.
To further investigate this phenomenon, we calculated the number of interactions in which both interacting regions are located within a single TAD��versus those spanning the TAD boundaries.
The electromagnetic phenomena are calculated by using 3D finite element method (FEM) based on the electromagnetic AV-A formulation.
The TRIP and MIMT phenomena were calculated using the concept of variant selection, which is based on the Kurdjumov Sachs (K S) orientation relationship.
The maximal inspiratory flow velocity seemed to have an important influence on the occurrence and severity of the phenomenon, and we therefore calculated the ratio of the maximal flows between the Oxylog 3000™ and the Evita-4 NeoFlow™.
The percentage overall accuracies of different algebra products for each phenomenon were calculated and compared.
In addition to all effects observed for binary systems, the following new phenomena were calculated: (i) twofold disappearance of closed loops of immiscibility and twofold reappearance; (ii) creation and annihilation of three phase areas; and (iii) creation and annihilation of islands of homogeneity in the centre of the ternary phase diagram.
