The main principles, methodology, and requirements for ensuring the safety of the crew during training are presented.
This chapter describes the principles, methodology, and applications of FbD in the development of novel nanostructured DDS with special emphasis on the literature instances on them.
Theoretical principles, methodology and algorithms presented herein are to analyze and design the elastic thin-walled engineering structures and components, with emphasis on the important nonlinear behavior.
We describe the underlying principles, methodology, and preliminary results of modelling and simulating a multi-cellular sensor and communication network in a dynamic decentralised setting, motivated by a self-monitoring, self-repairing AAV.
In this review, the basic principles, methodology, and practical experiences as well as safety and other aspects concerning slow cooling and ultrarapid cooling (vitrification) of human embryos and oocytes are summarized.
Finally, the next generation of doctors will require training in in silico systems, and understanding their principles, methodologies and limitations.
The principles, methodologies, results, model and validations are detailed in Additional Files 2, 3, 4, 5, 6, 12. Clones AS-sens, AS-15MF and AS-30CQ were re-sequenced by the Illumina® (Solexa) platform with 36 - (AS-sens, AS-15MF) or 50 base (AS-30CQ) single reads (nominal coverage x20, x30, x30 fold respectively) (Table 1).
In this proof-of-principle methodology, as low as 50 nM of a target DNA was detected, although we envisage far-lower detection limits.
It reviews the principle methodologies, architectures, tools and either pilot trials or commercially successful applications of industrial agent systems with major focus on achievements of Rockwell Automation company.
Nowadays, first-principles methodologies are based on using Langevin dynamics to simulate the presence of a solvent during annealing and Monte Carlo simulation to sample configurations from a Boltzmann-weighted distribution.
In the present work, a first-principles methodology with constrained relaxations has been used to study the effect of dilute alloying element (X) on σγ/γ′ of the (100) coherent interface, where the sixteen X's include Al, Co, Cr, Fe, Hf, Mo, Nb, Pd, Pt, Re, Ru, Ta, Ti, W, Y, and Zr.
