However, such global characterizations of systems ignore significant local variations in the connection topology that are often functionally important.
While dose-response curves provide the basic characterizations of "systems" and therefore lie at the core of pharmacological treatments, in the analyses presented here we show that dose-response parameters cannot be reused directly in models of signaling systems.
We compared our characterizations of system-level properties with characterizations of essentiality from the basis of multiple (previous) validated studies.
This paper focusses on the characterization of system integrated filters in terms of Bit Error Rate (BER) measurements.
A comprehensive characterization of system behavior is provided to demonstrate boundary condition and ignition quality as well as adherence to the assumption of quasi-one-dimensionality, and suggest limitations and best practices for counterflow ignition experiments.
It provides a quantitative characterization of system responses and can assist the role of the traditional stroboscopic technique (Poincaré section method) to observe bifurcations and chaos of the nonlinear oscillators.
Focusing on one single aspect of these complex modes of action can result in inadequate characterization of system response.
This is thus well adapted to in situ characterization of systems that operate at a fixed wavelength.
The typical characterization of systems (1.10) and (1.11) is the complete couple of the nonlocal sources, which leads to the analysis of simultaneous blowup.
A detailed characterization of systems was carried out by SEM, DSC, FTIR, particle size, ζ potential measurements and in vitro CRM release.
They are relatively simple models requiring little more effort in development than a standard linear model, yet offer superior characterization of systems with highly nonlinear gains.
