The fault detection central challenge is determining the difference between normal and potential harmful activities at dynamic systems.
The shielding of waves is an appropriate method to protect human beings, livestock, as well as structures and commercial goods from the harmful effects of dynamic loads.
Motivated by the observation, in this paper we investigate the scalable sensor selection problem for early detection of dynamic harmful cascades in networks.
In an animal model, Protti et al. [33] showed that for the same global strain, a large static strain is less harmful than a large dynamic strain.
However, the harmful cascades are usually dynamic (e.g., the cascade initiators and diffusion trajectories can change over the time), which can severely destroy the robustness of selected sensors.
Results show that the bistable suspension can eliminate the harmful resonance via a dynamic stabilization phenomenon, and simultaneously retains the favorable isolation performance in the roll-off bandwidth as compared to the linear suspension.
Culture is fluid and dynamic and its harmful elements can also change with education, enlightenment, and the rule of law.
Enzymes are dynamic molecules and many harmful chemical reactions have been replaced by eco-friendly biological processes due to these biocatalysts.
Because no harmful potential of flow was found, dynamic absorption studies of sodium fluorescein with and without 0.005%, 0.01% and 0.02% benzalkonium chloride were performed compared to the common static test procedure.
The bulk of data so far, therefore, leads to the common belief that dynamic strain (tidal volume) is harmful while static strain (PEEP) is "protective".
