Finally, we explore the optimal design choices for the number of cores as a function of performance, utilization, and energy efficiency.
Profiles of long-lived cosmogenic radionuclides in sediments and ice cores, as a function of depth and, thus, age, provide key information on past solar variability, production rate changes and atmospheric transport and deposition mechanisms.
Using a specially constructed imbibition cell and an X-ray Computed Tomography (CT) scanner, we obtain accurate measurement of saturation profiles along the length of cores as a function of time.
Here, breakthrough curves (BTCs) were obtained to quantify the transport of the ureolytic bacterium, Sporosarcina pasteurii, through sandstone cores, as a function of core length (1.8 7.5 cm), bacterial density (4 × 106 to 9 × 107 cells/ml) and flow rate (5.8 17.5 m/s).
The main contribution of this paper is a performance evaluation driven sensitivity analysis that is contacted on GPGPU-enabled hardware in order to examine efficiency relative to various combinations of GPGPU and Central Processing Unit (CPU) cores as a function of problem size.
Figure 10 shows the results of simulated crosstalk between the magnetic cores as a function of the gap length.
In Figure 4a the random DMNs (belonging to the kind rs = 4 and f = 2) show an increase in the percentage of networks with metabolic cores as a function of the number of subsystems until to converge slowly to 100%.
In our analyses, we have observed large deviations in the percentages of networks with metabolic cores as a function of the number of subsystems for intermediate ranges of λ, e.g., in figure 4 for n = 200 and λ = 50% the values are the following ones: (4a) rs = 4 f = 2, 94.5%; (4b) rs = 5 f = 3, 99%; (4c) rs = 7 f = 3, 70.6%; and (4d) rs = 8 f = 4, 69%.
Physical explanations for the observed trend of core losses as a function of stress are provided based on core loss separation to the hysteresis and eddy current loss components.
