This higher complexity is further highlighted by the function of another PI3K/beclin 1 complex component not present in yeast, namely RUN domain and cysteine-rich domain containing beclin 1-interacting protein (Rubicon).
While the analysis of small specimens frequently benefits from quite homogeneous conditions, higher complexity is introduced to the analysis of large-size cryopreservation, where field properties such as temperature, concentration, and stress vary in space and time.
While the analysis of cryopreservation effects in small specimens frequently benefits from spatial uniformity in temperature and in ICA concentration, higher complexity is introduced to the analysis of large-size specimens, resulting from significant temperature and concentration gradients.
The frequency of the events with higher complexity is non-linearly less than the frequency of simpler events.
For the other three test sequences, our scheme, though having a higher complexity, is beneficial in less loading fluctuation.
Higher complexity is associated with lower N50 and the percentage of reads assembled values, as would be expected in lower species-level coverage scenarios.
On a node based level, this trend toward higher complexity is reflected by an considerable heightened connectivity of domains that support such functions in multicellular organisms [ 15].
As a rule of thumb, higher complexities are displayed as lower DFA (until a minimum of 0.5).
While models of high complexity are very useful for simulation and prediction purposes in the process industry, they may not be adequate for controller design.
In this work, various industrial extrusion problems with high complexity are simulated by employing efficient numerical schemes such as the arbitrary Lagrangian Eulerian FEM and mismatching refinement with domain decomposition.
