However, our models demonstrate that xenoliths may be able to rise, and potentially escape, due to devolatilisation.
The obtained empirical mathematical models demonstrate that, in general, the bleaching was efficient, achieving pulps with kappa numbers below 10.
General circulation models demonstrate that regional evaporation and precipitation rates of methane are likely to change with the seasons (Titan's year is 29.5 Earth years) and evolve on a geological timescale (~105 Earth years)2,3,4.
Animal models demonstrate that environmental chemicals, to which pregnant women are daily exposed, can increase susceptibility of the offspring to cancer.
Predictions made using both analytical and beam element FE models demonstrate that the stiffness and yield strength could be improved by varying the unit cell geometry.
In addition, the proposed 4D models demonstrate that complex processes can be readily reproduced from simple transition functions without complex methodological approaches.
In this sense, both models demonstrate that internal feedbacks play a critical role in controlling river responses to environmental change over historic and Holocene timescales.
Comparisons with data and other models demonstrate that this approach is uniquely successful in describing the phase equilibria and properties of this complex system.
Developed models demonstrate that asymmetric work function underlap 4T DGMOSFETs would have better device subthreshold slope value along with increased back gate oxide asymmetry.
Although our global models demonstrate that long-term environmental norms are very successful at capturing chronic fire probability patterns, future work is necessary to assess how much more explanatory power would be added through interannual variation in climate variables.
The studies in various invertebrate animal models demonstrate that autophagy may be involved in mTOR signaling-associated lifespan regulation.
