Sentence examples for fast layer from inspiring English sources
For the fast layer dynamics of the (4F, 1SS) system, the critical manifold is our former superslow manifold, (mathscr {M}_{ss}), which lies within (mathscr {M}_{s}).
Eventually, the trajectory passes the fold of (mathscr {M}_{ss}) (blue triangle) where (mathscr {M}_{ss}) destabilizes, a transition to the fast layer problem occurs, and hence the solution of the (4F, 1SS) system follows the fast layer flow to another stable branch of (mathscr {M}_{ss}).
end{aligned} (8b) We define the critical manifold (mathscr {M}_{s}) to be the manifold of equilibrium points of the fast layer problem, i.e., mathscr {M}_{s}:=bigl{ (v, h, ca_{i}, c_{mathrm{tot}},l): hat{f}_{1}= hat{f}_{2}=0bigr}.
Introducing a fast time (t_{f}=t_{s}/varepsilon) and letting (varepsilon rightarrow0), we can derive a 2-dimensional fast layer problem that describes the dynamics of the fast variables v and (ca_{i}), for fixed values of the other variables: begin{aligned} frac{dv}{dt_{f}} =&hat{f}_{1} v,h,ca_{i}), end{aligned} (8a) begin{aligned} frac{d ca_{i}}{dt_{f}} =& hat{f}_{2} v,ca_{i},c_{mathrm{tot}},l).
Leung and Zhang (2011) proposed fast layer-based heuristic with the strategy of stacking rectangles.
Finally the deformed textures are further utilized to create large textures with the fast layer-based texture deformation algorithm, and the wavelet-based energy optimization.
In Leung and Zhang (2011), fast layer-based heuristic inspired by brick packing does not depend on parameter setting and was designed to handle large instance as by Huang et al. (2007).
The latter provides not only a faster layer deposition but also larger coated areas compared to conventional methods, such as layer-by-layer (LbL) and Langmuir Blodgett (LB).
The Layer-by-Layer (LbL) technique via spraying (spray-LbL) has been applied as new and alternative methodology to fabricate ultrathin films due to its versatility in relation to the conventional dipping-LbL method, mainly in terms of faster layer deposition and larger coated area.
The proposed cross-layer approach fits in the radio resource management (RRM) framework proposed for state-of-the-art networks such as LTE that define a division between fast dynamic layer 1 and layer 2 RRM functions working at the transmission time interval level and semi-dynamic layer 3 RRM procedures.
Because sediment builds up so fast, the layer of World Trade Center ash will be buried quickly, Oktay says, keeping it from being disturbed by bottom-dwelling creatures.
