Sentence examples for for a faster implementation from inspiring English sources

There is also an urgent need for a faster implementation of Rail Freight Corridors (RFC).

These basecallers can be divided into those that apply a modelling strategy like Bustard (naiveBayescall, Kao et al., 2009 or see Das and Vikalo, 2012 for a faster implementation) and All your Base (AYB) (Massingham and Goldman, 2012) and those that rely on supervised learning approaches (Ibis, Kircher et al., 2009) or intermediate approaches (Altacyclic, Erlich et al., 2008).

Specifically, indicates the value of obtained with a direct implementation of the DCT, while indicates the corresponding value for a fast implementation of DCT.

The velocity inlet boundary type allows for a fast implementation of the velocity magnitude and components so that the AoA (from 0° to 89°) and the Reynolds number of interest were easily implemented.

For a fast implementation of (4), the positive and negative elements of s are treated separately, i.e., s = u − v, ∀ j : u j, v j ≥ 0. Now by assuming that all the vectors and matrices are real, it is easy to check that the minimizer of the following cost function (F) corresponds to the minimizer of J s): F ( z ) = c T z + 1 2 z T B z s.t.

Developing countries looking for a fast implementation of production infra-structure and flexibility for multiple applications, can consider to starting with either roller-bottle or cell factory technologies.

For a fast implementation, those two models are rather inconvenient as P2 a has to be matched against both L1 b and R2 b at the same time.

A faster implementation of a common supervisory framework for European banks under the E.C.B. is indispensable.

In our experiments, we used CRFSuite (http://www.chokkan.org/software/crfsuite/), a fast implementation of CRF, for tagging the angiogenesis terms and events.

For many heterodyne radio receivers the settling time of the AGC loop takes at least 0.5 ms for a fast loop implementation in mobile applications [8].

Thus, efforts were devoted to developing miniaturized diagnostic systems based on microfluidic platforms or nanomaterials for pathogen detection and analysis that circumvent the necessity of sophisticated infrastructure and sample preparation procedures, paving the way for a faster diagnosis with reduced implementation costs, while simultaneously providing reliable epidemiological data [8 14].