Sentence examples for dark computing from inspiring English sources

This year, a dominant theme seems to be deep space and dark computing: over the month-long series you'll find work by composer Iannis Xenakis, a live film score to Stanley Kubrick's 2001: A Space Odyssey, and a show by Onehotrix Point Never, whose synth explorations provide a modern take on spacey 1970s German kosmische.

By overcoming experimental scan time and dose issues, we report the first dark-field computed tomography scans on living mice, demonstrating excellent depiction of the anatomical distribution of pathological lung changes.

Even way back in the computing dark ages, McClure knew that computers had the potential to unravel some of biology's thorniest problems.

In this paper, we propose new efficient and accurate numerical methods for computing dark solitons and review some existing numerical methods for bright and/or dark solitons in the nonlinear Schrödinger equation (NLSE), and compare them numerically in terms of accuracy and efficiency.

For computing dark solitons, to overcome the nonzero and/or non-rest (or highly oscillatory) phase background at far field, we design efficient and accurate numerical methods based on accurate and simple artificial boundary conditions or a proper transformation to rest the highly oscillatory phase background.

The raw intensity images are initially corrected for the dark counts before computing the speckle contrast.

We obtain these quantities from Nyx simulation data using two companion codes: Reeber, which uses topological methods to compute dark matter halo sizes and locations; and Gimlet, which computes statistical data of various fields.

micrOMEGAs  is a code to compute dark matter observables in generic extensions of the standard model.

We present MadDM v.1.0, a numerical tool to compute dark matter relic abundance in a generic model.

Fig. 9 Time-averaged spectra of the input SV o from GRIMM (2002.0 2005.0) (black curve), and the non-advective SVs na (light gray curve) and (dark gray curve) computed with the definitions of scalar products (7) and (12), respectively.

Details of the tsunami model, earthquake fault parameters, and incorporation of data from buoys of Deep-ocean Assessment and Reporting of Tsunamis (DART) are presented in Appendix 2. Fig. 4 Band-pass filtered tide gauge record from Chichijima Island showing observed tsunami waveforms (dark blue) and computed tsunami waveforms (light blue).