Sentence examples for relevant timescales from inspiring English sources

Increased computational performance makes possible MD simulations of biologically relevant timescales exceeding 1 µs, which can be used to sample the conformational space of proteins.

Much ecological research focuses on changes in vegetation on spatial scales from stands to landscapes; however, capturing data on vegetation change over relevant timescales remains a challenge.

A range of efficiency scenarios indicates that the process should require 100 400 kJ of work per mol of CO2 captured and stored for relevant timescales.

This framework promotes an understanding, over relevant timescales (such as performance and learning), of how irregular and unpredictable constraints in AAS influence the emergent dynamics of continuous, dynamical relationships evolving between an individual and her/his environment [34, 52].

The 'reach' of these computer simulations toward biologically relevant timescales (microseconds and beyond) has been improving with advances in hardware and software, as well as the development of enhanced sampling techniques.

In particular, observing and feeding back the effects of circuit interventions on physiologically relevant timescales is valuable for directly testing whether inferred models of dynamics, connectivity, and causation are accurate in vivo.

A battery of NMR experiments is now available to probe the motions of proteins and nucleic acids over the whole biologically relevant timescale from picoseconds to hours.

Because the electrolyte ions must diffuse through the pores of interstitial regions within the SWCNT packing structure, ion accessibility is limited in the inner region of the solids on the relevant timescale.

On the relevant timescale, upd itself does not alter the defect area on repeated cycling; therefore, metal upd may find use as a general tool to determine the collective defect area in hybrids between 2D materials and various substrate metals.

We determined mechanisms and mapped the free energy landscape of the elongation of fibrin ogen) monomers and oligomers through combined experimental and theoretical studies of the nanomechanical properties of fibrin ogen), using atomic force microscopy-based single-molecule unfolding and simulations in the experimentally relevant timescale.

Importantly, we find that there is no one single relevant timescale along the trajectory but that the coding process may use states expressed on faster or slower timescales depending on the temporal properties of the stimulus (Figure 5).