Sentence examples for energetic reductions from inspiring English sources

Significant economic improvements in the range of 15%35%% depending on the employed solvent are observed on optimized flowsheet configurations, whereas impressive energetic reductions in the reboiler duty of up to 55% are achieved using an aqueous AMP solution for CO2 capture.

Similar arguments to those used here to explain why animals forage together have been given for why they should rest together, including predation reduction, and energetic cost reduction through thermoregulation [ 112, 113], and we are confident that future modelling work would show that this also leads to activity synchronisation.

Though his rescoring deftly preserved much of Shostakovich's original string and brass coloration, and the performance was solid and energetic, a reduction of the full symphony would quickly wear out its welcome.

Use of primary roads may provide others benefits to bobcats such as reduction in energetic costs related to space use.

The overall feasibility of CO2 conversion is limited by the availability of efficient photo-active materials that meet the energetic requirements for CO2 reduction and are optically matched to the solar spectrum.

For faster rates of one call per 313 ms, responses are reduced to 27% and 21% of 5000 ms levels, rendering support for the idea that call rate-dependent modulation of neural responses may lead to an overall reduction in energetic expenditure on communication.

Looking after young may require additional energy consumption and/or a reduction in energetic intake [ 10].

Collectively, the transcriptomic analysis demonstrated the differential sensing of nutrition/cellular energetic status, plus a reduction in glucose utilization and respiration.

This may explain why statistically significant increases in take-off angle with a similar magnitude results in a reduction in energetic cost when jumping 1.8 m but not when jumping 1.2 m.

Considering basic bioenergetic features of respiratory arsenate reduction, the energetic benefit of this mechanism is expected to be much lower than that or the other systems discussed in this work.

Thus the reduction in energetic cost when jumping from a compliant surface appears to be at least in part a result of the increase in the take-off angle, which is thus closer to the theoretical optimum for reducing the energy cost produced by the impulse, i.e. the cost to jump based on first principles.