Sentence examples for optimum charging from inspiring English sources

Competition between mixing and conductive losses gives rise to a thermodynamically optimum charging time for the system.

The findings can be viewed as a step towards finding the optimum charging waveforms for these devices that would maximize their effective capacitance.

An effective optimum charging technique for lithium ion batteries using a universal voltage protocol (UVP) that can accommodate cell aging is presented here.

We determine (1) how frequently a MFC can charge a capacitor, (2) which electrode is current-limiting, (3) what capacitor value will allow the maximum harvested energy from a MFC, which is called the "optimum charging capacitor value," and (4) what capacitor charging potential will harvest the maximum energy from a MFC, which is called the "optimum charging potential".

Using a SMFC we find that (1) the time needed to charge a 3-F capacitor from 0 to 500 mV is 5 min, (2) the optimum charging capacitor value is 3 F, and (3) the optimum charging potential is 500 mV.

Using a LMFC we find that (1) the time needed to charge a 3-F capacitor from 0 to 500 mV is 108 min, (2) the optimum charging capacitor value is 3 F, and (3) the optimum charging potential is 300 mV.

The CLHP could reach a maximum heat transport capability of 4.5 W over a distance of 0.6 m corresponding to the optimum charged pressure of the working fluid; however, the heat transport capability decreased with the increase of the auxiliary heat load.

The optimum charge for which the system delivers maximum COP is predicted.

Selective charging and optimum charge density (charge-to-mass ratio: nC/g) of materials in tribo-charging are the most important parameters for separation efficiency.

The detector consists of four n-well/p-substrate diodes combining optimum charge collection and low noise performance.

The optimum charge for R290 was reduced to 190 g, which meet the safety requirement of China National Standard GB 4706.32-2012.