Sentence examples for low rate capacity from inspiring English sources

However, the dissolution of active materials into electrolyte results in short cycle life and low rate capacity which are inevitable obstacles to the industrialization.

The utilization of MnO2 based anode materials is limited by poor cycling performance and low rate capacity due to chemical and mechanical degradations upon cycling.

However, poor electrical conductivity and volume change during cycling result in low rate capacity and rapid capacity fading, which hinder the practical applications of those electrodes.

The low rate capacity and cold cranking performance of batteries designed to be negative electrode limiting remained essentially unchanged upon increasing the organic expander dosage from 0.25 to 0.50% on weight of lead oxide in a negative mixture.

It was found that excessive modifying of C&N can introduce a lot of amorphous TiONx and also create undesirable Ti2+ to induce a structural transformation of LTO, directly leading to a low rate capacity.

Despite intensive study, the practical use of SnO2-based anodes is hindered by their poor capacity retention and low rate capacity resulting from their large specific-volume changes and kinetic limitations in ion/electron transfer during the lithium ion insertion/extraction process.

However, poor capacity retention caused by large volume changes during cycling, large initial irreversible capacity, and low rate capability frustrate its practical application.

Low-rate capacity is independent of separator structure, consistent with it being able to wick electrolyte to the full height of the cell without significant variation of saturation.

Cobalt oxides are attractive high-capacity anode materials in lithium ion batteries yet suffer from fast capacity fading and low rate capability.

Evaluated by electrochemical measurements, both of them have high initial discharge capacities (1374.4 mand−1326.31326.3 mand−1) and enhanced cycling stabilities at the low rate (the capacity retention ratios at 0.1 C after 70 cycles are 91.6% and 92.2%, respectively).

As a representative catalyst, the synergistic effects of the inherited superior catalytic activity and the unique porous structure of NiCo2O4 lead to low overpotentials, high rate capacity as well as excellent long-term cyclability in Li O2 cells.