Sentence examples for cycling durability from inspiring English sources

Electrochemical performances show that nanoneedle-assembled NiCo2O4/g-C3N4 exhigher higher specific capacitance (253 F g−1 at a current density of 2 A g−1), while nanosheet-assembled NiCo2O4/g-C3N4 possesses a better cycling durability (101.4% capacitance after 1000 cycles) in a three-electrode configuration.

Compared with the control counterpart, the repellent composed of Al-containing (oxy)fluorides played a vital role in stabilizing the interface and promoted the cycling durability of batteries (capacity retention >85% after 200 cycles) with a 1 C rate at an elevated temperature (55°C) without dendrite growth and by-product drifting.

Furthermore, the P doped carbon electrode yields a long-term cycling durability with more than 97.9% capacitance retention after 10000 cycles as well.

Due to the high capacitances and excellent rate performances of VO2@PCNFs and PCNFs, as well as the synergistic effects of the two electrodes, such asymmetric cell could be cycled reversibly in the voltage range of 0 1.7 V, and presents maximum energy density of 75.06 Wh kg−1, and excellent cycling durability, with 92.4% retaining in its specific capacitance even after 4000 cycles.

In addition, after repeating the charge-discharge tests for 5000 cycles at a current density of 1 A g−1, CGACF exhibits a good cycling durability with a capacitance retention of 96.3% (Fig. 7b).

Moreover, the as-synthesized nanocomposites present excellent cycling durability and high-rate capability.

The structural integrity during the repetitive charging/discharging process largely contributes to the capacitance retention and convincingly demonstrates the splendid cycling stability, durability, and application potential in practical supercapacitors.

Start/stop cycling are dynamic durability tests designed to simulate the fuel cell system shut-down and restarting that occurs in actual system operation.

Blending of certain lithium insertion compounds is done to combine the best properties of the individual active materials and to improve the energy or power density as well as cycling and storage durability.

Benefiting from the high stability, conductivity, and porosity of Ti foam, the Li O2 batteries exhibit good durability (cycling 118 rounds at 1C rate within a 1000 mAh g−1 capacity limitation).

The electrochemical response in laboratory-scale lithium cells is highly satisfying: at a very high discharge/charge rate of 12C, the NTs can perform with good stability and capacity retention after long-term cycling along with improved durability (>1100 cycles).