Comparison of experimental and predicted recoveries by RBF revealed that the results were closely in agreement with each other, indicating high capability of designed RBF to model process and subsequently simplex technique usefulness in optimizing MIP nanoparticle preparation parameters.
High concentration of MWCNT/WPU composites at low thicknesses indicates higher capability of shielding by absorption compared to reflection, which is adverse to composites with relatively low MWCNT mass ratios.
The capacity retention of ca. 88%, when the current density increased from 1 to 4 A g−1, indicated high rate capability of the unique S-NiO NTs electrode.
A low capacity decay of 22% indicates high rate capability when current density increases from 1.0 to 10 A g−1.
Electrochemical measurements indicate high rate capability (82% salt retention) and outstanding cycling stability performance (100% capacitance retention over 600 cycles at 0.76 A g−1).
The retention of initial capacitance reaches 77.8% after a 20-fold increase in the scan rate, and remains 83.5% after 1200 cycles, indicating high rate capability and excellent cyclability.
These results indicate high predictive capability of developed model for the preparation process of nanoparticles of MIPs.
At higher current densities of 500 and 1000 mA g−1, the SnS2@CoS2 rGO composite possesses reversible capacities of 405.8 and 309.8 mAh g−1 with only minor decay over 100 cycles, respectively (Fig. 6e), indicating high rate capability and good cycling stability for the SnS2@CoS2 rGO composite.
It can reach the highest altitude of 5 000 m, indicating its high capability for cold endurance [ 17].
We experimentally demonstrate the system's capability to perform phase-resolved imaging of dynamic blood flow within retina, indicating high phase stability of the SDOCT system.
