Meanwhile, the maximum current efficiency (C E) and power efficiency (P E) of the organic light-emitting devices (OLEDs) with the emitting layer of lower doping concentration were 13.5 cd/A and 14.1 lm/W, respectively.
As a result, we are able to realize efficient and stable PeLEDs, with a maximum current efficiency of 32.0 cd A−1 and a peak EQE of 10.5%, which increases to even higher EQE of 17% for TFA-derived mixed-cation FA0.11MA0.10Cs0.79PbBr3 LEDs.
The maximum current efficiency of the FOLED is 13 cd/A with stable mechanical flexibility even when bent to a radius of curvature of 2 mm.
However, the PTHPI-based OLED device exhibited a maximum current efficiency of 7.20 cd A−1, maximum power efficiency of 4.00 lm W−1, and external quantum efficiency of 3.41%, which are better than the corresponding values for the PTHBI-based device (luminous efficiency = 3.44 cd A−1 and external quantum efficiency = 2.38%).
Solution-processed phosphorescent organic light-emitting device (PhOLED) based on bipolar phosphor 2 as neat emitter achieves a maximum current efficiency of 12.4 cd A−1 with Commission Internationale de l'Eclairage coordinates of (0.57, 0.42), and the value remains at 11.5 cd A−1 at a practical luminance of 1000 cd m−2.
The maximum current efficiency of 6.2 cd/A is achieved.
The maximum current efficiency of Fe VI) formation reached during galvanostatic batch electrolysis has attained 72%.
Maximum current efficiency was observed when the potential scan rate reaches to 5 V s−1.
The resulting orange homojunction device exhibits a maximum current efficiency of 30.0 cd/A and low efficiency roll-off.
The device with the configuration of ITO/4FDT/Alq3/LiF/Al yields maximum current efficiency of 4.3 cd/A.
The maximum current efficiency and power efficiency of TWOLED reach 28.9 cd/A and 27.5 lm/W, respectively.
