A maximum power conversion efficiency of 3.2% was achieved with the DERH3TT solar cell device.
The cell with minimum internal resistance and maximum carrier life time had maximum power conversion efficiency.
The maximum power conversion efficiency achieved was 0.4% using a bilayer heterojunction device architecture with C60 as the donor.
A CL thickness of 90 nm afforded the perovskite-based solar cell with the maximum power conversion efficiency (η, 3.17%).
A maximum power conversion efficiency of 1.4% was achieved under 1 sun illumination (AM 1.5G, 1000 W m−2).
A maximum power conversion efficiency of 9.2% is achieved, much higher than the 4% obtained when a low temperature conventional sol gel TiO2 compact layer is used.
The optimized devices achieved a high open-circuit voltage of 1.04 V with a maximum power conversion efficiency of 8.24% under AM1.5 G standard conditions.
This is far from the 1.35 eV which is the optimal band gap of a semiconductor for maximum power conversion of light in the solar spectrum.
At six (6) stages, the rectifier was able to extract 1.52 V usable DC voltage and attained a maximum power conversion efficiency (PCE) of 15.81%.
Under standard irradiation conditions, the 600 nm ITO nanorod solar device was found to have the maximum power conversion efficiency of 6%.
The maximum power conversion efficiency of 3.01% was achieved for the cyanovinyl thiophene unit in the π-spacer and acrylic acid acceptor dye based DSSC.
