Sentence examples for superior power efficiency from inspiring English sources

Despite the small production runs, considerably superior power efficiency and damage resilience, an MP costs about the same as any other WiFi router.

In fact, IHS says that the iPhone 5's screen may actually look better (more accurate and realistic) compared to the SGSIII, owing to "better calibration, higher brightness and superior power efficiency".

This ADC is characterized by superior power efficiency and small area, realized by employing a lateral metal metal capacitor array and a dynamic two-stage comparator.

Compared to the Spiro-OMeTAD-based device, the copolymer with methoxy side-chains on the BT unit (namely PCDTBT1) as the HTM achieved superior power conversion efficiency and stability due to efficient hole transport and the suppression of trap-induced degradation, whilst the copolymer with octyloxy side-chains on the BT unit (namely PCDTBT8) as the HTM lead to poor performance and stability.

The device based on the HC-CE showed superior power conversion efficiency (6.3%) and long-term stability over the device based on the C-CE (5.8%).

When a CuPc hole transport layer is further introduced, carbon counter electrode based perovskite solar cells exhibit a superior power conversion efficiency of 16.61%.

As a result, a superior power conversion efficiency (PCE) of 15.5% was obtained for the device based on the ammonia-doped PEDOT PSS HTL than that of the pristine PEDOT PSS-based PEDOT PSS-based

Although the solar cells based on CdS nanocrystals usually do not demonstrate superior power conversion efficiency (PCE) (Table 1), this material is convenient to study as a proof of concept for new cell geometries and to model hybrid interface properties [4, 14 16] due to the abovementioned advantages.

The incorporation of ZnO/CdS/Py-OH NAs as ETL into the inverted PSCs based on P3HT PC61BM resulted in a superior power conversion efficiency (PCE) of 4.2% with enhanced short circuit current (Jsc) and fill factor (FF), compared to 3.1% for bare ZnO NAs, due to the intermolecular close-stacking and relative stronger π π interaction energy between Py-OH and fullerenes.

Comparison of the applicability between chilling and fogging shows that, inlet fogging is superior in power efficiency at ta = 15 20 °C though it gains smaller profit margin than inlet chilling.

It exhibited superior power conversion efficiencies with respect to conventional nanoparticle-based reference film.