Sentence examples for module efficiency of from inspiring English sources

Module efficiency of 13% (AM1.5, 25C) has been demonstrated with a module presenting a 50% solar-cell coverage fraction, and 18.3% with a 100% Sliver® cell coverage fraction.

An average solar cell efficiency of 3% and a module efficiency of 1.9% for three serially interconnected solar cells of 5.4 cm2 each are reported.

While simulations using the developed model estimated a module efficiency of ∼3.23% and an annual electrical energy generation of 448 kWh/m2, the fabricated module with a cell width of ∼18 mm exhibited an efficiency of ∼3.19%; the design is also conducive for practical manufacturing and thermal reliability.

Meyer Burger recently plotted out its roadmap to module efficiencies of 25%.

The lifetimes of the devices defined as the time it takes for the module efficiency to attain half of its maximum value were found to improve significantly when a sublimed layer of C60 was included between the polymer and the aluminium electrode.

The motivation for this particular design is to reduce resistive I2R power loss that degrades PV module efficiency, to bypass the use of limited resources such as indium and germanium, and to simplify epitaxial growth with the lattice matched AlxGa1−xAs semiconductor family.

It is proven that the standard model produces the exact module output power if an integral-averaged Seebeck coefficient is used, and also that the standard model provides a reasonably-accurate estimation of module efficiency, despite its limiting assumptions.

It is observed that for large values Rsh, the module efficiency at low values of isolation decreases by 3%5%%.

By using the Module Efficiency Calculating the Chemistry of the Atmosphere (MECCA) chemistry box model, de Reus et al. (2005) concluded that the reduced RO x and NO x concentrations in the Saharan dust plume contributed to a reduced net O3 production rate, which likely explains the observed relatively low O3 concentrations.

The degradation of PV module efficiency caused by dust deposition under various conditions was investigated.

The layer deposition process adjustments and further module technology improvements that led to a significant increase in the absolute stabilized module conversion efficiency of large area (1.43 m2) tandem MICROMORPH™ modules centered first on obtaining high quality amorphous TF-Si deposited materials for the top cell.