Efficient tandem organic solar cells with an Al/MoO3 intermediate layer

By Dewei Zhao, X. W. Sun, Changyun Jiang, A. Kyaw, Guo-Qiang Lo, D. Kwong. 2008

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Transition metal oxides – Thermoelectric properties (2013, background): “However, MoO3 is the most widely investigated stoichiometry of MoOx for a variety of applications such as gas sensing, photochromic devices, light emitting diodes (LEDs), batteries and organic solar cells[238, 295-302].”
Recent trends in polymer tandem solar cells research (2013, methodology): “In the early years of polymer solar cells development, the demonstration of the tandem polymer solar cell concept were first conducted based on the VOC addition using two photovoltaic cells that were fabricated from the same conjugated polymer (PPV derivative or P3HT) [32–34] or polymer/small molecu”
Solution-processable polymeric solar cells: A review on materials, strategies and cell architectures to overcome 10% (2015, background): “However, due to the limited choice of small molecule materials with significantly different absorption spectra, they started exploring hybrid tandem cells combining polymer and small molecule subcells [169,178–181].”
Recent development of the inverted configuration organic solar cells (2011, background): “Thus far, quite a few intermediate layers have been reported, such as TiO2/PEDOT:PSS [112], Ag nanocluster [113], Al/Au/PEDOT:PSS [114], ZnO/ PEDOT:PSS [115,116], Al/MoO3 [117], Al/TiO2:Cs/PEDOT:PSS [118], and MoO3/Ag/Al/Ca [119], to improve the charge carrier collection and modify the optical field”