CrossRef 13. Zhang BY, Solomon GS, Pelton M, Plant J, Santori C, Vuckovic J, Yamamoto Y: Fabrication of InAs Trichostatin A chemical structure quantum dots in AlAs/GaAs DBR pillar microcavities

for single photon sources. J Appl Phys 2005, 97:073507.CrossRef 14. Goldstein L, Glas F, Marzin JY, Charasse MN, Leroux G: Growth by molecular beam epitaxy and characterization of InAs/GaAs strained-layer superlattices. MEK162 cost Appl Phys Lett 1985, 47:1099–1101.CrossRef Competing interests The authors declare that they have no competing interests. Authors’ contributions M-FL participated in the design of the study; grew the samples; carried out the TEM images, test of micro-PL, the alignment, and the reconstruction of the data; took part in discussions and in the interpretation of the result; and wrote the manuscript. YY participated in the design of the study, testing of the micro-PL, discussions, and interpretation of the results. J-FH participated in the acquisition of the TEM images and the discussions of the results. YZ and X-jS participated in the discussions of the results. L-JW and H-QN have supervised the writing of the manuscript. H-QN and Z-CN supervised the

writing of the manuscript and the experimental part. All the authors have read and approved the final manuscript.”
“Background Organic solar cells have emerged as potential energy conversion devices for several advantages, including flexibility, lightweight, semi-transparent characteristics, and ability to large-scale production at low temperature [1–3]. However, their reported efficiencies are still very low even for laboratory cells. The most crucial problems many of Selleck PS-341 these devices face are limited mobility of charge carriers and rapid recombination. To mitigate these Montelukast Sodium problems, some special methods, such as reducing the thickness of the active layer of solar cell and incorporating inorganic materials with high carrier mobility, have been taken for effective charge separation [4–6]. One of these inorganic materials is silicon nanowires (SiNWs) [7–9]. Most recently, some research groups have demonstrated fabrication of SiNW/organic hybrid solar cells [10–16]. These

SiNWs can offer at least three advantages for solar energy conversion. First, they provide high-mobility pathway from the active interface to the electrodes for carriers. Second, they can significantly reduce reflection and induce strong light trapping between nanowires, resulting in strong absorption. Finally, they increase the contact area between the two materials. On the other hand, application of AgNPs in organic photovoltaic devices is of considerable interest [17]. Surface plasmon resonance in AgNPs offers a promising way to enhance the power conversion efficiency (PCE) of organic solar cells as it exhibits strong local field enhancement around the AgNPs, which can increase light scattering and absorption in the organic film [18–21].