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Chapter 12 • Organic Photovoltaics  277



                   [58]  Cho n, Schlenker CW, Knesting Km, Koelsch P, yip H-l, Ginger dS, Jen AKy: High-dielectric constant
                     side-chain polymers show reduced non-geminate recombination in heterojunction solar cells, Adv
                     Energy Mater 4:1301857, 2014.
                   [59]  Chueh CC, Crump m, Jen AKy: Optical enhancement via electrode designs for high-performance
                     polymer solar cells, Adv Funct Mater 26:321–340, 2016.
                   [60]  Stec Hm, Hutter OS, Hatton rA: Plasmon-active nano-aperture window electrodes for organic pho-
                     tovoltaics, Adv Energy Mater 3:193–199, 2013.
                   [61]  Pereira HJ, Hutter OS, dabera Gdmr, rochford lA, Hatton rA: Copper light-catching electrodes for
                     organic photovoltaics, Sus Energy Fuels 1:859–865, 2017.
                   [62]  Giannouli m, drakonakis Vm, Savva A, eleftheriou P, Florides G, Choulis SA: methods for improving
                     the lifetime performance of organic photovoltaics with low-costing encapsulation, Chem Phys Chem
                     16:1134–1154, 2015.
                   [63]  www.youtube.com/watch?v=uXQepVrtGtw ultra-thin glass – coring willow glass.
                   [64]  Hutter OS, Stec Hm, Hatton rA: An indium-free low work function window electrode for organic
                     photovoltaics which improves with in situ oxidation, Adv Mater 25:284–288, 2013.
                   [65]  Xie F, Choy WCH, Wang C, li X, Zhang S, Hou J: low-temperature solution-processed hydrogen mo-
                     lybdenum and vanadium bronzes for an efficient hole-transport layer in organic electronics, Adv
                     Mater 25:2051–2055, 2013.
                   [66]  yin Z, Wei J, Zheng Q: Interfacial materials for organic solar cells: recent advances and perspectives,
                     Adv Sci 3:1500362, 2016.
                   [67]  Osaka I,  mcCullough  rd: Advances in molecular design and synthesis of regioregular polythio-
                     phenes, Acc Chem Res 41:1202–1214, 2008.
                   [68]  Bannock JH, Krishnadasan SH, nightingale Am, yau CP, Khaw K, Burkitt d, Halls JJm, Heeney m, de
                     mello JC: Continuous synthesis of device-grade semiconducting polymers in droplet-based micro-
                     reactors, Adv Func Mater 23:2123–2129, 2012.
                   [69]  Zhao J, li y, yang G, Jiang K, lin H, Ade H, ma W, yan H: efficient organic solar cells processed from
                     hydrocarbon solvents, Nat Energy 1:15027, 2016.
                   [70]  mcdowell C, Bazan GC: Organic solar cells processed from green solvents, Curr Opin Green Sustain-
                     able Chem 5:49–54, 2017.
                   [71]  Cao W, li J, Chen H, Xue J: Transparent electrodes for organic optoelectronic devices: a review, J Pho-
                     ton Energy 4:040990, 2014.
                   [72]  Jeong S, Jungn S, Kang H, lee d, Choi S-B, Kim S, Park B, yu K, lee J, lee K: role of polymeric metal
                     nucleation inducers in fabricating large-area, flexible, and transparent electrodes for printable elec-
                     tronics, Adv Funct Mater 27:1–8, 2017.
                   [73]  Jin H, Pivrikas A, lee KH, Aljada m, Hambsch m, Burn Pl, meredith P: Factors influencing the effi-
                     ciency of current collection in large area, monolithic organic solar cells, Adv Energy Mater 2:1338, 2012.
                   [74]  lagrange  m,  Sannicolo T,  muñoz-rojas  d,  lohan  BG,  Khan  A,  Anikin  m,  Jiménez  C,  Bruckert  F,
                     Bréchet y, Bellet d: understanding the mechanisms leading to failure in metallic nanowire-based
                     transparent heaters, and solution for stability enhancement, Nanotech 28:055709, 2017.
                   [75]  mulligan CJ, Wilson m, Bryant G, Vaughan B, Zhou X, Belcher J, dastoor PC: A projection of commer-
                     cial-scale organic photovoltaic module costs, Sol Energ Mat Sol C 120:9–17, 2014.
                   [76]  Zhao G, Wang W, Bae T-S, lee S-G, mun CW, lee S, yu H, lee GH, Song m, yun J: Stable ultrathin par-
                     tially oxidized copper film electrode for highly efficient flexible solar cells, Nat Commun 6:8830, 2015.
                   [77]  Hutter OS, Hatton rA: A hybrid copper:tungsten suboxide window electrode for organic photovolta-
                     ics, Adv Mater 27:326–331, 2015.
                   [78]  Hutter OS. nanostructured copper electrodes for organic photovoltaics [Phd Thesis]. university of
                     Warwick; 2015.
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