Block copolymer directed synthesis of mesoporous TiO2 for dye-sensitized solar cells by Nedelcu, M, Lee, J, Crossland, E, Warren, S, Orilall, M, Guldin, S, Huettner, S, Ducati, C, Eder, D, Wiesner, U, Steiner, U, Snaith, H

Block copolymer directed synthesis of mesoporous TiO2 for dye-sensitized solar cells by Nedelcu, M, Lee, J, Crossland, E, Warren, S, Orilall, M, Guldin, S, Hüttner, S, Ducati, C, Eder, D, Wiesner, U, Steiner, U, Snaith, H

Block copolymer morphologies in dye-sensitized solar cells: probing the photovoltaic structure-function relation. by Crossland, E, Nedelcu, M, Ducati, C, Ludwigs, S, Hillmyer, M, Steiner, U, Snaith, H

“…We integrate mesostructured titania arrays into dye-sensitized solar cells by replicating ordered, oriented one-dimensional (1D) columnar and three-dimensional (3D) bicontinuous gyroid block copolymer phases. The solar cell performance, charge transport, and recombination are investigated. …”

Block copolymer morphologies in dye-sensitized solar cells: Probing the photovoltaic structure-function relation by Crossland, E, Nedelcu, M, Ducati, C, Ludwigs, S, Hillmyer, M, Steiner, U, Snaith, H

“…We integrate mesostructured titania arrays into dye-sensitized solar cells by replicating ordered, oriented one-dimensional (1D) columnar and three-dimensional (3D) bicontinuous gyroid block copolymer phases. The solar cell performance, charge transport, and recombination are investigated. …”

Improved conductivity in dye-sensitised solar cells through block-copolymer confined TiO2 crystallisation by Guldin, S, Huettner, S, Tiwana, P, Orilall, M, Uelguet, B, Stefik, M, Docampo, P, Kolle, M, Divitini, G, Ducati, C, Redfern, S, Snaith, H, Wiesner, U, Eder, D, Steiner, U

“…In contrast to earlier methods, the high temperature stability of mesoporous titania is enabled by the self-assembly of the amphiphilic block copolymer polyisoprene-block-polyethylene oxide (PI-b -PEO) which compartmentalises TiO2 crystallisation, preventing the collapse of porosity at temperatures up to 700 °C. …”

A bicontinuous double gyroid hybrid solar cell. by Crossland, E, Kamperman, M, Nedelcu, M, Ducati, C, Wiesner, U, Smilgies, D, Toombes, G, Hillmyer, M, Ludwigs, S, Steiner, U, Snaith, H

“…The freestanding gyroid network is fabricated by electrochemical deposition into the 10 nm wide voided channels of a self-assembled, selectively degradable block copolymer film. The highly ordered pore structure is ideal for uniform infiltration of an organic hole transporting material, and solid-state dye-sensitized solar cells only 400 nm thick exhibit up to 1.7% power conversion efficiency. …”

A bicontinuous double gyroid hybrid solar cell by Crossland, E, Kamperman, M, Nedelcu, M, Ducati, C, Wiesner, U, Smilgies, D, Toombes, G, Hillmyer, M, Ludwigs, S, Steiner, U, Snaith, H

“…The freestanding gyroid network is fabricated by electrochemical deposition into the 10 nm wide voided channels of a self-assembled, selectively degradable block copolymer film. The highly ordered pore structure is ideal for uniform infiltration of an organic hole transporting material, and solid-state dye-sensitized solar cells only 400 nm thick exhibit up to 1.7% power conversion efficiency. …”