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91探花
One of the substrate layouts for our organic solar cells
Credit: AFMD Group

Moritz Riede

Professor of Soft Functional Nanomaterials

Research theme

  • Photovoltaics and nanoscience

Sub department

  • Condensed Matter Physics

Research groups

  • Advanced Functional Materials and Devices (AFMD) Group
moritz.riede@physics.ox.ac.uk
Telephone: 01865 (2)72377 (office),01865 (2)82095 (lab)
  • About
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Organic Electronics and Beyond

ADVANCED OPTICAL MATERIALS 9:14 (2021) ARTN 2101108

Authors:

Malte C Gather, Bjorn Lussem, Sebastian Reineke, Moritz Riede

Organic Electronics and Beyond (Advanced Optical Materials 14/2021)

Advanced Optical Materials Wiley 9:14 (2021)

Authors:

Malte C Gather, Bj枚rn L眉ssem, Sebastian Reineke, Moritz Riede

Perspectives of Organic and Perovskite鈥怋ased Spintronics (Advanced Optical Materials 14/2021)

Advanced Optical Materials Wiley 9:14 (2021)

Authors:

Alberto Privitera, Marcello Righetto, Franco Cacialli, Moritz K Riede

Thermally Evaporated Donor Molecules for Low-Voltage Loss Organic Solar Cells

Fundacio Scito (2021)

Authors:

Pascal Kaienburg, Helen Bristow, Anna Jungbluth, Irfan Habib, David Beljonne, Moritz Riede

Adduct-based p-doping of organic semiconductors

Nature Materials Nature Research 20 (2021) 1248-1254

Authors:

Nobuya Sakai, Ross Warren, Fengyu Zhang, Simantini Nayak, Junliang Liu, Sameer V Kesava, Yen-Hung Lin, Himansu S Biswal, Xin Lin, Chris Grovenor, Tadas Malinauskas, Aniruddha Basu, Thomas D Anthopoulos, Vytautas Getautis, Antoine Kahn, Moritz Riede, Pabitra K Nayak, Henry J Snaith

Abstract:

Electronic doping of organic semiconductors is essential for their usage in highly efficient optoelectronic devices. Although molecular and metal complex-based dopants have already enabled significant progress of devices based on organic semiconductors, there remains a need for clean, efficient and low-cost dopants if a widespread transition towards larger-area organic electronic devices is to occur. Here we report dimethyl sulfoxide adducts as p-dopants that fulfil these conditions for a range of organic semiconductors. These adduct-based dopants are compatible with both solution and vapour-phase processing. We explore the doping mechanism and use the knowledge we gain to 'decouple' the dopants from the choice of counterion. We demonstrate that asymmetric p-doping is possible using solution processing routes, and demonstrate its use in metal halide perovskite solar cells, organic thin-film transistors and organic light-emitting diodes, which showcases the versatility of this doping approach.

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