Fundamentals and Applications of Doped Organic Semiconductors (FADOS)
Research Project, 2025
– 2029
The possibility to control electronic properties through doping is a defining property of semiconductors. As the surge in interest in doped organic semiconductors over the last decade was mainly driven by an interest in thermoelectric applications, focus lay largely on optimizing steady-state electronic properties of bulk materials. Here, we target spatio-temporal control over doping and combine this with a holistic view of doping, exploring the relation between doping and ‘all’ material properties, including thermal, mechanical and biological aspects. Not only allows this to solve urgent problems (contact resistance), it also enables completely new (switchable, reconfigurable) devices.
The topic is inspired by a combination of scientific curiosity and a strong feeling of practical urgency, as reflected by the consortium composition of 8 universities, 4 research institutes and 4 companies. The latter jointly cover all major application areas of organic electronics, including light emission, photovoltaics, logic circuitry as well as instrumentation/modeling – each a multi-billion-euro market. The strong company involvement allows us to expose all doctoral candidates to academic and commercial working environments through a balanced secondment plan. Likewise, the training program complements the transfer of scientific skills (much beyond the specific topic, incl. open science) with personal and entrepreneurial skills, including communication to various audiences, career development, intellectual property and startup-founding, etc.
On short to intermediate time scales, the impact of FADOS will be to enhance European competitiveness in major, growing markets–and beautiful science. On longer time scales, we expect that FADOS will open new fields in which the unique possibilities of soft semiconductors in terms of solution-based local and dynamic tuning of (opto)electronic, thermal, mechanical and biological properties are explored for truly new and green functionalities.
Participants
Christian Müller (contact)
Chalmers, Chemistry and Chemical Engineering, Applied Chemistry
Collaborations
AutoSyn AB
Hisings Backa, Sweden
Centre national de la recherche scientifique (CNRS)
Paris, France
EPISHINE AB
Linköping, Sweden
FlexEnable
Cambridge, United Kingdom
Fluxim
Feusisberg, Switzerland
Georgia Institute of Technology
Atlanta, United States
Heidelberg University
Heidelberg, Germany
Imperial College London
London, United Kingdom
Istituto Italiano di Tecnologia
Genova, Italy
Jülich Research Centre
Juelich, Germany
King Abdullah University of Science and Technology (KAUST)
Thuwal, Saudi Arabia
Linköping University
Linköping, Sweden
LunaLEC AB
Umeå, Sweden
Molecular Gate
Barcelona, Spain
Polytechnic University of Milan
Milano, Italy
RWTH Aachen University
Aachen, Germany
Spanish National Research Council (CSIC)
Madrid, Spain
Umeå University
Umeå, Sweden
Universitat Autonoma de Barcelona (UAB)
Cerdanyola Barcelona, Spain
University of A Coruña
A Coruna, Spain
University of Bern
Bern, Switzerland
University of Cambridge
Cambridge, United Kingdom
University of Colorado
Colorado Springs, United States
University of Liverpool
Liverpool, United Kingdom
University of Strasbourg
Strasbourg, France
University of Stuttgart
Stuttgart, Germany
Funding
European Commission (EC)
Project ID: 101226517
Funding Chalmers participation during 2025–2029
Related Areas of Advance and Infrastructure
Sustainable development
Driving Forces