Abstract
We report on a novel approach including: 1. the design of an efficient intermediate layer, which facilitates the use of most high performance active materials in tandem structure and the compatibility of the tandem concept with large-scale production; 2. the concept of ternary composites based on commercially available materials, which enhances the absorption of poly(3-hexylthiophene) (P3HT) and as a result increase the PCE of the P3HT-based large-scale OPV devices; 3. laser-based module processing, which provides an excellent processing resolution and as a result can bring the power conversion efficiency (PCE) of mass-produced organic photovoltaic (OPV) devices close to the highest PCE values achieved for lab-scale solar cells through a significant increase in the geometrical fill factor. We believe that the combination of the above mentioned concepts provides a clear roadmap to push OPV towards large-scale production and commercial applications. (C) 2013 Elsevier B.V. All rights reserved.
Original language | English |
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Journal | Solar Energy Materials & Solar Cells |
Volume | 120 |
Issue number | PART B |
Pages (from-to) | 701-708 |
Number of pages | 8 |
ISSN | 0927-0248 |
DOIs | |
Publication status | Published - 2014 |
Keywords
- ENERGY
- MATERIALS
- PHYSICS,
- POLYMER SOLAR-CELLS
- ENERGY-CONVERSION EFFICIENCY
- TO-ROLL FABRICATION
- INDIUM-TIN-OXIDE
- PHOTOVOLTAIC DEVICES
- IR SENSITIZATION
- BANDGAP POLYMER
- LOW-TEMPERATURE
- LARGE-AREA
- P3HT/PCBM
- Solution processing
- Organic tandem solar cells
- Intermediate layer
- Ternary composites
- Optical-simulation
- Laser-based module processing
- Solar cells
- Organic lasers
- Intermediate layers
- Laser-based
- Solution-processing
- Tandem solar cells