Electrostatic Control of Carrier-Dopant Interactions for Efficient Free Carrier Generation in Doped Conjugated Polymers
ACS Nano 2025, 19, 38255–38266.
Research overview
Carrier–dopant attraction is examined separately from carrier mobility in doped P3HT films. Larger dopants favor free-carrier generation at low doping levels by weakening Coulomb binding. At higher doping levels, overlapping Coulomb potentials reduce the dissociation barrier, allowing smaller dopants to support higher carrier densities. Dopant selection therefore depends on the intended doping regime.
Summary based on the published abstract.
See Also
- [Paper]Accompanying Structural Transformations in Polarity Switching of Heavily Doped Conjugated Polymers (2025)
- [Paper]Enhancing Mechanical Deformability of Rigid Conjugated Polymers through Functional Additive-Induced Persistence Length Modulation (2025)
- [Paper]Effect of Polymer Crystallinity on the Spatial Distribution of Dopant in Sequentially Solution-Doped Conjugated Polymer Thin Films (2025)
- [Paper]Multiscale Analyses of Strain-Enhanced Charge Transport in Conjugated Polymers (2024)
- [Paper]Structural Insights into Conjugated Polymers for Stretchable Organic Transistors (2024)
- [Paper]Morphology Associated Positive Correlation between Carrier Mobility and Carrier Density in Highly Doped Donor-Acceptor Conjugated Polymers (2023)
- [Paper]Solutal-Marangoni-Flow-Mediated Growth of Patterned Highly Crystalline Organic Semiconductor Thin Film via Gap-Controlled Bar Coating (2021)
- [Paper]Designing a Length-Modulated Azide Photocrosslinker to Improve the Stretchability of Semiconducting Polymers (2023)