Abstract
We conduct a review of the recent progress of utilizing amorphous and semicrystalline polymer additives with varying molecular weight to manipulate the crystallization, morphology, and charge transport of solution-processable organic semiconductors.
Highlights
Introduction and background1.1 Recent progress of flexible electronics In recent years, research in flexible electronics has unveiled rapid progress [1,2,3,4,5,6,7,8,9,10,11]
These research endeavors have opened up vast opportunities for the organic semiconductors to be applied in high performance organic electronic devices such as organic thin film transistors [3235], organic gas sensors [36,37,38], photovoltaic devices [39,40,41] and logic circuits [42,43,44]
This study indicated that tuning the polymer viscosity by employing the polymer additives with different molecular weight can be a pathway to regulate the thin film morphology of organic semiconductors
Summary
1.1 Recent progress of flexible electronics In recent years, research in flexible electronics has unveiled rapid progress [1,2,3,4,5,6,7,8,9,10,11]. 3. Overview of polymers with varying molecular weight we will provide an overview of the important works that report mixing organic semiconductors with polymeric additives with different molecular weight, in order to tune the crystal growth, thin film morphology, phase segregation, and charge transport. Overview of polymers with varying molecular weight we will provide an overview of the important works that report mixing organic semiconductors with polymeric additives with different molecular weight, in order to tune the crystal growth, thin film morphology, phase segregation, and charge transport
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