RSC Advances · 2013 · 187 citations · 103 references
Natural SciencesChemistryMaterials ScienceElectronic MaterialsOptical MaterialsOptoelectronicsConducting PolymersMain-group ChemistryOptical PolymersOptoelectronic DevicesOptoelectronic MaterialsOrganic SemiconductorsCarrier MobilityCharge Carrier DensityCharge Carrier MobilityConjugated Polymer ArchitectureConjugated Polymer StructuresConjugated PolymersIntrinsic PropertiesOptoelectronic Properties
The last decade has witnessed great progress in conjugated polymers for application in optoelectronics. The biggest driving force for the field is to develop polymers with suitable HOMO and LUMO orbital energies, as well as high charge carrier mobility for improved performance in practical devices. Apart from the conventional donor–acceptor (D–A) strategy to tune the optoelectronic properties, the incorporation of main-group elements represents a promising new way to achieve a similar function, however, more efficiently, due to the intrinsic electronic properties of the main-group components. This review highlights the recent advances in main-group element-based conjugated polymers for application in optoelectronics, representatively focusing on Se-, Te-, P-, Si-, Ge-, and B-containing materials.
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Jianhui Hou, Hsiang-Yu Chen, Shaoqing Zhang et al. · Journal of the American Chemical Society · 2008 · 1.1K citations
Natural Sciences, Materials Engineering, Materials Science +17