Applied Physics Letters · 1993 · 112 citations · 11 references
Optical MaterialsEngineeringResponsive PolymersChemistryLuminescence PropertyPolymersPicosecond Luminescence StudiesPhosphorescence ImagingOptical PropertiesPolymer ProcessingPhotophysical PropertyFast DecayPolymer ChemistryMaterials SciencePhotoluminescencePhotochemistryOptoelectronic MaterialsLuminescence StudyOrganic Charge-transfer CompoundSemiconducting PolymerPolymer ScienceApplied PhysicsConjugated PolymerOptoelectronicsP-phenylene Vinylene
Picosecond luminescence studies on poly(p-phenylene vinylene) (PPV) and related compounds in the temperature range of 10–300 K are reported. We identify a fast nonradiative and considerably slower radiative recombination channel. The fastest decay is observed in PPV. In the phenyl substituted derivative poly(phenyl-p-phenylenevinylene) a significant contribution from a slow component (∼1.3 ns) is found. Dilution of the polymer in a blend leads to an increase of the contribution of the slow component. We attribute the fast decay to luminescence quenching due to energy dependent trapping of mobile excitations whereas the slow component reflects the radiative recombination.
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