Journal of Physics D Applied Physics · 2009 · 16 citations · 23 references
Natural SciencesChemistryMaterials ScienceOptical MaterialsPolymer ChemistryPolymer MaterialsElectro-optic EffectsHigh-performance PolymersNonlinear Optical MaterialsOptical PolymersPolymer PhysicsPolymer Thin FilmsElectric Field EffectsElectro-optic PolymersMolecular ChromophoresOptical GainOptical Gain MaterialsPhotorefractive HolographyPhotorefractive PolymersPolymer Holography
We report on the high photorefractive performance of organic polymers doped with arylimine chromophore (diethylaminosalicylaldiminato)nitrobenzene (H1) and its derivative (diethylaminophenylaldiminato)nitrophenol (H2). Polymer blends of H1 and H2 with PVK : ECZ : C60 at 25 : 49 : 25 : 1 wt% and H2 : PVK : ECZ : PC61BM at the same concentration were fabricated. The electric field (E) steady-state diffraction efficiency dependence and the optical gain were measured through holographic experiments at room temperature. For polymers based on chromophore H2, overmodulation of the diffraction efficiency was measured at just E = 32 V µm−1 obtaining 75%, and for polymers based on H1, diffraction of 87% (overmodulation) at E = 48 V µm−1 was observed. Holographic recording imaging was demonstrated at an electric field of just 10–14 V µm−1.
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Coupled Wave Theory for Thick Hologram Gratings
H. Kogelnik · Bell System Technical Journal · 1969 · 4.8K citations
Holographic storage in electrooptic crystals. i. steady state
N. Kukhtarev, Vladimir B. Markov, S. G. Odulov et al. · Ferroelectrics · 1978 · 1.7K citations
Nonlinear Optics of Organic Molecules and Polymers
Hari Singh Nalwa · Optical Engineering · 1997 · 1.3K citations
Natural Sciences, Chemistry, Physics +14