Publication | Closed Access
Design and Integration in Electro‐Optic Devices of Highly Efficient and Robust Red‐NIR Phosphorescent Nematic Hybrid Liquid Crystals Containing [Mo<sub>6</sub>I<sub>8</sub>(OCOC<i><sub>n</sub></i>F<sub>2<i>n</i>+1</sub>)<sub>6</sub>]<sup>2−</sup> (<i>n</i> = 1, 2, 3) Nanoclusters
50
Citations
43
References
2015
Year
Optical MaterialsEngineeringLuminescent GlassLiquid Crystalline ElastomerNew SeriesChemistryOptical SwitchingElectro‐optic DevicesHybrid MaterialsHighly EfficientMaterials ScienceCrystal MaterialNanotechnologyPhotonic MaterialsMolecular MaterialFunctional NanomaterialsElectronic MaterialsNanomaterialsFunctional MaterialsOrganic-inorganic Hybrid Material
By combining [Mo 6 I 8 (C n F 2 n +1 COO) 6 ] 2‐ ( n = 1, 2, 3) nanocluster units with liquid crystalline ammonium cations, a new series of hybrid materials is developed that show a nematic liquid crystal phase, the most fluid of all LC phase, on a large range of temperatures including room temperature. The photophysical studies performed in the LC state show that these self‐assembled hybrid materials emit in the red‐NIR with absolute quantum yields up to 0.7 and show a very good photostability under continuous irradiation. They are further integrated up to 20 wt% in E7, a well‐known nematic commercial LC mixture. Mixtures are investigated in terms of homogeneity and stability to select the best suitable candidate for the design of electro‐controlled devices. Studies of optical switching, contrast, viscosity, and behavior toward an electrical stimulus demonstrate the high potential of these hybrid materials in the fields of photonic or optoelectronic.
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