Freixa's Group - light-tunable organometallic compounds

[1] Preparation of Cyano-Substituted Tetraphenylethylene Derivatives and Their Applications in Solution-Processable OLEDs.

[2] Four-membered red iridium(iii) complexes with Ir-S-P-S structures: rapid room-temperature synthesis and application in OLEDs.

[3] Improving Light Outcoupling Efficiency for OLEDs with Microlens Array Fabricated on Transparent Substrate

[4] An Approach for Measuring the Dielectric Strength of OLED Materials

[5] Recent Applications of Interfacial Exciplex as Ideal Host of Power-Efficient OLEDs

[6] Spectral changes associated with transmission of OLED emission through human skin.

[7] Iridium(III)-Complexed Polydendrimers for Inkjet-Printing OLEDs: The Influence of Solubilizing Steric Hindrance Groups.

[8] Universal Bipolar Host Materials for Blue, Green and Red Phosphorescent OLEDs with Excellent Efficiencies and Small Efficiency Roll-Off.

[9] Understanding and Manipulating the Interplay of Wide-Energy-Gap Host and TADF Sensitizer in High-Performance Fluorescence OLEDs.

[10] Chiral iridium(iii) complexes with four-membered Ir-S-P-S chelating rings for high-performance circularly polarized OLEDs.

[11] Realizing 22.5% External Quantum Efficiency for Solution-Processed Thermally Activated Delayed-Fluorescence OLEDs with Red Emission at 622 nm via a Synergistic Strategy of Molecular Engineering and Host Selection.

[12] Exciplex System with Increased Donor-Acceptor Distance as the Sensitizing Host for Conventional Fluorescent OLEDs with High Efficiency and Extremely Low Roll-Off.

[13] Phenothiazinen-Dimesitylarylborane-Based Thermally Activated Delayed Fluorescence: High-Performance Non-doped OLEDs With Reduced Efficiency Roll-Off at High Luminescence.

[14] Inkjet Printing of Super Yellow: Ink Formulation, Film Optimization, OLEDs Fabrication, and Transient Electroluminescence

[15] Blended host ink for solution processing high performance phosphorescent OLEDs

[16] Highly efficient yellow nondoped thermally activated delayed fluorescence OLEDs by utilizing energy transfer between dual conformations based on phenothiazine derivatives

[17] A yellow organic emitter with novel D-A<inf>3</inf> architecture and hidden delayed fluorescence for highly efficient monochromatic OLEDs

[18] Green solution-processed thermally activated delayed fluorescence OLEDs with improved performance by using interfacial exciplex host

[19] Aryl substituted 2,6-di(thiazol-2-yl)pyridines –excited-state characterization and potential for OLEDs

[20] Room temperature fast synthesis four-membered red iridium(III) complexes containing Ir–S–P–S structures for OLEDs

[21] The synthesis of di-orthometallated triphenyl phosphite iridium(III) complexes with steric groups and their application in OLEDs

[22] New bipolar host materials based on methyl substituted pyridazine for high-performance green and red phosphorescent OLEDs

[23] Regulation of peripheral tert-butyl position: Approaching efficient blue OLEDs based on solution-processable hole-transporting materials

[24] Effects of Cl<inf>2</inf> plasma treatment on stability, wettability, and electrical properties of ITO for OLEDs

[25] Two novel bipolar hosts based on 1,2,4-triazole derivatives for highly efficient red phosphorescent OLEDs showing a small efficiency roll-off

[26] Thianthrene and acridan-substituted benzophenone or diphenylsulfone: Effect of triplet harvesting via TADF and phosphorescence on efficiency of all-organic OLEDS

[27] Efficiency enhancement in fluorescent deep-blue OLEDs by boosting singlet exciton generation through triplet fusion and charge recombination rate

[28] 1,8-Naphthalimide-based circularly polarized TADF enantiomers as the emitters for efficient orange-red OLEDs

[29] Novel Ir(III) complexes ligated with 2-(2,6-difluoropyridin-3-yl)benzo[d]thiazole for highly efficient OLEDs with mild efficiency roll-off

[30] Hole-transporting material based on spirobifluorene unit with perfect amorphous and high stability for efficient OLEDs

[31] Cu(0)-RDRP as an efficient and low-cost synthetic route to blue-emissive polymers for OLEDs

[32] Pure Red Iridium(III) Complexes Possessing Good Electron Mobility with 1,5-Naphthyridin-4-ol Derivatives for High-Performance OLEDs with an EQE over 31%

[33] Understanding the operational lifetime expansion methods of thermally activated delayed fluorescence sensitized OLEDs: A combined study of charge trapping and exciton dynamics

[34] Quantum-chemical studies of homoleptic iridium(III) complexes in OLEDs: fac versus mer isomers

[35] Highly efficient flexible OLEDs based on double-sided nano-dimpled substrate (PVB) with embedded AgNWs and TiO<inf>2</inf> nanoparticle for internal and external light extraction

[36] Achieving non-doped deep-blue OLEDs by applying bipolar imidazole derivatives

[37] A multifunctional luminescent network film electrochemically deposited from a new AIEE emitter for OLEDs and explosive detection

[38] A Series of Dibenzofuran-Based n-Type Exciplex Host Partners Realizing High-Efficiency and Stable Deep-Red Phosphorescent OLEDs

[39] Effects of hole injection layer on performance of green OLEDs based on flexible ITO

[40] Enhanced Light Extraction from Bottom Emission OLEDs by High Refractive Index Nanoparticle Scattering Layer.

[41] Comparative study of multi-functional luminogens with 1,3,5-triazine as the core and phenothiazine or phenoxy donors as the peripheral moieties for non-doped/doped fluorescent and red phosphorescent OLEDs

[42] Facile generation of thermally activated delayed fluorescence and fabrication of highly efficient non-doped OLEDs based on triazine derivatives.

[43] Efficient terbium complex based on a novel pyrazolone derivative ligand used in solution-processed OLEDs

[44] New pyrene-based butterfly-shaped blue AIEgens: Synthesis, structure, aggregation-induced emission and their nondoped blue OLEDs

[45] Enhancement of electrical conductivity during the femtosecond laser trimming process for OLED repair

[46] sztuka religijna dawniej i dziś - wędrówki po europie aleksandry olędzkiej-frybesowej