Identifying lifetime as one of the key parameters responsible for the low brightness of lanthanide-based OLEDs

OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data ar...

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Published inDalton transactions : an international journal of inorganic chemistry Vol. 5; no. 37; pp. 1286 - 12813
Main Authors Utochnikova, Valentina V, Aslandukov, Andrey N, Vashchenko, Andrey A, Goloveshkin, Alexander S, Alexandrov, Alexey A, Grzibovskis, Raitis, Bünzli, Jean-Claude G
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LanguageEnglish
Published Cambridge Royal Society of Chemistry 28.09.2021
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Abstract OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data are therefore collected for mixed-ligand europium complexes with bathophenanthroline and different classes of anionic ligands and screened to identify the key parameter responsible for this situation, which turns out to be the long lifetime of their excited states. A broad literature search supports this conclusion, showing that lanthanide complexes are inferior to other classes of OLED emitters often because of their long lifetimes; furthermore, among a series of lanthanide complexes, the best results are achieved for those with the shortest lifetimes, even though they suffer from low quantum yields. Using red-emitting Eu 3+ complexes, the key factor curbing lanthanide-based OLED luminance was found, which is the lifetime of the excited state.
AbstractList OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data are therefore collected for mixed-ligand europium complexes with bathophenanthroline and different classes of anionic ligands and screened to identify the key parameter responsible for this situation, which turns out to be the long lifetime of their excited states. A broad literature search supports this conclusion, showing that lanthanide complexes are inferior to other classes of OLED emitters often because of their long lifetimes; furthermore, among a series of lanthanide complexes, the best results are achieved for those with the shortest lifetimes, even though they suffer from low quantum yields.OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data are therefore collected for mixed-ligand europium complexes with bathophenanthroline and different classes of anionic ligands and screened to identify the key parameter responsible for this situation, which turns out to be the long lifetime of their excited states. A broad literature search supports this conclusion, showing that lanthanide complexes are inferior to other classes of OLED emitters often because of their long lifetimes; furthermore, among a series of lanthanide complexes, the best results are achieved for those with the shortest lifetimes, even though they suffer from low quantum yields.
OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data are therefore collected for mixed-ligand europium complexes with bathophenanthroline and different classes of anionic ligands and screened to identify the key parameter responsible for this situation, which turns out to be the long lifetime of their excited states. A broad literature search supports this conclusion, showing that lanthanide complexes are inferior to other classes of OLED emitters often because of their long lifetimes; furthermore, among a series of lanthanide complexes, the best results are achieved for those with the shortest lifetimes, even though they suffer from low quantum yields. Using red-emitting Eu 3+ complexes, the key factor curbing lanthanide-based OLED luminance was found, which is the lifetime of the excited state.
OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters such as quantum yield and charge carrier mobility, there seems to be another key parameter that hinders their performances. Experimental data are therefore collected for mixed-ligand europium complexes with bathophenanthroline and different classes of anionic ligands and screened to identify the key parameter responsible for this situation, which turns out to be the long lifetime of their excited states. A broad literature search supports this conclusion, showing that lanthanide complexes are inferior to other classes of OLED emitters often because of their long lifetimes; furthermore, among a series of lanthanide complexes, the best results are achieved for those with the shortest lifetimes, even though they suffer from low quantum yields.
Author Bünzli, Jean-Claude G
Goloveshkin, Alexander S
Grzibovskis, Raitis
Alexandrov, Alexey A
Vashchenko, Andrey A
Aslandukov, Andrey N
Utochnikova, Valentina V
AuthorAffiliation A.N. Nesmeyanov Institute of Organoelement Compounds
University of Latvia
Material Physics and Technology at Extreme Conditions
Frumkin Institute of Physical Chemistry and Electrochemistry Russian Academy of Sciences
Material Science Department and Chemistry Department of Lomonosov Moscow State University
University of Bayreuth
SUSTech
Russia
Lebedev Physical Institute Russian Academy of Sciences
Laboratory of Crystallography
Lausanne (EPFL)
Russian Academy of Sciences
Institute of Solid State Physics
Material Science Department of Lomonosov Moscow State University
Swiss Federal Institute of Technology
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Snippet OLEDs based on lanthanide complexes have decisive optical advantages but are hampered by low brightness. Despite the efforts to optimize several parameters...
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SubjectTerms Brightness
Carrier mobility
Coordination compounds
Current carriers
Emitters
Europium
Ligands
Parameter identification
Title Identifying lifetime as one of the key parameters responsible for the low brightness of lanthanide-based OLEDs
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https://www.proquest.com/docview/2570374171
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