Intrinsically Stretchable Electroluminescent Elastomers with Self‐Confinement Effect for Highly Efficient Non‐Blended Stretchable OLEDs

Ultra‐flexible stretchable organic light‐emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human‐machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfa...

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Published inAngewandte Chemie International Edition Vol. 62; no. 2; pp. e202213749 - n/a
Main Authors Li, Xiang‐Chun, Yao, Lanqian, Song, Wan, Liu, Fang, Wang, Qian, Chen, Jin, Xue, Qian, Lai, Wen‐Yong
Format Journal Article
LanguageEnglish
Published Germany Wiley Subscription Services, Inc 09.01.2023
EditionInternational ed. in English
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Abstract Ultra‐flexible stretchable organic light‐emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human‐machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfactory stretchable electroluminescent materials. Herein, we explore a general concept based on the self‐confinement effect to dramatically improve the stretchability of elastomers, without affecting electroluminescent properties. The balanced rigid/flexible chain dynamics under self‐confinement significantly reduces the modulus of the elastomers, resulting in the maximum strain reaching 806 %. Ultra‐flexible stretchable OLEDs have been constructed based on the resulting ISEEs, achieving unprecedented high‐performance non‐blended stretchable OLEDs. The results suggest an effective molecular design strategy for highly deformable stretchable displays and flexible electronics. Achieving high‐performance electroluminescence under large deformation remains a grand challenge. In this contribution, a general concept based on the self‐confinement effect has been proposed for the design and synthesis of non‐blended intrinsically stretchable electroluminescent elastomers (ISEEs). High‐performance non‐blended stretchable OLEDs have been constructed based on the resulting ISEEs.
AbstractList Ultra‐flexible stretchable organic light‐emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human‐machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfactory stretchable electroluminescent materials. Herein, we explore a general concept based on the self‐confinement effect to dramatically improve the stretchability of elastomers, without affecting electroluminescent properties. The balanced rigid/flexible chain dynamics under self‐confinement significantly reduces the modulus of the elastomers, resulting in the maximum strain reaching 806 %. Ultra‐flexible stretchable OLEDs have been constructed based on the resulting ISEEs, achieving unprecedented high‐performance non‐blended stretchable OLEDs. The results suggest an effective molecular design strategy for highly deformable stretchable displays and flexible electronics. Achieving high‐performance electroluminescence under large deformation remains a grand challenge. In this contribution, a general concept based on the self‐confinement effect has been proposed for the design and synthesis of non‐blended intrinsically stretchable electroluminescent elastomers (ISEEs). High‐performance non‐blended stretchable OLEDs have been constructed based on the resulting ISEEs.
Ultra‐flexible stretchable organic light‐emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human‐machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfactory stretchable electroluminescent materials. Herein, we explore a general concept based on the self‐confinement effect to dramatically improve the stretchability of elastomers, without affecting electroluminescent properties. The balanced rigid/flexible chain dynamics under self‐confinement significantly reduces the modulus of the elastomers, resulting in the maximum strain reaching 806 %. Ultra‐flexible stretchable OLEDs have been constructed based on the resulting ISEEs, achieving unprecedented high‐performance non‐blended stretchable OLEDs. The results suggest an effective molecular design strategy for highly deformable stretchable displays and flexible electronics.
Ultra-flexible stretchable organic light-emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human-machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfactory stretchable electroluminescent materials. Herein, we explore a general concept based on the self-confinement effect to dramatically improve the stretchability of elastomers, without affecting electroluminescent properties. The balanced rigid/flexible chain dynamics under self-confinement significantly reduces the modulus of the elastomers, resulting in the maximum strain reaching 806 %. Ultra-flexible stretchable OLEDs have been constructed based on the resulting ISEEs, achieving unprecedented high-performance non-blended stretchable OLEDs. The results suggest an effective molecular design strategy for highly deformable stretchable displays and flexible electronics.Ultra-flexible stretchable organic light-emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human-machine interfaces. However, the brightness and efficiency of stretchable OLEDs remain still far inferior to their rigid counterparts, owing to the scarcity of satisfactory stretchable electroluminescent materials. Herein, we explore a general concept based on the self-confinement effect to dramatically improve the stretchability of elastomers, without affecting electroluminescent properties. The balanced rigid/flexible chain dynamics under self-confinement significantly reduces the modulus of the elastomers, resulting in the maximum strain reaching 806 %. Ultra-flexible stretchable OLEDs have been constructed based on the resulting ISEEs, achieving unprecedented high-performance non-blended stretchable OLEDs. The results suggest an effective molecular design strategy for highly deformable stretchable displays and flexible electronics.
Author Xue, Qian
Chen, Jin
Song, Wan
Wang, Qian
Lai, Wen‐Yong
Li, Xiang‐Chun
Yao, Lanqian
Liu, Fang
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Issue 2
Keywords Electroluminescent Elastomers
Stretchable Electronics
Flexible Electronics
Organic Emitters
Organic Light-Emitting Diodes (OLEDs)
Language English
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Snippet Ultra‐flexible stretchable organic light‐emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human‐machine interfaces....
Ultra-flexible stretchable organic light-emitting diodes (OLEDs) are emerging as a basic component of flexible electronics and human-machine interfaces....
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StartPage e202213749
SubjectTerms Chain dynamics
Confinement
Deformation effects
Elastomers
Electroluminescence
Electroluminescent Elastomers
Electronics
Flexible components
Flexible Electronics
Formability
Interfaces
Organic Emitters
Organic light emitting diodes
Organic Light-Emitting Diodes (OLEDs)
Stretchability
Stretchable Electronics
Title Intrinsically Stretchable Electroluminescent Elastomers with Self‐Confinement Effect for Highly Efficient Non‐Blended Stretchable OLEDs
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fanie.202213749
https://www.ncbi.nlm.nih.gov/pubmed/36350657
https://www.proquest.com/docview/2759968347
https://www.proquest.com/docview/2734614470
Volume 62
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