Host‐Dependent Tunable Phosphorescence Based on Aromatic Heterocyclic Derivatives: Highly Efficient and Photo‐Activated Ultralong Organic Phosphorescence

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Autori principali: Huanyu Yang, Yuefei Wang, Ying Wang, Zaiyong Zhang, Huili Ma, Yoshihiro Yamauchi, Kejia Ling, Yi Zhao, Suzhi Cai, Zhongfu An, Wei Huang
Natura: Artículo Open Access
Pubblicazione: Wiley 2025
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author Huanyu Yang
Yuefei Wang
Ying Wang
Zaiyong Zhang
Huili Ma
Yoshihiro Yamauchi
Kejia Ling
Yi Zhao
Suzhi Cai
Zhongfu An
Wei Huang
author_facet Huanyu Yang
Yuefei Wang
Ying Wang
Zaiyong Zhang
Huili Ma
Yoshihiro Yamauchi
Kejia Ling
Yi Zhao
Suzhi Cai
Zhongfu An
Wei Huang
Huanyu Yang
Yuefei Wang
Ying Wang
Zaiyong Zhang
Huili Ma
Yoshihiro Yamauchi
Kejia Ling
Yi Zhao
Suzhi Cai
Zhongfu An
Wei Huang
collection Wiley Open Access
contents Host‐Dependent Tunable Phosphorescence Based on Aromatic Heterocyclic Derivatives: Highly Efficient and Photo‐Activated Ultralong Organic Phosphorescence Huanyu Yang Yuefei Wang Ying Wang Zaiyong Zhang Huili Ma Yoshihiro Yamauchi Kejia Ling Yi Zhao Suzhi Cai Zhongfu An Wei Huang Advanced Materials Abstract Achieving high phosphorescence efficiency and photo‐activated ultralong organic phosphorescence (UOP) based on the same molecule remains a formidable challenge. Here, a concise strategy is proposed to obtain highly efficient and photo‐activated RTP by doping aromatic heterocyclic derivatives into different polymers. Aromatic heterocyclic derivatives are doped into PAM, PVA, or PAA polymers to produce high phosphorescence efficiency. Impressively, the highest phosphorescence quantum yield can reach up to 66.2% at room temperature, which can be attributed to isolating the chromophore to reduce the excimer and the rigid environment from the polymer to restrict the non‐radiative transitions. In addition, phosphorescence emission color can be tailored from green to deep blue by varying the guests. After aromatic heterocyclic derivatives are doped into PDMA or PVP, the phosphorescence lifetime is prolonged from 1.2 to 578.6 ms. These polymers are successfully applied to multicolor displays and high‐level information storage. This work provides a reasonable strategy to develop highly efficient and photo‐activated RTP materials based on the same molecule. 10.1002/adma.202503550 http://onlinelibrary.wiley.com/termsAndConditions#vor
doi_str_mv 10.1002/adma.202503550
format Artículo Open Access
id wiley_oa_10_1002_adma_202503550
institution Wiley Open Access
license_str_mv http://onlinelibrary.wiley.com/termsAndConditions#vor
publishDate 2025
publisher Wiley
record_format wiley_oa
spellingShingle Host‐Dependent Tunable Phosphorescence Based on Aromatic Heterocyclic Derivatives: Highly Efficient and Photo‐Activated Ultralong Organic Phosphorescence
Huanyu Yang
Yuefei Wang
Ying Wang
Zaiyong Zhang
Huili Ma
Yoshihiro Yamauchi
Kejia Ling
Yi Zhao
Suzhi Cai
Zhongfu An
Wei Huang
Advanced Materials
Host‐Dependent Tunable Phosphorescence Based on Aromatic Heterocyclic Derivatives: Highly Efficient and Photo‐Activated Ultralong Organic Phosphorescence Huanyu Yang Yuefei Wang Ying Wang Zaiyong Zhang Huili Ma Yoshihiro Yamauchi Kejia Ling Yi Zhao Suzhi Cai Zhongfu An Wei Huang Advanced Materials Abstract Achieving high phosphorescence efficiency and photo‐activated ultralong organic phosphorescence (UOP) based on the same molecule remains a formidable challenge. Here, a concise strategy is proposed to obtain highly efficient and photo‐activated RTP by doping aromatic heterocyclic derivatives into different polymers. Aromatic heterocyclic derivatives are doped into PAM, PVA, or PAA polymers to produce high phosphorescence efficiency. Impressively, the highest phosphorescence quantum yield can reach up to 66.2% at room temperature, which can be attributed to isolating the chromophore to reduce the excimer and the rigid environment from the polymer to restrict the non‐radiative transitions. In addition, phosphorescence emission color can be tailored from green to deep blue by varying the guests. After aromatic heterocyclic derivatives are doped into PDMA or PVP, the phosphorescence lifetime is prolonged from 1.2 to 578.6 ms. These polymers are successfully applied to multicolor displays and high‐level information storage. This work provides a reasonable strategy to develop highly efficient and photo‐activated RTP materials based on the same molecule. 10.1002/adma.202503550 http://onlinelibrary.wiley.com/termsAndConditions#vor
title Host‐Dependent Tunable Phosphorescence Based on Aromatic Heterocyclic Derivatives: Highly Efficient and Photo‐Activated Ultralong Organic Phosphorescence
topic Advanced Materials
url https://advanced.onlinelibrary.wiley.com/doi/10.1002/adma.202503550