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Get Free AccessAbstract Compared with conventional closed‐shell fluorophores, radical cations provide an opportunity for development of red‐to‐NIR fluorophores with small sizes and easy preparation. However, most radical cations reported in the literature suffer from poor stability in water solution and are almost non‐emissive. To tackle this challenge, we herein develop a deep‐red‐emissive and water‐stable pyrrole radical cation P⋅ + −DPA−Zn, which can be easily generated from P−DPA−Zn by air oxidation. The deep‐red‐emissive P⋅ + −DPA−Zn can be used for imaging‐guided mitochondria‐targeted delivery of Zn 2+ into cancer cells to promote mutant p53 proteins degradation and abrogate mutp53‐manifested gain of function, including reduced chemotherapy resistance, inhibited cancer cell migration, decreased tumor cell colony and sphere formation. The water‐stable and deep‐red emissive pyrrole radical cation is thus promising for cancer theranostic applications.
Zikai Zhou, Jieying Qian, Kai Liu, Yunjiao Zhang, Meng Gao, Ben Zhong Tang (2022). A Water‐Stable and Red‐Emissive Radical Cation for Mutp53 Cancer Therapy. , 134(46), DOI: https://doi.org/10.1002/ange.202212671.
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Type
Article
Year
2022
Authors
6
Datasets
0
Total Files
0
Language
en
DOI
https://doi.org/10.1002/ange.202212671
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