生物成像用二氧杂环丁烷余辉发光体系的研究进展

doi:10.16085/j.issn.1000-6613.2023-0749

摘要/Abstract

摘要：

余辉发光成像方式规避了样本中自体荧光的干扰，极大地降低了背景信号，显著提高了成像信噪比。近年来，基于光氧化反应的二氧杂环丁烷余辉发光体系受到研究者的关注。此类余辉发光体系具有良好的生物相容性与水氧耐受性，易于制备并进行结构修饰，能够实现多功能成像的要求，在疾病诊疗过程中有着广泛的应用前景。本文简述了二氧杂环丁烷余辉发光体系所涉及到的发光机理，并在此基础上总结了体系的构建方式。之后列举出近年来二氧杂环丁烷余辉发光体系应用在肿瘤示踪与手术导航、生物活性分子成像和医学诊疗等方面中的突破性工作。最后，对目前的研究进展进行总结概括，并分析了该体系在临床应用上面临的挑战和对未来的发展进行了展望。

关键词: 光化学, 生物成像, 化学反应, 氧化, 二氧杂环丁烷体系, 余辉发光, 诊疗

Abstract:

Afterglow imaging avoids the interference of autofluorescence, dramatically reduces the background signal, and significantly improves the imaging signal-to-noise ratio. Recently, the dioxetane-afterglow system that bases on photo-oxidation reaction has attracted wide attention. This afterglow system has good biocompatibility, improved aqueous and oxygen tolerance capability, and is easily synthesized and modified. Moreover, this form of afterglow can realize the requirements of multifunctional imaging and has a broad application prospect in the disease diagnosis and treatment process. In this review, the luminescence mechanism of the dioxetane-based afterglow system is briefly described, and the construction method of the system is summarized. The recent breakthroughs in surgical navigation, bioactive molecular imaging, diagnosis, and treatment are also listed. Finally, this review summarizes the current research progress of the dioxetane-based afterglow system, analyses the challenges confronted with the clinical application and prospects the development of this system in future.

Key words: photochemistry, bio-imaging, chemical reaction, oxidation, dioxetane system, afterglow, diagnosis and treatment

中图分类号:

TQ619.7

吕程远, 张函, 杨明旺, 杜健军, 樊江莉. 生物成像用二氧杂环丁烷余辉发光体系的研究进展[J]. 化工进展, 2023, 42(8): 4108-4122.

LYU Chengyuan, ZHANG Han, YANG Mingwang, DU Jianjun, FAN Jiangli. Recent advances of dioxetane-based afterglow system for bio-imaging[J]. Chemical Industry and Engineering Progress, 2023, 42(8): 4108-4122.

图/表 19

图1 单线态氧[2+2]环加成机制

图2 CIEEL发光机制ED—电子给体；SET—单电子转移；BET—反向电子转移

图3 基于光氧化级联反应的二氧杂环丁烷余辉发光体系发光机理

图4 作为光敏引发剂的重原子光敏剂

图5 作为光敏引发剂的卟啉、酞菁衍生物

图6 作为光敏引发剂的AIE分子

图7 半导体聚合物余辉发光底物(a)和余辉发光机理(b)

图8 金刚烷发光前体余辉发光机理PG—保护基团；EWG—吸电子基团

图9 DO与SO的结构式(a)和发光机理(b)

图10 作为余辉发光能量受体的荧光团

图11 响应型受体染料

图12 具有余辉发光性质的单分子荧光团

图13 构建纳米胶束的两亲性表面活性剂

图14 SPPVN与PPVP纳米颗粒制备与纳米粒径[64]

图15 手术导航用AGL-AIE-dots余辉发光纳米点（改编自文献[66]）

图16 用于手术导航的高信噪比余辉发光成像TPT-DCM/AGL纳米探针（改编自文献[67]）

图17 用于检测中性粒细胞相关炎症的双响应余辉发光纳米探针（改编自文献[70]）

图18 肝损伤检测用H2S激活型余辉-磁共振双模式成像纳米探针（改编自文献[71]）

图19 ONOO—激活喜树碱释放与余辉发光监控释药（改编自文献[77]）

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