{"title":"阳离子酞菁对病原菌光灭活的研究进展","authors":"Cláudia P.S. Ribeiro, Leandro M.O. Lourenço","doi":"10.1016/j.jphotochemrev.2021.100422","DOIUrl":null,"url":null,"abstract":"<div><p><span>Phthalocyanine (Pc) dyes are photoactive compounds that can absorb and emit light in a large range of the UV–vis spectrum, with recognized potential for medical applications. Considering the low solubility of Pc macrocycles in water, it is important to use cationic symptoms on their skeleton to improve their amphiphilicity for biomedical applications. The use of suitable pyridinium groups on Pc is a good strategy to solve this drawback and make them more eff ;ective to photoinactivate microorganisms </span><em>via</em> a photodynamic inactivation (PDI) approach. This review focuses the synthesis of quaternized Pc dyes, their photophysical and photochemical properties, and their antimicrobial photoinactivation efficiency. This innovative study compares, for the first time, different cationic moieties on Pc taking into account the efficiency of singlet oxygen (<sup>1</sup>O<sub>2</sub><span>), quantum yield (Φ</span><sub>Δ</sub><span>) generation, fluorescence quantum yield (Φ</span><sub>F</sub><span>), (photo)stability, light irradiation type (visible/white and/or red light), maximized overlapped absorption effect of Pc (S- and/or Q-band) </span><em>vs</em> light system irradiation type, and water solubility (<em>n</em>-octanol/water partition coefficient, P<sub>o/w</sub>), when these parameters are determined and provided in the multidisciplinary reports. This approach is also relevant to conjugate free-base (H<sub>2</sub>Pc) and metalated phthalocyanines (MPc, M = Zn<sup>2+</sup>, Mg<sup>2+</sup>, In<sup>3+</sup>, Ga<sup>3+</sup>, Ge<sup>3+</sup>, Si<sup>4+</sup>, etc.) with aromatic or aliphatic substituents linked by <em>N</em>, <em>O</em> or <em>S</em><span> atoms on the peripheral or axial positions of the Pc structures, such as e.g. (methoxy, oxy, or thio)pyridinium, ammonium, or benzimidazolium units, etc. Here, the influence of the structural peripheral (α- and/or β-position of Pc) or axial substituents type, number and positive charge position that can affect the PDI process will be analysed. These aspects are important to design versatile molecules that can interact with pathogenic microorganisms of variable size, subcellular architecture, biochemical composition, and susceptibility to externally added chemical agents. This review highlights the important developments of several modifications of cationic Pc dyes for the PDI of microorganisms, such as pathogenic bacteria, fungi, and virus.</span></p></div>","PeriodicalId":376,"journal":{"name":"Journal of Photochemistry and Photobiology C: Photochemistry Reviews","volume":"48 ","pages":"Article 100422"},"PeriodicalIF":12.8000,"publicationDate":"2021-09-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://sci-hub-pdf.com/10.1016/j.jphotochemrev.2021.100422","citationCount":"31","resultStr":"{\"title\":\"Overview of cationic phthalocyanines for effective photoinactivation of pathogenic microorganisms\",\"authors\":\"Cláudia P.S. Ribeiro, Leandro M.O. 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This innovative study compares, for the first time, different cationic moieties on Pc taking into account the efficiency of singlet oxygen (<sup>1</sup>O<sub>2</sub><span>), quantum yield (Φ</span><sub>Δ</sub><span>) generation, fluorescence quantum yield (Φ</span><sub>F</sub><span>), (photo)stability, light irradiation type (visible/white and/or red light), maximized overlapped absorption effect of Pc (S- and/or Q-band) </span><em>vs</em> light system irradiation type, and water solubility (<em>n</em>-octanol/water partition coefficient, P<sub>o/w</sub>), when these parameters are determined and provided in the multidisciplinary reports. This approach is also relevant to conjugate free-base (H<sub>2</sub>Pc) and metalated phthalocyanines (MPc, M = Zn<sup>2+</sup>, Mg<sup>2+</sup>, In<sup>3+</sup>, Ga<sup>3+</sup>, Ge<sup>3+</sup>, Si<sup>4+</sup>, etc.) with aromatic or aliphatic substituents linked by <em>N</em>, <em>O</em> or <em>S</em><span> atoms on the peripheral or axial positions of the Pc structures, such as e.g. (methoxy, oxy, or thio)pyridinium, ammonium, or benzimidazolium units, etc. Here, the influence of the structural peripheral (α- and/or β-position of Pc) or axial substituents type, number and positive charge position that can affect the PDI process will be analysed. These aspects are important to design versatile molecules that can interact with pathogenic microorganisms of variable size, subcellular architecture, biochemical composition, and susceptibility to externally added chemical agents. 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引用次数: 31
摘要
酞菁(Pc)染料是一种光活性化合物,可以吸收和发射紫外-可见光谱范围内的光,具有公认的医疗应用潜力。考虑到Pc大环在水中的低溶解度,利用其骨架上的阳离子症状来改善其两亲性对于生物医学应用具有重要意义。在Pc上使用合适的吡啶基团是解决这一缺点的一个很好的策略,并通过光动力失活(PDI)方法使它们更有效地光灭活微生物。本文综述了季铵化Pc染料的合成、光物理和光化学性质及其抗菌光失活效果。这项创新的研究首次比较了Pc上不同阳离子基团的单线态氧效率(1O2)、量子产率(ΦΔ)的产生、荧光量子产率(ΦF)、(光)稳定性、光照射类型(可见光/白光和/或红光)、Pc的最大重叠吸收效应(S-和/或q波段)与光系统照射类型、水溶性(正辛醇/水分配系数,Po/w)。当这些参数确定并在多学科报告中提供时。这种方法也适用于共轭自由碱(H2Pc)和金属化酞菁(MPc, M = Zn2+, Mg2+, In3+, Ga3+, Ge3+, Si4+等)与芳香族或脂肪族取代基在Pc结构的周围或轴向位置上由N, O或S原子连接,例如(甲氧基,氧基或硫)吡啶,铵或苯并咪唑单元等。本文将分析结构外围(Pc的α-和/或β-位置)或轴向取代基类型、数量和正电荷位置对PDI过程的影响。这些方面对于设计能够与不同大小、亚细胞结构、生化组成和对外部添加的化学制剂的敏感性的致病微生物相互作用的多功能分子是重要的。本文综述了阳离子Pc染料用于致病菌、真菌和病毒等微生物PDI的几种改性的重要进展。
Overview of cationic phthalocyanines for effective photoinactivation of pathogenic microorganisms
Phthalocyanine (Pc) dyes are photoactive compounds that can absorb and emit light in a large range of the UV–vis spectrum, with recognized potential for medical applications. Considering the low solubility of Pc macrocycles in water, it is important to use cationic symptoms on their skeleton to improve their amphiphilicity for biomedical applications. The use of suitable pyridinium groups on Pc is a good strategy to solve this drawback and make them more eff ;ective to photoinactivate microorganisms via a photodynamic inactivation (PDI) approach. This review focuses the synthesis of quaternized Pc dyes, their photophysical and photochemical properties, and their antimicrobial photoinactivation efficiency. This innovative study compares, for the first time, different cationic moieties on Pc taking into account the efficiency of singlet oxygen (1O2), quantum yield (ΦΔ) generation, fluorescence quantum yield (ΦF), (photo)stability, light irradiation type (visible/white and/or red light), maximized overlapped absorption effect of Pc (S- and/or Q-band) vs light system irradiation type, and water solubility (n-octanol/water partition coefficient, Po/w), when these parameters are determined and provided in the multidisciplinary reports. This approach is also relevant to conjugate free-base (H2Pc) and metalated phthalocyanines (MPc, M = Zn2+, Mg2+, In3+, Ga3+, Ge3+, Si4+, etc.) with aromatic or aliphatic substituents linked by N, O or S atoms on the peripheral or axial positions of the Pc structures, such as e.g. (methoxy, oxy, or thio)pyridinium, ammonium, or benzimidazolium units, etc. Here, the influence of the structural peripheral (α- and/or β-position of Pc) or axial substituents type, number and positive charge position that can affect the PDI process will be analysed. These aspects are important to design versatile molecules that can interact with pathogenic microorganisms of variable size, subcellular architecture, biochemical composition, and susceptibility to externally added chemical agents. This review highlights the important developments of several modifications of cationic Pc dyes for the PDI of microorganisms, such as pathogenic bacteria, fungi, and virus.
期刊介绍:
The Journal of Photochemistry and Photobiology C: Photochemistry Reviews, published by Elsevier, is the official journal of the Japanese Photochemistry Association. It serves as a platform for scientists across various fields of photochemistry to communicate and collaborate, aiming to foster new interdisciplinary research areas. The journal covers a wide scope, including fundamental molecular photochemistry, organic and inorganic photochemistry, photoelectrochemistry, photocatalysis, solar energy conversion, photobiology, and more. It provides a forum for discussing advancements and promoting collaboration in the field of photochemistry.