New Rhodamine Nitroxide Based Fluorescent Probes for Intracellular Hydroxyl Radical Identification in Living Cells
摘要:
The synthesis, characteristics, and biological applications of a series of new rhodamine nitroxide fluorescent probes that enable imaging of hydroxyl radicals (center dot OH) In living cells are described. These probes are highly selective for center dot OH in aqueous solution, avoiding interference from other reactive oxygen species (ROS), and they facilitate center dot OH imaging in biologically active samples. The robust nature of these probes (high specificity and selectivity, and facile synthesis) offer distinct advantages over previous methods for center dot OH detection.
New Rhodamine Nitroxide Based Fluorescent Probes for Intracellular Hydroxyl Radical Identification in Living Cells
摘要:
The synthesis, characteristics, and biological applications of a series of new rhodamine nitroxide fluorescent probes that enable imaging of hydroxyl radicals (center dot OH) In living cells are described. These probes are highly selective for center dot OH in aqueous solution, avoiding interference from other reactive oxygen species (ROS), and they facilitate center dot OH imaging in biologically active samples. The robust nature of these probes (high specificity and selectivity, and facile synthesis) offer distinct advantages over previous methods for center dot OH detection.
New Rhodamine Nitroxide Based Fluorescent Probes for Intracellular Hydroxyl Radical Identification in Living Cells
作者:Nazmiye B. Yapici、Steffen Jockusch、Alberto Moscatelli、Srinivas Rao Mandalapu、Yasuhiro Itagaki、Dallas K. Bates、Sherri Wiseman、K. Michael Gibson、Nicholas J. Turro、Lanrong Bi
DOI:10.1021/ol202816m
日期:2012.1.6
The synthesis, characteristics, and biological applications of a series of new rhodamine nitroxide fluorescent probes that enable imaging of hydroxyl radicals (center dot OH) In living cells are described. These probes are highly selective for center dot OH in aqueous solution, avoiding interference from other reactive oxygen species (ROS), and they facilitate center dot OH imaging in biologically active samples. The robust nature of these probes (high specificity and selectivity, and facile synthesis) offer distinct advantages over previous methods for center dot OH detection.