A Near-IR Reversible Fluorescent Probe Modulated by Selenium for Monitoring Peroxynitrite and Imaging in Living CellsWe have developed a near-IR reversible fluorescent probe containing an organoselenium functional group that can be used for the highly sensitive and selective monitoring of peroxynitrite oxidation and reduction events under physiological conditions. The probe effectively avoids the influence of autofluorescence in biological systems and gave positive results when tested in both aqueous solution and living cells. Real-time images of cellular peroxynitrite were successfully acquired
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Based on a novel strategy for modulating the fluorescence of selenide and selenoxide, we have design...
We present the synthesis, spectroscopic properties, and live-cell application of a new BODIPY (boron...
The redox homeostasis between peroxynitrite and glutathione is closely associated with the physiolog...
In this study, the far-red-emitting fluorescence probe 1, containing a rhodamine derivative and a hy...
A fluorescent probe, HKGreen-2, has been developed based on a specific reaction between ketone and p...
pH and hypoxia levels are two important diagnostic biomarkers in biological systems and abnormal lev...
Provided herein are improved fluorogenic compounds and probes that can be used as reagents for measu...
We present the design, synthesis, spectroscopy, and biological applications of PyBor, a new type of ...
Peroxynitrite is a potent oxidizing and nitrating agent which has detrimental effects on cells by al...
We have developed a near-infrared (NIR) reversible and ratiometric fluorescence sensor based on Se-B...
A novel fluorescent probe, HKGreen-3, for sensing peroxynitrite is designed on the basis of the rhod...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Based on a novel strategy for modulating the fluorescence of selenide and selenoxide, we have design...
We present the synthesis, spectroscopic properties, and live-cell application of a new BODIPY (boron...
The redox homeostasis between peroxynitrite and glutathione is closely associated with the physiolog...
In this study, the far-red-emitting fluorescence probe 1, containing a rhodamine derivative and a hy...
A fluorescent probe, HKGreen-2, has been developed based on a specific reaction between ketone and p...
pH and hypoxia levels are two important diagnostic biomarkers in biological systems and abnormal lev...
Provided herein are improved fluorogenic compounds and probes that can be used as reagents for measu...
We present the design, synthesis, spectroscopy, and biological applications of PyBor, a new type of ...
Peroxynitrite is a potent oxidizing and nitrating agent which has detrimental effects on cells by al...
We have developed a near-infrared (NIR) reversible and ratiometric fluorescence sensor based on Se-B...
A novel fluorescent probe, HKGreen-3, for sensing peroxynitrite is designed on the basis of the rhod...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Hypoxia stress causes cell damage and apoptosis by producing excessive reactive oxygen species (ROS)...
Based on a novel strategy for modulating the fluorescence of selenide and selenoxide, we have design...