Dalton Transactions · 2021 · 14 citations · 46 references
MedicineMedicinal ChemistryPharmacologyCancer PharmacologyChemotherapyMolecular OncologyCancer MetabolismCytotoxic ChemotherapyEnzyme InhibitionOncology PharmacologyActive Tumor TargetingCellular Uptake ModulationLysosomal CompartmentalizationLysosomal Damage ResponseLysosomal Damage-induced ActivationMitochondrial Membrane Potential CollapsePlatinum-based AgentsReactive Oxygen Species Injury
)Ir(O^N)Cl]) were prepared and characterized. The complexes exhibited similar antitumor activity to cisplatin and effectively inhibited the migration of tumor cells. Furthermore, the complexes showed favourable hydrolytic activity, while remaining relatively stable in the plasma environment, which facilitated the binding of serum proteins and transport through them. These complexes could decrease the mitochondrial membrane potential, catalyze the oxidation of nicotinamide adenine dinucleotide, induce an increase in intracellular reactive oxygen species (ROS), and eventually result in apoptosis. Aided by their suitable fluorescence property, laser confocal detection showed that the complexes followed an energy-dependent mechanism for their cellular uptake, effectively accumulating in the lysosome and leading to lysosomal damage. In summary, the half-sandwich iridium(III) salicylaldehyde Schiff base complexes could induce lysosomal damage, increase intracellular ROS, and lead to apoptosis, which contributed to their antitumor mechanism of oxidation.
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Organometallic Half-Sandwich Iridium Anticancer Complexes
Zhe Liu, Abraha Habtemariam, Ana M. Pizarro et al. · Journal of Medicinal Chemistry · 2011 · 353 citations · Full text
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