https://www.selleckchem.com/products/Idarubicin.html The redox property of metal nanoclusters plays a pivotal role and is of particular interest in catalysis and other applications, such as aerobic oxidation, hydrogenation, and singlet oxygen generation, over intact nanoclusters. In this study, we report a one-way conversion process of the anionic [Ag16Au13L24]3- nanocluster into a charge neutral nanocluster of [Ag16Au13L24]0 via oxidation in a solution phase using H2O2 as the oxidant. Three-electron loss of [Ag16Au13L24]3- occurred during the oxidation process, which was confirmed by electron paramagnetic resonance and electrospray ionization mass spectrometry methods. The one-way conversion from [Ag16Au13L24]3- to [Ag16Au13L24]0 nanoclusters is in situ monitored by UV-visible spectroscopy. A nanocluster charge effect is manifested in the UV-visible spectra of nanoclusters; an ∼10 nm redshift is observed compared with the optical absorption spectrum of [Ag16Au13L24]3-.As the first potassium channel with an x-ray structure determined, and given its homology to eukaryotic channels, the pH-gated prokaryotic channel KcsA has been extensively studied. Nevertheless, questions related, in particular, to the allosteric coupling between its gates remain open. The many currently available x-ray crystallography structures appear to correspond to various stages of activation and inactivation, offering insights into the molecular basis of these mechanisms. Since these studies have required mutations, complexation with antibodies, and substitution of detergents in place of lipids, examining the channel under more native conditions is desirable. Solid-state nuclear magnetic resonance (SSNMR) can be used to study the wild-type protein under activating conditions (low pH), at room temperature, and in bacteriomimetic liposomes. In this work, we sought to structurally assign the activated state present in SSNMR experiments. We used a combination of molecular dynamics (MD) simulations