Understanding the structure and dynamics of water's constituent ions, proton and hydroxide,
has been a subject of numerous experimental and theoretical studies over the last century …

Over the past decade, about 50 potential energy surfaces (PESs) for polyatomics with 4–11
atoms and for clusters have been calculated using the permutationally invariant polynomial …

Despite decades of study, the structures adopted to accommodate an excess proton in water
and the mechanism by which they interconvert remain elusive. We used ultrafast two …

The spectroscopic features of protonated water species in dilute acid solutions have been
long sought after for understanding the microscopic behavior of the proton in water with gas …

A porous metal–organic framework (MOF),[Ni2 (dobdc)(H2O) 2]⋅ 6 H2O (Ni2 (dobdc) or Ni‐
MOF‐74; dobdc4−= 2, 5‐dioxido‐1, 4‐benzenedicarboxylate) with hexagonal channels was …

Given the critical role of the aqueous excess proton in redox chemistry, determining its
structure and the mechanism of its transport in water are intense areas of experimental and …

Seemingly simple yet surprisingly difficult to probe, excess protons in water constitute
complex quantum objects with strong interactions with the extended and dynamically …

In the presence of sufficient concentrations of water, stable, hydrated hydronium ions are
formed in the pores and at the surface of solid acids such as zeolites. For a medium‐pore …

Textbooks describe excess protons in liquid water as hydronium (H3O+) ions, although their
true structure remains lively debated. To address this question, we have combined Raman …

Abstract The Zundel (H 5 O 2+) and Eigen (H 9 O 4+) cations play an important role as
intermediate structures for proton transfer processes in liquid water. In the gas phase they …