Iridium‐based materials are among the most active and stable electrocatalysts for the
oxygen evolution reaction. Amorphous iridium oxide structures are found to be more active …

Iridium oxide based electrodes are among the most promising candidates for
electrocatalyzing the oxygen evolution reaction, making it imperative to understand their …

Background: The microscopic composition and properties of infinite hadronic matter at a
wide range of densities and temperatures have been subjects of intense investigation for …

Discovering highly active and stable electrocatalysts for the oxygen evolution reaction (OER)
is critical to the commercial development of many next-generation energy conversion and …

Iridium oxide (IrO x)-based materials are the most suitable oxygen evolution reaction (OER)
catalysts for water electrolysis in acidic media. There is a strong demand from industry for …

The ever-increasing power of modern supercomputers, along with the availability of highly
scalable atomistic simulation codes, has begun to revolutionize predictive modeling of …

Methane strongly adsorbs on the (110) surface of IrO2, a rutile-type metal dioxide. Its C–H
bond is facilely dissociated even below room temperature, as predicted in a few theoretical …

Spin–orbit effects in heavy 5d transition metal oxides, in particular, iridates, have received
enormous current interest due to the prediction as well as the realization of a plethora of …

The interplay of spin–orbit coupling and Coulomb correlations has become a hot topic in
condensed matter theory and is especially important in 4d and 5d transition metal oxides …

Minimizing iridium loading in oxygen evolution reaction (OER) catalysts, without impairing
electrocatalytic activity and stability is crucial to reduce the cost of water electrolysis. In this …