Main group metals are routinely considered as catalytically inactive hence never employed for optimizing the lithium-sulfur electrochemistry. Herein, density function theory calculations reveal that atomically dispersed tin on nitrogen doped...
Researchers around the globe have witnessed several breakthroughs in s- and p-block metal chemistry. Over the past few years, several applications in catalysis associated with these main group metals have...
Adsorption energies and formation energies across both transition metals and main group metals can be predicted with a linear model that includes metal s-adsorbate interactions, metal d-adsorbate interactions, and ionic interactions.
The sterically encumbered cyclopentadienyl ligand 1,2,4-(Me3C)3C5H2 (Cp′′′) effectively stabilizes the main group metals of Al, Ga, In, Ge and Sn with σ- or π-bonds.
<p></p><p>The generalized gradient approximation
(GGA) often fails to correctly describe the electronic structure and
thermochemistry of transition metal oxides and is commonly improved using an
inexpensive correction term with a scaling parameter <i>U</i>. We tune <i>U</i>
to reproduce experimental vanadium oxide redox energetics with a localized basis
and a GGA functional. We find the value for <i>U</i> to be significantly lower
than what is generally reported with plane-wave bases, with the uncorrected GGA
results being in reasonable agreement with experiments. We use this
computational setup to calculate interstitial and substitutional <a>insertion energies of main group metals in vanadium
pentoxide</a> and find <a>interstitial doping to be
thermodynamically favored</a>.</p><p></p>