The superconducting Chevrel phase adopts this geometry, whose stability complex for formation can be found form the Irving-Williams series. They can isomerize via a reaction that forces them through a C-sub-2v intermediate or a D-sub-3h intermediate. Besides undergoing the Ray-Dutt or Bailar twists, their ligands can be arranged facially or meridonally. Werner complexes exhibit this formation, whose orbitals can be divided into the t-sub-2g and e-sub-g sets due to crystal field splitting. One of their axes may elongate to break degeneracy in th
The superconducting Chevrel phase adopts this geometry, whose stability complex for formation can be found form the Irving-Williams series. They can isomerize via a reaction that forces them through a C-sub-2v intermediate or a D-sub-3h intermediate. Besides undergoing the Ray-Dutt or Bailar twists, their ligands can be arranged facially or meridonally. Werner complexes exhibit this formation, whose orbitals can be divided into the t-sub-2g and e-sub-g sets due to crystal field splitting. One of their axes may elongate to break degeneracy in the classic Jahn-Teller effect, and this geometry occurs in sulfur hexafloride, molybdenum hexacarbonyl, or any complex with no lone pairs and six ligands according to VSEPR theory. For 10 points, name this moleculer geometry which resembles an eight-faced solid.
The superconducting Chevrel phase adopts this geometry, whose stability complex for formation can be found form the Irving-Williams series.
{Octahedral}