AI Article Synopsis

  • The theoretical investigation explored the presolvated electron presence in three oxidation states of aluminum (Al(0), Al(I), Al(II)), analyzing specific reactions involving aluminum complexes.
  • The study revealed that the most stable geometric structure of aluminum is tetrahedral across all oxidation states.
  • Delocalized electrons were shown to form only in certain aluminum coordination complexes, acting as strong reducing agents capable of capturing CO molecules to form oxalate ions.

Article Abstract

Presolvated electron possibility in three oxidation states of aluminum - Al(0), Al(I), and Al(II) - has been theoretically investigated for the Al + 6NH, Al(CH) + 5NH, and Al(CH) + 4NH reactions. It has been shown that the metal center adopts a tetrahedral shape for its most stable geometric structure, irrespective of the degree of Al oxidation states. Using different analysis techniques (highest occupied molecular orbital shapes, spin density distributions, and electron delocalization ranges), we showed that presolvated (delocalized) electrons are only formed in the Al(CH)(NH) coordination complexes when 2 ≤ ≤ 4. It has also been evidenced that these delocalized electrons being powerful reducing agents allowed two CO molecules to be captured and form an oxalate ion in close contact with the [Al(CH)(CH)(NH)] dication core.

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Source
http://dx.doi.org/10.1039/d3cp06096aDOI Listing

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