TL;DR: In this paper, a complete assignment of the C2SO skeleton was made and substantiated by a normal co-ordinate analysis carried out using a digital computer and the potential energy distributions of symmetry co-ordinates among the normal coordinates have also been calculated.
TL;DR: In this paper, an additive additive additive amount of a product made by reacting an O,O-DDIORGANO-S-(-2-HYDROXALKYL) PHOSPHORODITHIOATE with a THIONYL HALIDE, SULFURYL HALide, ORGANO SulFONYL HALIDE OR A SUL FATE ESTER was added to the output of a generator.
Abstract: LUBRICATING OILS AND FUELS ARE INHIBITED AGAINST OXIDATION BY ADDING TO THEM AN ANTIOXIDANT AMOUNT OF A PRODUCT MADE BY REACTING AN O,O-DDIORGANO-S-(-2-HYDROXALKYL) PHOSPHORODITHIOATE WITH A THIONYL HALIDE, SULFURYL HALIDE, ORGANO SULFONYL HALIDE OR A SULFATE ESTER.
TL;DR: In this article, modern valence bond theory, in its spin-coupled form, is used to investigate the bonding in sulfuryl fluoride, and they find that the sulfur atoms utilize all six valence electrons in two-centre====== two-electron polar covalent bonds and in angularly split====== lone-pair-like orbitals.
Abstract: Modern valence bond theory, in its spin-coupled form, is used to
investigate the bonding in sulfuryl fluoride,
SO
2
F
2
, and in the thionyl fluorides,
SOF
2
and SOF
4
. Analogous calculations are also
carried out for SO
2
, SO
3
and SF
4
, to
enable various comparisons to be made. We find that the sulfur atoms
in these systems utilize all six valence electrons in two-centre
two-electron polar covalent bonds and in angularly split
lone-pair-like orbitals. Although based on just a single orbital
configuration, the spin-coupled wavefunction provides a significant
energy improvement over the corresponding restricted
Hartree–Fock calculation. The spin-coupled description of the
SO and S–F bonding, and of the non-bonding electrons on
sulfur, turns out to be highly transferable. We find that the
S–O π bonds are significantly more polar than the S–O
σ bonds. We find no evidence to support notions of
p
π
–d
π
back-donation from oxygen to
sulfur. We examine also the ‘equivalent’ or
‘bent-bond’ model of the SO units in the thionyl
fluorides.