Molecular geometry will be bent, electron geometry will be trigonal planar
tetrahedron
The only possible geometry of a diatomic molecule such as P2 is linear.
Linear
a square
No, SO3 does not have tetrahedral geometry. It has trigonal planar geometry, with a bond angle of approximately 120 degrees.
The IO3 ion has a neutral overall charge, so it is considered nonpolar.
AnswerPolar. Its geometry is bent, as it has one lone pair (nonbonding domain) and two bonding domains. It has an asymmetrical distribution of charge. However, it is not very polar as the electronegativities of sulfur and oxygen are similar.
SO3 is a non polar molecule. Although the bonds between the S and O atoms are polar because S is more electronegative than O hence creating an electronegativity difference, the molecule is non polar. This is because the negative and positive centres are both loacted in the same place (at the S molecule) as they are all on the same plane and therefore there is no permanant dipole as the dipoles in the bond cancel each other out, therefore the molecule is non polar.
SO3 is the chemical formula for the compound sulfur trioxide. Sulfur trioxide gas is a major pollutant and a big contributor to acid rain. But SO3 may, with a 2- added to it as a superscript, represent the sulfite ion with a charge of -2.
The electron geometry of a water molecule is tetrahedral even though the molecular geometry is _____. Bent
electron-pair geometry is octahedral with no LPs and the molecule geometry is octahedral
Molecular geometry will be bent, electron geometry will be trigonal planar
To determine the structural geometry of a molecule, structural pair geometry must be used. These are the amounts of pairs found surrounding a specific molecule, and they are unique to each type of atom.
tetrahedron
trigonal planar
SO2 is polar because it has a bent molecular geometry with the sulfur atom at the center and two oxygen atoms bonded asymmetrically, creating a net dipole moment. In contrast, SO3 is nonpolar because it has a trigonal planar molecular geometry with the sulfur atom at the center and three oxygen atoms bonded symmetrically, resulting in a cancellation of dipole moments.