The
DZV model of Methylene Chloride is the optimal model
for showing the geometry of Methylene Chloride.
Bond Lengths
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The HOMO orbitals are the highest highest energy
molecular orbitals occupied by electrons. For
methylene chloride the orbitals are non-bonding, this
will help show how the molecule will react.
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The LUMO orbitals are the lowest energy molecular
orbitals occupied by electrons. For Methylene Chloride
the LUMO orbitals are bonding, which will help
determine how the molecule will react.
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The
electrostatic potential for methylene chloride is as
expected, there is a large electron cloud around the
chlorides. It is expected that there would be such a
large electron cloud around the chloride because
chlorides have such a large number of valence
electrons.
Dipole
Moment
The calculated dipole moment for methylene chloride was found to be 2.529460 debye. The experimental value for the dipole moment of methylene chloride was found to be 1.60 debye. (http://cccbdb.nist.gov/) |
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IR Spectrum
![]() The above IR spectrum is for methylene chloride, and there are many peaks which correspond to certain vibrations in methylene chloride. The peaks around 3100 1/cm is due to the asymmetric stretching between the C-H atoms. The large peak around 1250 1/cm is due to the H-C-H out of plane wagging. The large peak around 1850 1/cm is due to the C-Cl asymmetric stretching. There are other stretches due to other vibrations in methylene chloride, but they are as strong as the ones mentioned. References: 1. (http://cccbdb.nist.gov/) |