The vibrational energy of a diatomic molecule can be approximated by extension of the quantum harmonic oscillator. The vibrational energy, Ev, is then Ev = (v + 1/2)hv0 where v is an integer representing vibrational quantum numbers such that v = 0,1,2,3,..., where v=0 for a diatomic molecule at the ground vibrational state; h is Planck's constant; and v0 is the fundamental vibrational frequency. For this problem then, you would need the fundamental vibrational frequency of the particular diatomic atom, and then simply calculate Ev for v=1, and v=2.
Vibrational.
Infrared is absorbed by the vibration of molecules. The vibrational energy of a molecule is quantized. The IR energy will cause vibration of the atoms linked by the bond. This will be a specific frequency that will vary slightly from compound to compound.ecule,
potential energy of a molecule is equivelent to the energy of the molecule in a fusion state
Movement of particles
Reducing the size of a molecule gives that molecule greater potential energy because the molecule isn't using that energy since it is smaller. Being larger would make less potential energy.
Molecular vibrations are one of the ways in which a molecule stores chemical energy. For a diatomic molecule, the vibrational can be approximated by the quantum harmonic oscillator. The vibrational energy Ev is Ev = (v + 1/2)hv0 where v is an integer representing vibrational quantum numbers such that v = 0,1,2,3,..., where v=0 for a diatomic molecule at the ground vibrational state; h is Planck's constant; and v0 is the natural frequency of the harmonic oscillator.
No. From what I understand, the Uncertainty Principle won't allow this - so even at absolute zero (a temperature that can't really be achieved 100%), there will still be some vibrational energy left.
Vibrational.
R. J. Le Roy has written: 'Dissociation energy and long-range potential of diatomic molecules from vibrational spacings'
Diatomic gases can absorb heat to increase their vibrational and rotational energy in addition to their translational energy. Monatomic gases have no bonds to vibrate or rotate.
Visible spectra are associated with electron energy state transitions; vibrational modes show up in the infrared. If you're asking about black body radiation then you can use the Maxwell-Boltzmann equation to calculate the temperature.
No, it is not correct to say that the bond energy always decreases when a diatomic molecule loses an electron. F2 and O2 are counterexamples to this point. When a molecule loses an electron, it will come from the highest occupied molecular orbital. In both O2 and F2, this MO is an antibonding MO. Removing an electron from an antibonding MO *increases* the bond energy.
Vibrational kinetic energy is the energy due to vibrational motion :)
Vibrational energy. The vibration of one molecule is transferred to adjacent molecules as it "hits" them. The vibration of molecules is otherwise known as heat or thermal energy.
There are five ways that energy can be stored in a molecule. They are mass energy, translational energy, bond energy, vibrational energy, rotational energy, and nuclear spin energy. All of these are considered to be potential energy, except for nuclear spin energy.
The bromine diatomic molecule has a bond energy of 190 kilojoules per mole. This translates to a bond length of 228 picometers.
by transferring vibrational energy to adjacent molecules.