Charge analysis by projecting the density of states on orbitals of atoms

nhsnisha
Messages
3
Reaction score
0
Dear all,

I really need help.
My question: How do i project the density of states onto orbitals of atoms? this is to do a charge analysis.

Can anyone provide me with an eqn or refer me to any relevant text or paper.

Greatly apprieciate your help.

Thanks
nisha
 
Physics news on Phys.org
Something like a Mulliken population analysis?

I'm not sure if that can be done in any straightforward way. Ideally, the orbitals and their occupancies contain essentially all measurable information about the system. The DOS has a lot less information than that.
 
projecting the density of states onto orbitals of atoms means the LOCAL DENSITY OF STATES.
Find any Solid State Book Index, and find the term "Local Density of States"
or LDOS.
 
Dear all,

many thanks for your reply, will check out the book.

Greatly apprieciate!
 
PRB147 said:
projecting the density of states onto orbitals of atoms means the LOCAL DENSITY OF STATES.

And how do you get the orbitals from this?
 
From the BCS theory of superconductivity is well known that the superfluid density smoothly decreases with increasing temperature. Annihilated superfluid carriers become normal and lose their momenta on lattice atoms. So if we induce a persistent supercurrent in a ring below Tc and after that slowly increase the temperature, we must observe a decrease in the actual supercurrent, because the density of electron pairs and total supercurrent momentum decrease. However, this supercurrent...
Hi. I have got question as in title. How can idea of instantaneous dipole moment for atoms like, for example hydrogen be consistent with idea of orbitals? At my level of knowledge London dispersion forces are derived taking into account Bohr model of atom. But we know today that this model is not correct. If it would be correct I understand that at each time electron is at some point at radius at some angle and there is dipole moment at this time from nucleus to electron at orbit. But how...
Back
Top