Ground to excited state transition magnetic dipole moments (Au):
state X Y Z
1 -0.0005 -0.6038 0.0000
2 0.0000 0.0000 0.0142
3 0.0000 0.0000 1.0441
If you use hole-electron analysis module based on examples\excit\4-nitroaniline.fch and examples\excit\4-nitroaniline.out to perform the analysis for the 1st excited state as I previously mentioned, the result is
Transition magnetic dipole moment in X/Y/Z: 0.002707 -0.603690 0.000918 a.u.
There is no evident difference with the 0.0005 -0.6038 0.0000 outputted by Gaussian. The marginal difference comes from the fact that hole-electron analysis module calculates this quantity based on integral of evenly distributed grid, while Gaussian calculates it analytically. If you find the difference is really large, please make sure that you have used IOp(9/40=4).
]]>It is awesome being able to visualise it using Gaussian, I am very grateful.
p.s. I liked your article on the ChemRXiv.
]]>Integral of hole: 0.999620
Integral of electron: 1.002670
Integral of transition density: -0.000147
Transition dipole moment in X/Y/Z: 0.000123 0.000806 -0.000612 a.u.
Transition magnetic dipole moment in X/Y/Z: 0.043691 -0.593374 0.003183 a.u.
Sm index (integral of Sm function): 0.26984 a.u.
Sr index (integral of Sr function): 0.51772 a.u.
Centroid of hole in X/Y/Z: 0.001884 2.596265 -0.000373 Angstrom
...
If you are not familiar with hole-electron analysis module, please follow example of Section 4.18.1 of manual.
If you want to plot an arrow of transition magnetic dipole moment to graphically indicate its vector, you can use drawing command in VMD; alternatively, you can manually replace dipole moment in Gaussian output file by transition magnetic dipole moment, then the dipole moment shown in GaussView will correspond to transition magnetic dipole moment.
]]>Thanks!
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