On the vibronic level structure in the NO3 radical Part III. Observation of intensity borrowing via ground state mixing
Literature Information
John F. Stanton, Mitchio Okumura
The Ã2E″← 2A′2 absorption spectrum exhibits vibronically allowed transitions from the ground state of NO3 to upper state levels having a″1 and e′ vibronic symmetries. This paper explores the coupling mechanisms that lend intensities to these features. While transitions to e′ vibronic levels borrow intensity from the very strong 2E′← 2A′2 electronic transition, those to a″1 levels involve only negligible upper-state borrowing effects. Rather, it is the vibronic mixing of the ground vibronic level of NO3 with vibrational levels in the 2E′ electronic state that permit the a″1 levels to be seen in the spectrum. These ideas are supported by vibronic coupling calculations. The fact that the intensities of features corresponding to the two different vibronic symmetries are comparable is thus accidental.
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