Add like
Add dislike
Add to saved papers

Electronic Structure of OsSi Calculated by MS-NEVPT2 with Inclusion of the Relativistic Effects.

The electronic states of OsSi are calculated by multi-state N-electron valence state second order perturbation theory (MS-NEVPT2) with all-electron basis sets. The relativistic effects are considered comprehensively that allows us to identify the X3 Σ0+ - ground state. The theoretical equilibrium bond length 2.103 Å is close to the experimental measurement of 2.1207 Å while the vibrational frequency 466 cm-1 is smaller than the experimental value of 516 cm-1 . Two excited states, namely 3 Π1 (I) and 3 Π1 (II), are located at 15568 and 18316 cm-1 above the ground state, respectively. The 3 Π1 (I) ← X3 Σ0+ - transition has been assigned to the experimental spectra at 15729 cm-1 and 3 Π1 (II) ← X3 Σ0+ - may produce the bands near 18469 cm-1 . Although the latter transition energy is in accord with the experimental spectra, theoretical calculations give too small oscillator strength. Moreover, plenty of excited states with considerable oscillator strengths are located that could serve as reference data in future experiments. The four low-lying states of OsC are also calculated for comparison.

Full text links

We have located links that may give you full text access.
Can't access the paper?
Try logging in through your university/institutional subscription. For a smoother one-click institutional access experience, please use our mobile app.

Related Resources

For the best experience, use the Read mobile app

Mobile app image

Get seemless 1-tap access through your institution/university

For the best experience, use the Read mobile app

All material on this website is protected by copyright, Copyright © 1994-2024 by WebMD LLC.
This website also contains material copyrighted by 3rd parties.

By using this service, you agree to our terms of use and privacy policy.

Your Privacy Choices Toggle icon

You can now claim free CME credits for this literature searchClaim now

Get seemless 1-tap access through your institution/university

For the best experience, use the Read mobile app