Nuclear motion dependence of the electric field gradient at the 9Be nucleus in BeH+
β Scribed by Antonio C. Borin; Francisco B.C. Machado; Fernando R. Ornellas
- Publisher
- Elsevier Science
- Year
- 1992
- Tongue
- English
- Weight
- 409 KB
- Volume
- 196
- Category
- Article
- ISSN
- 0009-2614
No coin nor oath required. For personal study only.
β¦ Synopsis
The electric field gradient (q) at the beryllium nucleus in BeH+ has been calculated as a function of the internuclear distance using the best BeH+ wavefunction available in the literature. Nuclear motion effects on q are computed as an average of q(R) over the vibrational wavefunction. It is shown that Buckingham's expression is inappropriate to compute such a correction and therefore the results reported by Diercksen and Sadlej on BeH+ and other systems do not have the accuracy they imply to have.
π SIMILAR VOLUMES
An OCE SCF calculation on HCI has been performed using P 29-ST0 basis. The electric field gradient at tic Cl nucleus is shown to arise principally from electron density very close to the Cl nucleus, as in ND', but in contrrrst to the situation in HD.
The electric field gradient tensor at the hydrogen nucleus in water has been calcuhted in an SCF calculation with local nesr-Hartree-Fock qutity using asymmetric b&s sets. The results are in excellent agreement with results obtained by Davidson and Feller with a basis set of uniform near-Hartree-Foc
It is argued that the nuclear quadrupole -electric field gradi- , i, j Γ x, y, z. [1] ent ( EFG ) interaction is, in principle, dependent on the presence of a magnetic field B . A rough estimate of the size of this effect yields 10 04 in fields up to 10 T. However, if the Since this potential is de