vibeqc.run_uhf_periodic_gamma_ewald3d¶
- vibeqc.run_uhf_periodic_gamma_ewald3d(system, basis, options=None, *, omega=0.0, grid_shape=None, origin=None, spacing_bohr=0.3, linear_dep_threshold=1e-07, canonical_orth_normalize_diag_first=True, auto_optimize_truncation=True, progress=None, verbose=None)[source]¶
Γ-point open-shell UHF SCF with the EWALD_3D Coulomb dispatch.
Same interface as
run_rhf_periodic_gamma_ewald3d()but with α/β occupations driven by the molecule’smultiplicity. Reuses the RHF driver’s_canonical_orthogonalizerand the sharedPeriodicSCFAcceleratorfromperiodic_scf_accelerators; the Ewald J / real-space K builds are identical to the closed-shell path.- Parameters:
system (vibeqc._vibeqc_core.PeriodicSystem) – See
run_rhf_periodic_gamma_ewald3d().optionsis aPeriodicRHFOptions(UHF-specific options haven’t diverged from RHF in vibe-qc’s Python drivers — same DIIS, damping, level shift, etc.).basis (vibeqc._vibeqc_core.BasisSet) – See
run_rhf_periodic_gamma_ewald3d().optionsis aPeriodicRHFOptions(UHF-specific options haven’t diverged from RHF in vibe-qc’s Python drivers — same DIIS, damping, level shift, etc.).options (vibeqc._vibeqc_core.PeriodicRHFOptions | None) – See
run_rhf_periodic_gamma_ewald3d().optionsis aPeriodicRHFOptions(UHF-specific options haven’t diverged from RHF in vibe-qc’s Python drivers — same DIIS, damping, level shift, etc.).omega (float) – Ewald + numeric controls. See the RHF driver.
grid_shape (Tuple[int, int, int] | int | None) – Ewald + numeric controls. See the RHF driver.
origin (Sequence[float] | None) – Ewald + numeric controls. See the RHF driver.
spacing_bohr (float) – Ewald + numeric controls. See the RHF driver.
linear_dep_threshold (float) – Ewald + numeric controls. See the RHF driver.
canonical_orth_normalize_diag_first (bool)
auto_optimize_truncation (bool)
progress (bool | ProgressLogger | None)
verbose (int | None)
- Return type: