DMol3
Interaction of ethylene with a zirconocene catalyst.
DMol3 is particularly suited to the study of such
transition metal compounds and their reactions. Click for a more
detailed image (160k).
- State of the art density functional code for molecules, surfaces,
and crystals with highly efficient numerical basis
- Applicable to all types of molecular systems, insulating
crystals, and surfaces
- Successful applications to organic chemistry, organometallics,
zeolites, oxide surfaces, polymerization catalysis, molecular
crystals, and chemical vapor deposition
- Calculation methods include:
- Self-consistent DFT for closed and open shell systems
- DFT calculations for crystals and surfaces with adsorbates
- Local DFT functionals: PWC, VMN, JMW & KS
- GGA DFT functionals: PW91, BLYP, BP, PBE and more
- Optional relativistic corrections
- all electron or semilocal pseudopotentials
- tetrahedron method for k-space integrations in metallic solids
- Capabilities include:
- Energies and binding energies
- Structural optimizations
- Vibrational frequencies/IR absorption, example: rocksalt vibrations
- Constrained optimizations
- Transition state searching
- intrinsic reaction coordinate (IRC) finding
- DFT-MD with thermostats
- Polarizabilities
- Dipole moments
- Partial charges with Mulliken or Hirshfeld analysis
- Display of orbitals, densities, and potential
- Mayer bond orders
- Thermochemical properties
- Nuclear electric field gradients
- Densities of states
- Bandstructure plots (also with band-population analysis)
- Fermi surface
- Tersoff-Hamann surfaces for tunnel microscopy
- COSMO model for molecules and surfaces: interfaces at liquids
- UV + visible spectra: TDDFT
DMol3 publications at accelrys
DMol3 collaborators page
More information and commercially available DMol versions:
DMol3-mstudio
DMol3 developer, especially quantum part
Jan 2010, BD